Datasets:

celinelee

/

thestack-v2-cpp-2011-windows-blamed

like 0

a422edebeaaf6a738bd6c9425f22ecd4ceed80ee

b14d5833a79518a40d302e5eb40ed5da193cf1b2

/cpp/extern/crypto++/5.2.1/rijndael.cpp

3b4a361a3f27d52398a46ea2f7d4a1832a22718a

permissive

andyburke/bitflood

dcb3fb62dad7fa5e20cf9f1d58aaa94be30e82bf

fca6c0b635d07da4e6c7fbfa032921c827a981d6

refs/heads/master

UTF-8

C++

cpp

// rijndael.cpp - modified by Chris Morgan <[email protected]> // and Wei Dai from Paulo Baretto's Rijndael implementation // The original code and all modifications are in the public domain. // This is the original introductory comment: /** * version 3.0 (December 2000) * * Optimised ANSI C code for the Rijndael cipher (now AES) * * author Vincent Rijmen <[email protected]> * author Antoon Bosselaers <[email protected]> * author Paulo Barreto <[email protected]> * * This code is hereby placed in the public domain. * * THIS SOFTWARE IS PROVIDED BY THE AUTHORS ''AS IS'' AND ANY EXPRESS * OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED * WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE * ARE DISCLAIMED. IN NO EVENT SHALL THE AUTHORS OR CONTRIBUTORS BE * LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR * CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF * SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR * BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, * WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE * OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, * EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. */ #include "pch.h" #ifndef CRYPTOPP_IMPORTS #include "rijndael.h" #include "misc.h" NAMESPACE_BEGIN(CryptoPP) void Rijndael::Base::UncheckedSetKey(CipherDir dir, const byte *userKey, unsigned int keylen) { AssertValidKeyLength(keylen); m_rounds = keylen/4 + 6; m_key.New(4*(m_rounds+1)); word32 temp, *rk = m_key; unsigned int i=0; GetUserKey(BIG_ENDIAN_ORDER, rk, keylen/4, userKey, keylen); switch(keylen) { case 16: while (true) { temp = rk[3]; rk[4] = rk[0] ^ (Te4[GETBYTE(temp, 2)] & 0xff000000) ^ (Te4[GETBYTE(temp, 1)] & 0x00ff0000) ^ (Te4[GETBYTE(temp, 0)] & 0x0000ff00) ^ (Te4[GETBYTE(temp, 3)] & 0x000000ff) ^ rcon[i]; rk[5] = rk[1] ^ rk[4]; rk[6] = rk[2] ^ rk[5]; rk[7] = rk[3] ^ rk[6]; if (++i == 10) break; rk += 4; } break; case 24: while (true) // for (;;) here triggers a bug in VC60 SP4 w/ Processor Pack { temp = rk[ 5]; rk[ 6] = rk[ 0] ^ (Te4[GETBYTE(temp, 2)] & 0xff000000) ^ (Te4[GETBYTE(temp, 1)] & 0x00ff0000) ^ (Te4[GETBYTE(temp, 0)] & 0x0000ff00) ^ (Te4[GETBYTE(temp, 3)] & 0x000000ff) ^ rcon[i]; rk[ 7] = rk[ 1] ^ rk[ 6]; rk[ 8] = rk[ 2] ^ rk[ 7]; rk[ 9] = rk[ 3] ^ rk[ 8]; if (++i == 8) break; rk[10] = rk[ 4] ^ rk[ 9]; rk[11] = rk[ 5] ^ rk[10]; rk += 6; } break; case 32: while (true) { temp = rk[ 7]; rk[ 8] = rk[ 0] ^ (Te4[GETBYTE(temp, 2)] & 0xff000000) ^ (Te4[GETBYTE(temp, 1)] & 0x00ff0000) ^ (Te4[GETBYTE(temp, 0)] & 0x0000ff00) ^ (Te4[GETBYTE(temp, 3)] & 0x000000ff) ^ rcon[i]; rk[ 9] = rk[ 1] ^ rk[ 8]; rk[10] = rk[ 2] ^ rk[ 9]; rk[11] = rk[ 3] ^ rk[10]; if (++i == 7) break; temp = rk[11]; rk[12] = rk[ 4] ^ (Te4[GETBYTE(temp, 3)] & 0xff000000) ^ (Te4[GETBYTE(temp, 2)] & 0x00ff0000) ^ (Te4[GETBYTE(temp, 1)] & 0x0000ff00) ^ (Te4[GETBYTE(temp, 0)] & 0x000000ff); rk[13] = rk[ 5] ^ rk[12]; rk[14] = rk[ 6] ^ rk[13]; rk[15] = rk[ 7] ^ rk[14]; rk += 8; } break; } if (dir == DECRYPTION) { unsigned int i, j; rk = m_key; /* invert the order of the round keys: */ for (i = 0, j = 4*m_rounds; i < j; i += 4, j -= 4) { temp = rk[i ]; rk[i ] = rk[j ]; rk[j ] = temp; temp = rk[i + 1]; rk[i + 1] = rk[j + 1]; rk[j + 1] = temp; temp = rk[i + 2]; rk[i + 2] = rk[j + 2]; rk[j + 2] = temp; temp = rk[i + 3]; rk[i + 3] = rk[j + 3]; rk[j + 3] = temp; } /* apply the inverse MixColumn transform to all round keys but the first and the last: */ for (i = 1; i < m_rounds; i++) { rk += 4; rk[0] = Td0[Te4[GETBYTE(rk[0], 3)] & 0xff] ^ Td1[Te4[GETBYTE(rk[0], 2)] & 0xff] ^ Td2[Te4[GETBYTE(rk[0], 1)] & 0xff] ^ Td3[Te4[GETBYTE(rk[0], 0)] & 0xff]; rk[1] = Td0[Te4[GETBYTE(rk[1], 3)] & 0xff] ^ Td1[Te4[GETBYTE(rk[1], 2)] & 0xff] ^ Td2[Te4[GETBYTE(rk[1], 1)] & 0xff] ^ Td3[Te4[GETBYTE(rk[1], 0)] & 0xff]; rk[2] = Td0[Te4[GETBYTE(rk[2], 3)] & 0xff] ^ Td1[Te4[GETBYTE(rk[2], 2)] & 0xff] ^ Td2[Te4[GETBYTE(rk[2], 1)] & 0xff] ^ Td3[Te4[GETBYTE(rk[2], 0)] & 0xff]; rk[3] = Td0[Te4[GETBYTE(rk[3], 3)] & 0xff] ^ Td1[Te4[GETBYTE(rk[3], 2)] & 0xff] ^ Td2[Te4[GETBYTE(rk[3], 1)] & 0xff] ^ Td3[Te4[GETBYTE(rk[3], 0)] & 0xff]; } } } typedef BlockGetAndPut<word32, BigEndian> Block; void Rijndael::Enc::ProcessAndXorBlock(const byte *inBlock, const byte *xorBlock, byte *outBlock) const { word32 s0, s1, s2, s3, t0, t1, t2, t3; const word32 *rk = m_key; /* * map byte array block to cipher state * and add initial round key: */ Block::Get(inBlock)(s0)(s1)(s2)(s3); s0 ^= rk[0]; s1 ^= rk[1]; s2 ^= rk[2]; s3 ^= rk[3]; /* * Nr - 1 full rounds: */ unsigned int r = m_rounds >> 1; for (;;) { t0 = Te0[GETBYTE(s0, 3)] ^ Te1[GETBYTE(s1, 2)] ^ Te2[GETBYTE(s2, 1)] ^ Te3[GETBYTE(s3, 0)] ^ rk[4]; t1 = Te0[GETBYTE(s1, 3)] ^ Te1[GETBYTE(s2, 2)] ^ Te2[GETBYTE(s3, 1)] ^ Te3[GETBYTE(s0, 0)] ^ rk[5]; t2 = Te0[GETBYTE(s2, 3)] ^ Te1[GETBYTE(s3, 2)] ^ Te2[GETBYTE(s0, 1)] ^ Te3[GETBYTE(s1, 0)] ^ rk[6]; t3 = Te0[GETBYTE(s3, 3)] ^ Te1[GETBYTE(s0, 2)] ^ Te2[GETBYTE(s1, 1)] ^ Te3[GETBYTE(s2, 0)] ^ rk[7]; rk += 8; if (--r == 0) { break; } s0 = Te0[GETBYTE(t0, 3)] ^ Te1[GETBYTE(t1, 2)] ^ Te2[GETBYTE(t2, 1)] ^ Te3[GETBYTE(t3, 0)] ^ rk[0]; s1 = Te0[GETBYTE(t1, 3)] ^ Te1[GETBYTE(t2, 2)] ^ Te2[GETBYTE(t3, 1)] ^ Te3[GETBYTE(t0, 0)] ^ rk[1]; s2 = Te0[GETBYTE(t2, 3)] ^ Te1[GETBYTE(t3, 2)] ^ Te2[GETBYTE(t0, 1)] ^ Te3[GETBYTE(t1, 0)] ^ rk[2]; s3 = Te0[GETBYTE(t3, 3)] ^ Te1[GETBYTE(t0, 2)] ^ Te2[GETBYTE(t1, 1)] ^ Te3[GETBYTE(t2, 0)] ^ rk[3]; } /* * apply last round and * map cipher state to byte array block: */ s0 = (Te4[GETBYTE(t0, 3)] & 0xff000000) ^ (Te4[GETBYTE(t1, 2)] & 0x00ff0000) ^ (Te4[GETBYTE(t2, 1)] & 0x0000ff00) ^ (Te4[GETBYTE(t3, 0)] & 0x000000ff) ^ rk[0]; s1 = (Te4[GETBYTE(t1, 3)] & 0xff000000) ^ (Te4[GETBYTE(t2, 2)] & 0x00ff0000) ^ (Te4[GETBYTE(t3, 1)] & 0x0000ff00) ^ (Te4[GETBYTE(t0, 0)] & 0x000000ff) ^ rk[1]; s2 = (Te4[GETBYTE(t2, 3)] & 0xff000000) ^ (Te4[GETBYTE(t3, 2)] & 0x00ff0000) ^ (Te4[GETBYTE(t0, 1)] & 0x0000ff00) ^ (Te4[GETBYTE(t1, 0)] & 0x000000ff) ^ rk[2]; s3 = (Te4[GETBYTE(t3, 3)] & 0xff000000) ^ (Te4[GETBYTE(t0, 2)] & 0x00ff0000) ^ (Te4[GETBYTE(t1, 1)] & 0x0000ff00) ^ (Te4[GETBYTE(t2, 0)] & 0x000000ff) ^ rk[3]; Block::Put(xorBlock, outBlock)(s0)(s1)(s2)(s3); } void Rijndael::Dec::ProcessAndXorBlock(const byte *inBlock, const byte *xorBlock, byte *outBlock) const { word32 s0, s1, s2, s3, t0, t1, t2, t3; const word32 *rk = m_key; /* * map byte array block to cipher state * and add initial round key: */ Block::Get(inBlock)(s0)(s1)(s2)(s3); s0 ^= rk[0]; s1 ^= rk[1]; s2 ^= rk[2]; s3 ^= rk[3]; /* * Nr - 1 full rounds: */ unsigned int r = m_rounds >> 1; for (;;) { t0 = Td0[GETBYTE(s0, 3)] ^ Td1[GETBYTE(s3, 2)] ^ Td2[GETBYTE(s2, 1)] ^ Td3[GETBYTE(s1, 0)] ^ rk[4]; t1 = Td0[GETBYTE(s1, 3)] ^ Td1[GETBYTE(s0, 2)] ^ Td2[GETBYTE(s3, 1)] ^ Td3[GETBYTE(s2, 0)] ^ rk[5]; t2 = Td0[GETBYTE(s2, 3)] ^ Td1[GETBYTE(s1, 2)] ^ Td2[GETBYTE(s0, 1)] ^ Td3[GETBYTE(s3, 0)] ^ rk[6]; t3 = Td0[GETBYTE(s3, 3)] ^ Td1[GETBYTE(s2, 2)] ^ Td2[GETBYTE(s1, 1)] ^ Td3[GETBYTE(s0, 0)] ^ rk[7]; rk += 8; if (--r == 0) { break; } s0 = Td0[GETBYTE(t0, 3)] ^ Td1[GETBYTE(t3, 2)] ^ Td2[GETBYTE(t2, 1)] ^ Td3[GETBYTE(t1, 0)] ^ rk[0]; s1 = Td0[GETBYTE(t1, 3)] ^ Td1[GETBYTE(t0, 2)] ^ Td2[GETBYTE(t3, 1)] ^ Td3[GETBYTE(t2, 0)] ^ rk[1]; s2 = Td0[GETBYTE(t2, 3)] ^ Td1[GETBYTE(t1, 2)] ^ Td2[GETBYTE(t0, 1)] ^ Td3[GETBYTE(t3, 0)] ^ rk[2]; s3 = Td0[GETBYTE(t3, 3)] ^ Td1[GETBYTE(t2, 2)] ^ Td2[GETBYTE(t1, 1)] ^ Td3[GETBYTE(t0, 0)] ^ rk[3]; } /* * apply last round and * map cipher state to byte array block: */ s0 = (Td4[GETBYTE(t0, 3)] & 0xff000000) ^ (Td4[GETBYTE(t3, 2)] & 0x00ff0000) ^ (Td4[GETBYTE(t2, 1)] & 0x0000ff00) ^ (Td4[GETBYTE(t1, 0)] & 0x000000ff) ^ rk[0]; s1 = (Td4[GETBYTE(t1, 3)] & 0xff000000) ^ (Td4[GETBYTE(t0, 2)] & 0x00ff0000) ^ (Td4[GETBYTE(t3, 1)] & 0x0000ff00) ^ (Td4[GETBYTE(t2, 0)] & 0x000000ff) ^ rk[1]; s2 = (Td4[GETBYTE(t2, 3)] & 0xff000000) ^ (Td4[GETBYTE(t1, 2)] & 0x00ff0000) ^ (Td4[GETBYTE(t0, 1)] & 0x0000ff00) ^ (Td4[GETBYTE(t3, 0)] & 0x000000ff) ^ rk[2]; s3 = (Td4[GETBYTE(t3, 3)] & 0xff000000) ^ (Td4[GETBYTE(t2, 2)] & 0x00ff0000) ^ (Td4[GETBYTE(t1, 1)] & 0x0000ff00) ^ (Td4[GETBYTE(t0, 0)] & 0x000000ff) ^ rk[3]; Block::Put(xorBlock, outBlock)(s0)(s1)(s2)(s3); } NAMESPACE_END #endif

d4dd3af0227a95f23ba3dfcd42e49ad28ffc1aee

c3db5e9c2778ed2e37edb5483f9d86a9b6d95aca

/PSGamepad/PSGamepadRTC.cpp

184fd28a479f85da317c9d13993f5775846df38e

no_license

marciopocebon/InputDevices

e859bda8c70571fe1d91df73d17428c39240d220

50363fe7359f921bb0b39e87548a7dc759a07230

refs/heads/master

UTF-8

C++

cpp

// -*- C++ -*- /*! * @file PSGamepadComp.cpp * @brief Playstation Gamepad component * $Date$ * * $Id$ */ #include "PSGamepadRTC.h" #include "VectorConvert.h" #define AXES_AND_BUTTON_NUM 15 using namespace std; // Module specification static const char* psgamepadcomp_spec[] = { "implementation_id", "PSGamepadComp", "type_name", "PSGamepadComp", "description", "Playstation Gamepad component", "version", "0.1", "vendor", "S.Kurihara", "category", "Generic", "activity_type", "DataFlowComponent", "max_instance", "10", "language", "C++", "lang_type", "compile", // Configuration variables "conf.default.ratio", "0.01,-0.01,0.01", "conf.default.threshold", "1000", "conf.default.max", "1000", "conf.default.min", "-1000", "" }; PSGamepadComp::PSGamepadComp(RTC::Manager* manager) : RTC::DataFlowComponentBase(manager), m_axes_and_buttonsOut("axes_and_buttons", m_axes_and_buttons), dummy(0) { // Registration: InPort/OutPort/Service // Set OutPort buffer registerOutPort("axes_and_buttons", m_axes_and_buttonsOut); } PSGamepadComp::~PSGamepadComp() { } RTC::ReturnCode_t PSGamepadComp::onInitialize() { // Bind variables and configuration variable bindParameter("ratio", m_ratio, "0.01,-0.01,0.01"); bindParameter("threshold", m_threshold, "1000"); bindParameter("max", m_max, "1000"); bindParameter("min", m_min, "-1000"); m_axes_and_buttons.data.length(AXES_AND_BUTTON_NUM); return RTC::RTC_OK; } RTC::ReturnCode_t PSGamepadComp::onActivated(RTC::UniqueId ec_id) { if (FAILED(m_psGamepad.InitDirectInput(m_max, m_min, m_threshold))) { cout << "Error: Called InitDirectInput()." << endl; return RTC::RTC_ERROR; } return RTC::RTC_OK; } RTC::ReturnCode_t PSGamepadComp::onDeactivated(RTC::UniqueId ec_id) { m_psGamepad.FreeDirectInput(); return RTC::RTC_OK; } RTC::ReturnCode_t PSGamepadComp::onExecute(RTC::UniqueId ec_id) { std::vector<float> axes_and_buttons_data(AXES_AND_BUTTON_NUM, 0.0); if (FAILED(m_psGamepad.UpdateInputState(axes_and_buttons_data, m_ratio))) { return RTC::RTC_ERROR; } for (int i = 0; i < AXES_AND_BUTTON_NUM; i++) { m_axes_and_buttons.data[i] = axes_and_buttons_data[i]; } m_axes_and_buttonsOut << m_axes_and_buttons; return RTC::RTC_OK; } extern "C" { void PSGamepadCompInit(RTC::Manager* manager) { RTC::Properties profile(psgamepadcomp_spec); manager->registerFactory(profile, RTC::Create<PSGamepadComp>, RTC::Delete<PSGamepadComp>); } };

174dcbf22eb4d3c7990af3d3f22bed61847fde9f

080d0991b0b9246584851c8378acbd5111c9220e

/UsoDeVectores.cpp

d9d0651dbc5c3ad4f85fd2c6eae7c37fe6a5f836

no_license

jlstr/acm

93c9bc3192dbfbeb5e39c18193144503452dac2a

cd3f99e66ac5eb9e16a5dccaf563ca489e08abc3

refs/heads/master

UTF-8

C++

cpp

#include <iostream> #include <vector> #include <algorithm> using namespace std; bool compara(int i, int j){ return i < j; } main(){ //Inicializa el vector v con 15 veces un 1 vector<int> v(15, 1); //Copia el contenido de v a v2 vector<int> v2(v); //Borra v2 y le asigna 10 4's v2.assign(10, 4); v2.clear(); for (int i=1; i<=10; i++) v2.push_back(11-i); //Borra desde el tercer elemento (incluido) hasta tres elementos antes del final //Ej. de 1 2 3 4 5 6 7 8 9 10 //queda 1 2 8 9 10 v2.erase(v2.begin()+2, v2.end()-3); //muestra el ultimo elemento cout << *v2.begin() << " " << v2.front() << endl; //muestra el ultimo elemento cout << *(v2.end()-1) << " " << v2.back() << endl; //muestra mayor cantidad de elementos que este vector puede almacenar cout << v2.max_size() << endl; //ordena todo el vector de menor a mayor sort(v2.begin(), v2.end()); sort(v2.begin(), v2.end(), compara); for (vector<int>::iterator it=v2.begin(); it<v2.end(); it++){ cout << *it << " "; } cout << "\n"; return 0; }

82da86ce8260cc595ce945c2570079089713b0a3

b104d53c6a02e70b23bc34f06c995875be41c126

/src/plugins/PerfCounterMuninNodePlugin.cpp

47c49839a8a69c7241061100105092ba1a34a1c2

no_license

Elbandi/munin-node-win32

9b7db40cc9110d0ff6cd97a13370ba4ab7ebe8eb

4b9264ae772e6cd828d5710a4e4259e8434414c0

refs/heads/master

UTF-8

C++

cpp

/* This file is part of munin-node-win32 * Copyright (C) 2006-2011 Jory Stone ([email protected]) * Support for DERIVE Permon counters by [email protected] * * This program is free software; you can redistribute it and/or * modify it under the terms of the GNU General Public License * as published by the Free Software Foundation; either version 2 * of the License, or (at your option) any later version. * * This program is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the * GNU General Public License for more details. * * You should have received a copy of the GNU General Public License * along with this program; if not, write to the Free Software * Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA. */ #include "StdAfx.h" #include "PerfCounterMuninNodePlugin.h" #include "../core/Service.h" const char *PerfCounterMuninNodePlugin::SectionPrefix = "PerfCounterPlugin_"; PerfCounterMuninNodePlugin::PerfCounterMuninNodePlugin(const std::string &sectionName) : m_SectionName(sectionName) { m_PerfQuery = NULL; m_Loaded = OpenCounter(); } PerfCounterMuninNodePlugin::~PerfCounterMuninNodePlugin() { for (size_t i = 0; i < m_Counters.size(); i++) { // Close the counters PdhRemoveCounter(m_Counters[i]); } if (m_PerfQuery != NULL) { // Close the query PdhCloseQuery(&m_PerfQuery); } } bool PerfCounterMuninNodePlugin::OpenCounter() { PDH_STATUS status; m_Name = m_SectionName.substr(strlen(PerfCounterMuninNodePlugin::SectionPrefix)); OSVERSIONINFO osvi; ZeroMemory(&osvi, sizeof(OSVERSIONINFO)); osvi.dwOSVersionInfoSize = sizeof(OSVERSIONINFO); if (!GetVersionEx(&osvi) || (osvi.dwPlatformId != VER_PLATFORM_WIN32_NT)) { _Module.LogError("PerfCounter plugin: %s: unknown OS or not NT based", m_Name.c_str()); return false; //unknown OS or not NT based } // Create a PDH query status = PdhOpenQuery(NULL, 0, &m_PerfQuery); if (status != ERROR_SUCCESS) { _Module.LogError("PerfCounter plugin: %s: PdhOpenQuery error=%x", m_Name.c_str(), status); return false; } TString objectName = A2TConvert(g_Config.GetValue(m_SectionName, "Object", "LogicalDisk")); TString counterName = A2TConvert(g_Config.GetValue(m_SectionName, "Counter", "% Disk Time")); DWORD counterListLength = 0; DWORD instanceListLength = 0; status = PdhEnumObjectItems(NULL, NULL, objectName.c_str(), NULL, &counterListLength, NULL, &instanceListLength, PERF_DETAIL_EXPERT, 0); if (status != PDH_MORE_DATA) { _Module.LogError("PerfCounter plugin: %s: PdhEnumObjectItems error=%x", m_Name.c_str(), status); return false; } TCHAR *counterList = new TCHAR[counterListLength+2]; TCHAR *instanceList = new TCHAR[instanceListLength+2]; counterList[0] = NULL; instanceList[0] = NULL; counterList[1] = NULL; instanceList[1] = NULL; status = PdhEnumObjectItems(NULL, NULL, objectName.c_str(), counterList, &counterListLength, instanceList, &instanceListLength, PERF_DETAIL_EXPERT, 0); if (status != ERROR_SUCCESS) { delete [] counterList; delete [] instanceList; _Module.LogError("PerfCounter plugin: %s: PdhEnumObjectItems error=%x", m_Name.c_str(), status); return false; } int pos = 0; TCHAR *instanceName = instanceList; while (instanceName[0] != NULL) { std::string counterInstanceName = T2AConvert(instanceName); m_CounterNames.push_back(counterInstanceName); while (instanceName[0] != NULL) instanceName++; instanceName++; } delete [] counterList; delete [] instanceList; TCHAR counterPath[MAX_PATH] = {0}; HCOUNTER counterHandle; if (!m_CounterNames.empty()) { if (g_Config.GetValueB(m_SectionName, "DropTotal", true)) { assert(m_CounterNames.back().compare("_Total") == 0); // We drop the last instance name as it is _Total m_CounterNames.pop_back(); } for (size_t i = 0; i < m_CounterNames.size(); i++) { TString instanceNameStr = A2TConvert(m_CounterNames[i]); _sntprintf(counterPath, MAX_PATH, _T("\\%s(%s)\\%s"), objectName.c_str(), instanceNameStr.c_str(), counterName.c_str()); // Associate the uptime counter with the query status = PdhAddCounter(m_PerfQuery, counterPath, 0, &counterHandle); if (status != ERROR_SUCCESS) { _Module.LogError("PerfCounter plugin: %s: PDH add counter error=%x", m_Name.c_str(), status); return false; } m_Counters.push_back(counterHandle); } } else { // A counter with a single instance (Uptime for example) m_CounterNames.push_back("0"); _sntprintf(counterPath, MAX_PATH, _T("\\%s\\%s"), objectName.c_str(), counterName.c_str()); // Associate the uptime counter with the query status = PdhAddCounter(m_PerfQuery, counterPath, 0, &counterHandle); if (status != ERROR_SUCCESS) { _Module.LogError("PerfCounter plugin: %s: PDH add counter error=%x", m_Name.c_str(), status); return false; } m_Counters.push_back(counterHandle); } // Collect init data status = PdhCollectQueryData(m_PerfQuery); if (status != ERROR_SUCCESS) { if (status == PDH_INVALID_HANDLE) { _Module.LogError("PerfCounter plugin: %s: PDH collect data: PDH_INVALID_HANDLE", m_Name.c_str()); return false; } if (status == PDH_NO_DATA) { _Module.LogError("PerfCounter plugin: %s: PDH collect data: PDH_NO_DATA", m_Name.c_str()); return false; } _Module.LogError("PerfCounter plugin: %s: PDH collect data error", m_Name.c_str()); return false; } // Setup Counter Format m_dwCounterFormat = PDH_FMT_DOUBLE; std::string counterFormatStr = g_Config.GetValue(m_SectionName, "CounterFormat", "double"); if (!counterFormatStr.compare("double") || !counterFormatStr.compare("float")) { m_dwCounterFormat = PDH_FMT_DOUBLE; } else if (!counterFormatStr.compare("int") || !counterFormatStr.compare("long")) { m_dwCounterFormat = PDH_FMT_LONG; } else if (!counterFormatStr.compare("int64") || !counterFormatStr.compare("longlong") || !counterFormatStr.compare("large")) { m_dwCounterFormat = PDH_FMT_LARGE; } else { _Module.LogError("PerfCounter plugin: %s: Unknown CounterFormat", m_Name.c_str()); assert(!"Unknown CounterFormat!"); } m_CounterMultiply = g_Config.GetValueF(m_SectionName, "CounterMultiply", 1.0); return true; } int PerfCounterMuninNodePlugin::GetConfig(char *buffer, int len) { if (!m_Counters.empty()) { PDH_STATUS status; DWORD infoSize = 0; status = PdhGetCounterInfo(m_Counters[0], TRUE, &infoSize, NULL); if (status != PDH_MORE_DATA) return -1; PDH_COUNTER_INFO *info = (PDH_COUNTER_INFO *)malloc(infoSize); status = PdhGetCounterInfo(m_Counters[0], TRUE, &infoSize, info); if (status != ERROR_SUCCESS) return -1; int printCount; std::string graphTitle = g_Config.GetValue(m_SectionName, "GraphTitle", "Disk Time"); std::string graphCategory = g_Config.GetValue(m_SectionName, "GraphCategory", "system"); std::string graphArgs = g_Config.GetValue(m_SectionName, "GraphArgs", "--base 1000 -l 0"); std::string explainText = W2AConvert(info->szExplainText); std::string counterName = W2AConvert(info->szCounterName); printCount = _snprintf(buffer, len, "graph_title %s\n" "graph_category %s\n" "graph_args %s\n" "graph_info %s\n" "graph_vlabel %s\n", graphTitle.c_str(), graphCategory.c_str(), graphArgs.c_str(), explainText.c_str(), counterName.c_str()); len -= printCount; buffer += printCount; free(info); std::string graphDraw = g_Config.GetValue(m_SectionName, "GraphDraw", "LINE"); std::string counterType = g_Config.GetValue(m_SectionName, "CounterType", "GAUGE"); std::string minValue; std::string minValueNumbered; if(counterType == "DERIVE") { minValue = "%s.min 0\n"; minValueNumbered = "%s_%i_.min 0\n"; } else { minValue = minValueNumbered = ""; } assert(m_CounterNames.size() == m_Counters.size()); std::string labels; // We handle multiple counters for (size_t i = 0; i < m_CounterNames.size(); i++) { if (i == 0) { labels = "%s.label %s\n" "%s.draw %s\n" "%s.type %s\n"; labels += minValue; // First counter gets a normal name printCount = _snprintf(buffer, len, labels.c_str(), m_Name.c_str(), m_CounterNames[i].c_str(), m_Name.c_str(), graphDraw.c_str(), m_Name.c_str(), counterType.c_str(), m_Name.c_str()); } else { // Rest of the counters are numbered labels = "%s_%i_.label %s\n" "%s_%i_.draw %s\n" "%s_%i_.type %s\n"; labels += minValueNumbered; printCount = _snprintf(buffer, len, labels.c_str(), m_Name.c_str(), i, m_CounterNames[i].c_str(), m_Name.c_str(), i, graphDraw.c_str(), m_Name.c_str(), i, counterType.c_str(), m_Name.c_str(), i); } len -= printCount; buffer += printCount; } } strncat(buffer, ".\n", len); return 0; } int printvalue(char* buffer, size_t len, const char* name, size_t i, double value, DWORD counterformat) { if(counterformat == PDH_FMT_LONG) if(0==i) return _snprintf(buffer, len, "%s.value %i\n", name, (int)value); else return _snprintf(buffer, len, "%s_%i_.value %i\n", name, i, (int)value); else if(0==i) return _snprintf(buffer, len, "%s.value %.2f\n", name, value); else return _snprintf(buffer, len, "%s_%i_.value %.2f\n", name, i, value); } int PerfCounterMuninNodePlugin::GetValues(char *buffer, int len) { PDH_STATUS status; PDH_FMT_COUNTERVALUE counterValue; int printCount; status = PdhCollectQueryData(m_PerfQuery); if (status != ERROR_SUCCESS) return -1; for (size_t i = 0; i < m_Counters.size(); i++) { // Get the formatted counter value status = PdhGetFormattedCounterValue(m_Counters[i], m_dwCounterFormat, NULL, &counterValue); if (status != ERROR_SUCCESS) return -1; double value = 0; switch (m_dwCounterFormat) { case PDH_FMT_DOUBLE: value = counterValue.doubleValue * m_CounterMultiply; break; case PDH_FMT_LONG: value = counterValue.longValue * m_CounterMultiply; break; case PDH_FMT_LARGE: value = counterValue.largeValue * m_CounterMultiply; break; } printCount = printvalue(buffer, len, m_Name.c_str(), i, value, m_dwCounterFormat); len -= printCount; buffer += printCount; } strncat(buffer, ".\n", len); return 0; }

63fbcbb02991aeaa464ecc844d3bb6fad8bd01b6

1749b790322956a6dc63cb2897769bef200e5940

/geopochiv1/GEopochi/lib/src/CI/create_image.cpp

c4677a65f92633418e47d88b056be8ada0c7d412

permissive

gvellut/geopochi

fabcbfcb90e019877a0ad1e23b3e586c88e78a2a

f0378dc2009e522678cede3969136f62884de994

refs/heads/master

UTF-8

C++

cpp

#include "gdal_priv.h" #include "gdalwarper.h" #include "ogr_spatialref.h" #include "ruby.h" typedef VALUE (ruby_method)(...); static VALUE mCreateImage; //Arguments : //The path to the resulting image, //the number of tiles in i, //the number of tiles in j, //an array with the fs location of the gp tiles taking part in the mosaic (ordered; should be i*j tiles), //an array with the affine parameters to go from pixel (of the mosaic to be created) to world (in a non wgs84 lat/lon proj) //the Proj4 string of the projection of the local coordinate //an array with the the affine parameters to go from pixel to WGS84 lat/lon coordinate in the result image //the size of the gp tiles, //the size of the WGS84 tiles static VALUE ci_create(VALUE self, VALUE path,VALUE format, VALUE num_i, VALUE num_j, VALUE gp_tiles, VALUE corresp, VALUE proj, VALUE output_corresp, VALUE output_proj, VALUE tile_size, VALUE width, VALUE height){ GDALDataset* hGeopDstDS = NULL; //Will contain the mosaic of gp tiles GDALDataset* hGeopSrcDS = NULL; //Will temporarily contain all the original gp tiles GDALDataset* hGEDstDS = NULL; //Will contain the raster to send back to ge in tiff GDALDataset* hGEDstDS_output = NULL; //Will contain the raster to send back to ge in JPEG format int numI,numJ; char * tile_path; int tileSize,outputWidth,outputHeight; char * projection; char *outputProjection; GDALDriver *tiffDriver; GDALDriver *outputDriver; VALUE *ptr; CPLErr err; tiffDriver = GetGDALDriverManager()->GetDriverByName("GTiff"); char* outputFormat = STR2CSTR(format); if(!strcmp(outputFormat,"image/jpeg")) outputDriver = GetGDALDriverManager()->GetDriverByName("JPEG"); else if(!strcmp(outputFormat,"image/png")) outputDriver = GetGDALDriverManager()->GetDriverByName("PNG"); else return Qfalse; numI = FIX2INT(num_i); numJ = FIX2INT(num_j); tile_path = STR2CSTR(path); projection = STR2CSTR(proj); outputProjection = STR2CSTR(output_proj); tileSize = FIX2INT(tile_size); outputWidth = FIX2INT(width); outputHeight = FIX2INT(height); char * tmpFilePathA = (char*) CPLMalloc((RSTRING(path)->len + 7) * sizeof(char)); sprintf(tmpFilePathA,"%s.a.tif",tile_path); int numbands; int size = RARRAY(gp_tiles)->len; ptr = RARRAY(gp_tiles)->ptr; GByte *dataBuffer = (GByte*) CPLMalloc(sizeof(GByte)* tileSize * tileSize * 3); for(int i = 0 ; i < size ; i++,ptr++){ //copy to the dst file the tiles whose path are in the array int row,col; row = i % numJ; col = (int) i / numJ; hGeopSrcDS = (GDALDataset *) GDALOpen(STR2CSTR(*ptr), GA_ReadOnly ); if(hGeopSrcDS == NULL) return Qfalse; //The xSize and ySize are smaller than tileSize. So the tile can get into the buffer int xSize = hGeopSrcDS->GetRasterXSize(); int ySize = hGeopSrcDS->GetRasterYSize(); numbands = hGeopSrcDS->GetRasterCount(); if(numbands > 3) numbands = 3; if(hGeopDstDS == NULL){ //Create the temp image, which is a mosaic of all the local tiles, //downloaded from the geoportail hGeopDstDS = tiffDriver->Create(tmpFilePathA,numI*tileSize,numJ*tileSize,numbands,GDT_Byte,0); if(hGeopDstDS == NULL) return Qfalse; } err = hGeopSrcDS->RasterIO(GF_Read,0,0,xSize,ySize, dataBuffer,xSize,ySize, GDT_Byte,numbands,0,0,0,0); if(err == CE_Failure) return Qfalse; err = hGeopDstDS->RasterIO(GF_Write,col * tileSize,row * tileSize, xSize,ySize,dataBuffer,xSize,ySize, GDT_Byte,numbands,0,0,0,0); if(err == CE_Failure) return Qfalse; GDALClose(hGeopSrcDS); } CPLFree(dataBuffer); //Add an affine transform ptr = RARRAY(corresp)->ptr; double afTransform[6]; afTransform[0] = NUM2DBL(ptr[0]); afTransform[1] = NUM2DBL(ptr[1]); afTransform[2] = NUM2DBL(ptr[2]); afTransform[3] = NUM2DBL(ptr[3]); afTransform[4] = NUM2DBL(ptr[4]); afTransform[5] = NUM2DBL(ptr[5]); OGRSpatialReference oSRS; oSRS.importFromProj4(projection); char *localProjWKT = NULL; oSRS.exportToWkt(&localProjWKT); hGeopDstDS->SetProjection(localProjWKT); hGeopDstDS->SetGeoTransform(afTransform); //open the dest file and warp the mosaic into it char * tmpFilePathB = (char*) CPLMalloc((RSTRING(path)->len + 7) * sizeof(char)); sprintf(tmpFilePathB,"%s.b.tif",tile_path); hGEDstDS = tiffDriver->Create(tmpFilePathB,outputWidth,outputHeight,numbands,GDT_Byte,0); if(hGEDstDS == NULL) return Qfalse; //Add the affine geotransform ptr = RARRAY(output_corresp)->ptr; afTransform[0] = NUM2DBL(ptr[0]); afTransform[1] = NUM2DBL(ptr[1]); afTransform[2] = NUM2DBL(ptr[2]); afTransform[3] = NUM2DBL(ptr[3]); afTransform[4] = NUM2DBL(ptr[4]); afTransform[5] = NUM2DBL(ptr[5]); OGRSpatialReference oSRSOutput; oSRSOutput.importFromProj4(outputProjection); char * outputProjWKT = NULL; oSRSOutput.exportToWkt(&outputProjWKT); hGEDstDS->SetProjection(outputProjWKT); hGEDstDS->SetGeoTransform(afTransform); //Do the warping GDALWarpOptions *psWarpOptions = GDALCreateWarpOptions(); psWarpOptions->hSrcDS = hGeopDstDS; psWarpOptions->hDstDS = hGEDstDS; psWarpOptions->nBandCount = 0; // Establish reprojection transformer. psWarpOptions->pTransformerArg = GDALCreateGenImgProjTransformer( hGeopDstDS, GDALGetProjectionRef(hGeopDstDS), hGEDstDS, GDALGetProjectionRef(hGEDstDS), FALSE, 0.0, 1 ); psWarpOptions->pfnTransformer = GDALGenImgProjTransform; // Initialize and execute the warp operation. GDALWarpOperation oOperation; oOperation.Initialize( psWarpOptions ); oOperation.ChunkAndWarpImage( 0, 0, hGEDstDS->GetRasterXSize() , hGEDstDS->GetRasterYSize() ); GDALDestroyGenImgProjTransformer( psWarpOptions->pTransformerArg ); GDALDestroyWarpOptions( psWarpOptions ); //Clean up the mosaic'ed file GDALClose( hGeopDstDS ); //export the temp tiff file into the jpeg file hGEDstDS_output = outputDriver->CreateCopy(tile_path,hGEDstDS,TRUE,0,0,0); if(hGEDstDS_output == NULL){ return Qfalse; } //Clean up the still open datasets GDALClose(hGEDstDS); GDALClose(hGEDstDS_output); //Clean up the temp tiff files VSIUnlink(tmpFilePathA); CPLFree(tmpFilePathA); VSIUnlink(tmpFilePathB); CPLFree(tmpFilePathB); //Clean up the WKT strings CPLFree(localProjWKT); CPLFree(outputProjWKT); return Qtrue; } void Init_CI(void) { mCreateImage = rb_define_module("CreateImage"); rb_define_module_function(mCreateImage,"create",(ruby_method*) &ci_create,12); GDALAllRegister(); //Register the GDAL drivers }

f4b6d4b18cff378616fb6e3a6d8b742d004dc873

cd0987589d3815de1dea8529a7705caac479e7e9

/webkit/WebKit/qt/Api/qwebpage.cpp

93872b7519eeb03ab47014cafba1f9625537785c

permissive

azrul2202/WebKit-Smartphone

0aab1ff641d74f15c0623f00c56806dbc9b59fc1

023d6fe819445369134dee793b69de36748e71d7

refs/heads/master

UTF-8

C++

cpp

/* Copyright (C) 2008, 2009 Nokia Corporation and/or its subsidiary(-ies) Copyright (C) 2007 Staikos Computing Services Inc. Copyright (C) 2007 Apple Inc. This library is free software; you can redistribute it and/or modify it under the terms of the GNU Library General Public License as published by the Free Software Foundation; either version 2 of the License, or (at your option) any later version. This library is distributed in the hope that it will be useful, but WITHOUT ANY WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU Library General Public License for more details. You should have received a copy of the GNU Library General Public License along with this library; see the file COPYING.LIB. If not, write to the Free Software Foundation, Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA. */ #include "config.h" #include "qwebpage.h" #include "qwebview.h" #include "qwebframe.h" #include "qwebpage_p.h" #include "qwebframe_p.h" #include "qwebhistory.h" #include "qwebhistory_p.h" #include "qwebinspector.h" #include "qwebinspector_p.h" #include "qwebsettings.h" #include "qwebkitversion.h" #include "Chrome.h" #include "ContextMenuController.h" #include "Frame.h" #include "FrameTree.h" #include "FrameLoader.h" #include "FrameLoaderClientQt.h" #include "FrameView.h" #include "FormState.h" #include "ApplicationCacheStorage.h" #include "ChromeClientQt.h" #include "ContextMenu.h" #include "ContextMenuClientQt.h" #include "DocumentLoader.h" #include "DragClientQt.h" #include "DragController.h" #include "DragData.h" #include "EditorClientQt.h" #include "SchemeRegistry.h" #include "SecurityOrigin.h" #include "Settings.h" #include "Page.h" #include "Pasteboard.h" #include "FrameLoader.h" #include "FrameLoadRequest.h" #include "KURL.h" #include "Logging.h" #include "Image.h" #include "InspectorClientQt.h" #include "InspectorController.h" #include "FocusController.h" #include "Editor.h" #include "Scrollbar.h" #include "PlatformKeyboardEvent.h" #include "PlatformWheelEvent.h" #include "PluginDatabase.h" #include "ProgressTracker.h" #include "RefPtr.h" #include "RenderTextControl.h" #include "TextIterator.h" #include "HashMap.h" #include "HTMLFormElement.h" #include "HTMLInputElement.h" #include "HTMLNames.h" #include "HitTestResult.h" #include "WindowFeatures.h" #include "LocalizedStrings.h" #include "Cache.h" #include "runtime/InitializeThreading.h" #include "PageGroup.h" #include "GeolocationPermissionClientQt.h" #include "NotificationPresenterClientQt.h" #include "PageClientQt.h" #include "WorkerThread.h" #include "wtf/Threading.h" #include <QApplication> #include <QBasicTimer> #include <QBitArray> #include <QDebug> #include <QDragEnterEvent> #include <QDragLeaveEvent> #include <QDragMoveEvent> #include <QDropEvent> #include <QFileDialog> #include <QHttpRequestHeader> #include <QInputDialog> #include <QLocale> #include <QMessageBox> #include <QNetworkProxy> #include <QUndoStack> #include <QUrl> #include <QPainter> #include <QClipboard> #include <QSslSocket> #include <QStyle> #include <QSysInfo> #include <QTextCharFormat> #include <QTextDocument> #include <QNetworkAccessManager> #include <QNetworkRequest> #if defined(Q_WS_X11) #include <QX11Info> #endif #if QT_VERSION >= QT_VERSION_CHECK(4, 6, 0) #include <QTouchEvent> #include "PlatformTouchEvent.h" #endif using namespace WebCore; bool QWebPagePrivate::drtRun = false; // Lookup table mapping QWebPage::WebActions to the associated Editor commands static const char* editorCommandWebActions[] = { 0, // OpenLink, 0, // OpenLinkInNewWindow, 0, // OpenFrameInNewWindow, 0, // DownloadLinkToDisk, 0, // CopyLinkToClipboard, 0, // OpenImageInNewWindow, 0, // DownloadImageToDisk, 0, // CopyImageToClipboard, 0, // Back, 0, // Forward, 0, // Stop, 0, // Reload, "Cut", // Cut, "Copy", // Copy, "Paste", // Paste, "Undo", // Undo, "Redo", // Redo, "MoveForward", // MoveToNextChar, "MoveBackward", // MoveToPreviousChar, "MoveWordForward", // MoveToNextWord, "MoveWordBackward", // MoveToPreviousWord, "MoveDown", // MoveToNextLine, "MoveUp", // MoveToPreviousLine, "MoveToBeginningOfLine", // MoveToStartOfLine, "MoveToEndOfLine", // MoveToEndOfLine, "MoveToBeginningOfParagraph", // MoveToStartOfBlock, "MoveToEndOfParagraph", // MoveToEndOfBlock, "MoveToBeginningOfDocument", // MoveToStartOfDocument, "MoveToEndOfDocument", // MoveToEndOfDocument, "MoveForwardAndModifySelection", // SelectNextChar, "MoveBackwardAndModifySelection", // SelectPreviousChar, "MoveWordForwardAndModifySelection", // SelectNextWord, "MoveWordBackwardAndModifySelection", // SelectPreviousWord, "MoveDownAndModifySelection", // SelectNextLine, "MoveUpAndModifySelection", // SelectPreviousLine, "MoveToBeginningOfLineAndModifySelection", // SelectStartOfLine, "MoveToEndOfLineAndModifySelection", // SelectEndOfLine, "MoveToBeginningOfParagraphAndModifySelection", // SelectStartOfBlock, "MoveToEndOfParagraphAndModifySelection", // SelectEndOfBlock, "MoveToBeginningOfDocumentAndModifySelection", //SelectStartOfDocument, "MoveToEndOfDocumentAndModifySelection", // SelectEndOfDocument, "DeleteWordBackward", // DeleteStartOfWord, "DeleteWordForward", // DeleteEndOfWord, 0, // SetTextDirectionDefault, 0, // SetTextDirectionLeftToRight, 0, // SetTextDirectionRightToLeft, "ToggleBold", // ToggleBold, "ToggleItalic", // ToggleItalic, "ToggleUnderline", // ToggleUnderline, 0, // InspectElement, "InsertNewline", // InsertParagraphSeparator "InsertLineBreak", // InsertLineSeparator "SelectAll", // SelectAll 0, // ReloadAndBypassCache, "PasteAndMatchStyle", // PasteAndMatchStyle "RemoveFormat", // RemoveFormat "Strikethrough", // ToggleStrikethrough, "Subscript", // ToggleSubscript "Superscript", // ToggleSuperscript "InsertUnorderedList", // InsertUnorderedList "InsertOrderedList", // InsertOrderedList "Indent", // Indent "Outdent", // Outdent, "AlignCenter", // AlignCenter, "AlignJustified", // AlignJustified, "AlignLeft", // AlignLeft, "AlignRight", // AlignRight, 0 // WebActionCount }; // Lookup the appropriate editor command to use for WebAction \a action const char* QWebPagePrivate::editorCommandForWebActions(QWebPage::WebAction action) { if ((action > QWebPage::NoWebAction) && (action < int(sizeof(editorCommandWebActions) / sizeof(const char*)))) return editorCommandWebActions[action]; return 0; } static inline DragOperation dropActionToDragOp(Qt::DropActions actions) { unsigned result = 0; if (actions & Qt::CopyAction) result |= DragOperationCopy; // DragOperationgeneric represents InternetExplorer's equivalent of Move operation, // hence it should be considered as "move" if (actions & Qt::MoveAction) result |= (DragOperationMove | DragOperationGeneric); if (actions & Qt::LinkAction) result |= DragOperationLink; return (DragOperation)result; } static inline Qt::DropAction dragOpToDropAction(unsigned actions) { Qt::DropAction result = Qt::IgnoreAction; if (actions & DragOperationCopy) result = Qt::CopyAction; else if (actions & DragOperationMove) result = Qt::MoveAction; // DragOperationgeneric represents InternetExplorer's equivalent of Move operation, // hence it should be considered as "move" else if (actions & DragOperationGeneric) result = Qt::MoveAction; else if (actions & DragOperationLink) result = Qt::LinkAction; return result; } QWebPagePrivate::QWebPagePrivate(QWebPage *qq) : q(qq) , client(0) #if QT_VERSION < QT_VERSION_CHECK(4, 6, 0) , view(0) #endif , clickCausedFocus(false) , viewportSize(QSize(0, 0)) , inspectorFrontend(0) , inspector(0) , inspectorIsInternalOnly(false) { WebCore::InitializeLoggingChannelsIfNecessary(); ScriptController::initializeThreading(); WTF::initializeMainThread(); WebCore::SecurityOrigin::setLocalLoadPolicy(WebCore::SecurityOrigin::AllowLocalLoadsForLocalAndSubstituteData); #if QT_VERSION < QT_VERSION_CHECK(4, 7, 0) WebCore::Font::setCodePath(WebCore::Font::Complex); #endif Page::PageClients pageClients; pageClients.chromeClient = new ChromeClientQt(q); pageClients.contextMenuClient = new ContextMenuClientQt(); pageClients.editorClient = new EditorClientQt(q); pageClients.dragClient = new DragClientQt(q); pageClients.inspectorClient = new InspectorClientQt(q); page = new Page(pageClients); settings = new QWebSettings(page->settings()); #ifndef QT_NO_UNDOSTACK undoStack = 0; #endif mainFrame = 0; networkManager = 0; pluginFactory = 0; insideOpenCall = false; forwardUnsupportedContent = false; editable = false; useFixedLayout = false; linkPolicy = QWebPage::DontDelegateLinks; #ifndef QT_NO_CONTEXTMENU currentContextMenu = 0; #endif smartInsertDeleteEnabled = true; selectTrailingWhitespaceEnabled = false; history.d = new QWebHistoryPrivate(page->backForwardList()); memset(actions, 0, sizeof(actions)); PageGroup::setShouldTrackVisitedLinks(true); #if ENABLE(NOTIFICATIONS) NotificationPresenterClientQt::notificationPresenter()->addClient(); #endif } QWebPagePrivate::~QWebPagePrivate() { #ifndef QT_NO_CONTEXTMENU delete currentContextMenu; #endif #ifndef QT_NO_UNDOSTACK delete undoStack; #endif delete settings; delete page; #if ENABLE(NOTIFICATIONS) NotificationPresenterClientQt::notificationPresenter()->removeClient(); #endif } WebCore::Page* QWebPagePrivate::core(const QWebPage* page) { return page->d->page; } QWebPagePrivate* QWebPagePrivate::priv(QWebPage* page) { return page->d; } bool QWebPagePrivate::acceptNavigationRequest(QWebFrame *frame, const QNetworkRequest &request, QWebPage::NavigationType type) { if (insideOpenCall && frame == mainFrame) return true; return q->acceptNavigationRequest(frame, request, type); } void QWebPagePrivate::createMainFrame() { if (!mainFrame) { QWebFrameData frameData(page); mainFrame = new QWebFrame(q, &frameData); emit q->frameCreated(mainFrame); } } static QWebPage::WebAction webActionForContextMenuAction(WebCore::ContextMenuAction action) { switch (action) { case WebCore::ContextMenuItemTagOpenLink: return QWebPage::OpenLink; case WebCore::ContextMenuItemTagOpenLinkInNewWindow: return QWebPage::OpenLinkInNewWindow; case WebCore::ContextMenuItemTagDownloadLinkToDisk: return QWebPage::DownloadLinkToDisk; case WebCore::ContextMenuItemTagCopyLinkToClipboard: return QWebPage::CopyLinkToClipboard; case WebCore::ContextMenuItemTagOpenImageInNewWindow: return QWebPage::OpenImageInNewWindow; case WebCore::ContextMenuItemTagDownloadImageToDisk: return QWebPage::DownloadImageToDisk; case WebCore::ContextMenuItemTagCopyImageToClipboard: return QWebPage::CopyImageToClipboard; case WebCore::ContextMenuItemTagOpenFrameInNewWindow: return QWebPage::OpenFrameInNewWindow; case WebCore::ContextMenuItemTagCopy: return QWebPage::Copy; case WebCore::ContextMenuItemTagGoBack: return QWebPage::Back; case WebCore::ContextMenuItemTagGoForward: return QWebPage::Forward; case WebCore::ContextMenuItemTagStop: return QWebPage::Stop; case WebCore::ContextMenuItemTagReload: return QWebPage::Reload; case WebCore::ContextMenuItemTagCut: return QWebPage::Cut; case WebCore::ContextMenuItemTagPaste: return QWebPage::Paste; case WebCore::ContextMenuItemTagDefaultDirection: return QWebPage::SetTextDirectionDefault; case WebCore::ContextMenuItemTagLeftToRight: return QWebPage::SetTextDirectionLeftToRight; case WebCore::ContextMenuItemTagRightToLeft: return QWebPage::SetTextDirectionRightToLeft; case WebCore::ContextMenuItemTagBold: return QWebPage::ToggleBold; case WebCore::ContextMenuItemTagItalic: return QWebPage::ToggleItalic; case WebCore::ContextMenuItemTagUnderline: return QWebPage::ToggleUnderline; #if ENABLE(INSPECTOR) case WebCore::ContextMenuItemTagInspectElement: return QWebPage::InspectElement; #endif default: break; } return QWebPage::NoWebAction; } #ifndef QT_NO_CONTEXTMENU QMenu *QWebPagePrivate::createContextMenu(const WebCore::ContextMenu *webcoreMenu, const QList<WebCore::ContextMenuItem> *items, QBitArray *visitedWebActions) { if (!client) return 0; QMenu* menu = new QMenu(client->ownerWidget()); for (int i = 0; i < items->count(); ++i) { const ContextMenuItem &item = items->at(i); switch (item.type()) { case WebCore::CheckableActionType: /* fall through */ case WebCore::ActionType: { QWebPage::WebAction action = webActionForContextMenuAction(item.action()); QAction *a = q->action(action); if (a) { ContextMenuItem it(item); webcoreMenu->checkOrEnableIfNeeded(it); PlatformMenuItemDescription desc = it.releasePlatformDescription(); a->setEnabled(desc.enabled); a->setChecked(desc.checked); a->setCheckable(item.type() == WebCore::CheckableActionType); menu->addAction(a); visitedWebActions->setBit(action); } break; } case WebCore::SeparatorType: menu->addSeparator(); break; case WebCore::SubmenuType: { QMenu *subMenu = createContextMenu(webcoreMenu, item.platformSubMenu(), visitedWebActions); bool anyEnabledAction = false; QList<QAction *> actions = subMenu->actions(); for (int i = 0; i < actions.count(); ++i) { if (actions.at(i)->isVisible()) anyEnabledAction |= actions.at(i)->isEnabled(); } // don't show sub-menus with just disabled actions if (anyEnabledAction) { subMenu->setTitle(item.title()); menu->addAction(subMenu->menuAction()); } else delete subMenu; break; } } } return menu; } #endif // QT_NO_CONTEXTMENU #ifndef QT_NO_ACTION void QWebPagePrivate::_q_webActionTriggered(bool checked) { QAction *a = qobject_cast<QAction *>(q->sender()); if (!a) return; QWebPage::WebAction action = static_cast<QWebPage::WebAction>(a->data().toInt()); q->triggerAction(action, checked); } #endif // QT_NO_ACTION void QWebPagePrivate::_q_cleanupLeakMessages() { #ifndef NDEBUG // Need this to make leak messages accurate. cache()->setCapacities(0, 0, 0); #endif } void QWebPagePrivate::updateAction(QWebPage::WebAction action) { #ifdef QT_NO_ACTION Q_UNUSED(action) #else QAction *a = actions[action]; if (!a || !mainFrame) return; WebCore::FrameLoader *loader = mainFrame->d->frame->loader(); WebCore::Editor *editor = page->focusController()->focusedOrMainFrame()->editor(); bool enabled = a->isEnabled(); bool checked = a->isChecked(); switch (action) { case QWebPage::Back: enabled = page->canGoBackOrForward(-1); break; case QWebPage::Forward: enabled = page->canGoBackOrForward(1); break; case QWebPage::Stop: enabled = loader->isLoading(); break; case QWebPage::Reload: case QWebPage::ReloadAndBypassCache: enabled = !loader->isLoading(); break; #ifndef QT_NO_UNDOSTACK case QWebPage::Undo: case QWebPage::Redo: // those two are handled by QUndoStack break; #endif // QT_NO_UNDOSTACK case QWebPage::SelectAll: // editor command is always enabled break; case QWebPage::SetTextDirectionDefault: case QWebPage::SetTextDirectionLeftToRight: case QWebPage::SetTextDirectionRightToLeft: enabled = editor->canEdit(); checked = false; break; default: { // see if it's an editor command const char* commandName = editorCommandForWebActions(action); // if it's an editor command, let it's logic determine state if (commandName) { Editor::Command command = editor->command(commandName); enabled = command.isEnabled(); if (enabled) checked = command.state() != FalseTriState; else checked = false; } break; } } a->setEnabled(enabled); if (a->isCheckable()) a->setChecked(checked); #endif // QT_NO_ACTION } void QWebPagePrivate::updateNavigationActions() { updateAction(QWebPage::Back); updateAction(QWebPage::Forward); updateAction(QWebPage::Stop); updateAction(QWebPage::Reload); updateAction(QWebPage::ReloadAndBypassCache); } void QWebPagePrivate::updateEditorActions() { updateAction(QWebPage::Cut); updateAction(QWebPage::Copy); updateAction(QWebPage::Paste); updateAction(QWebPage::MoveToNextChar); updateAction(QWebPage::MoveToPreviousChar); updateAction(QWebPage::MoveToNextWord); updateAction(QWebPage::MoveToPreviousWord); updateAction(QWebPage::MoveToNextLine); updateAction(QWebPage::MoveToPreviousLine); updateAction(QWebPage::MoveToStartOfLine); updateAction(QWebPage::MoveToEndOfLine); updateAction(QWebPage::MoveToStartOfBlock); updateAction(QWebPage::MoveToEndOfBlock); updateAction(QWebPage::MoveToStartOfDocument); updateAction(QWebPage::MoveToEndOfDocument); updateAction(QWebPage::SelectNextChar); updateAction(QWebPage::SelectPreviousChar); updateAction(QWebPage::SelectNextWord); updateAction(QWebPage::SelectPreviousWord); updateAction(QWebPage::SelectNextLine); updateAction(QWebPage::SelectPreviousLine); updateAction(QWebPage::SelectStartOfLine); updateAction(QWebPage::SelectEndOfLine); updateAction(QWebPage::SelectStartOfBlock); updateAction(QWebPage::SelectEndOfBlock); updateAction(QWebPage::SelectStartOfDocument); updateAction(QWebPage::SelectEndOfDocument); updateAction(QWebPage::DeleteStartOfWord); updateAction(QWebPage::DeleteEndOfWord); updateAction(QWebPage::SetTextDirectionDefault); updateAction(QWebPage::SetTextDirectionLeftToRight); updateAction(QWebPage::SetTextDirectionRightToLeft); updateAction(QWebPage::ToggleBold); updateAction(QWebPage::ToggleItalic); updateAction(QWebPage::ToggleUnderline); updateAction(QWebPage::InsertParagraphSeparator); updateAction(QWebPage::InsertLineSeparator); updateAction(QWebPage::PasteAndMatchStyle); updateAction(QWebPage::RemoveFormat); updateAction(QWebPage::ToggleStrikethrough); updateAction(QWebPage::ToggleSubscript); updateAction(QWebPage::ToggleSuperscript); updateAction(QWebPage::InsertUnorderedList); updateAction(QWebPage::InsertOrderedList); updateAction(QWebPage::Indent); updateAction(QWebPage::Outdent); updateAction(QWebPage::AlignCenter); updateAction(QWebPage::AlignJustified); updateAction(QWebPage::AlignLeft); updateAction(QWebPage::AlignRight); } void QWebPagePrivate::timerEvent(QTimerEvent *ev) { int timerId = ev->timerId(); if (timerId == tripleClickTimer.timerId()) tripleClickTimer.stop(); else q->timerEvent(ev); } void QWebPagePrivate::mouseMoveEvent(QGraphicsSceneMouseEvent* ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; bool accepted = frame->eventHandler()->mouseMoved(PlatformMouseEvent(ev, 0)); ev->setAccepted(accepted); } void QWebPagePrivate::mouseMoveEvent(QMouseEvent *ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; bool accepted = frame->eventHandler()->mouseMoved(PlatformMouseEvent(ev, 0)); ev->setAccepted(accepted); } void QWebPagePrivate::mousePressEvent(QGraphicsSceneMouseEvent* ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; RefPtr<WebCore::Node> oldNode; Frame* focusedFrame = page->focusController()->focusedFrame(); if (Document* focusedDocument = focusedFrame ? focusedFrame->document() : 0) oldNode = focusedDocument->focusedNode(); if (tripleClickTimer.isActive() && (ev->pos().toPoint() - tripleClick).manhattanLength() < QApplication::startDragDistance()) { mouseTripleClickEvent(ev); return; } bool accepted = false; PlatformMouseEvent mev(ev, 1); // ignore the event if we can't map Qt's mouse buttons to WebCore::MouseButton if (mev.button() != NoButton) accepted = frame->eventHandler()->handleMousePressEvent(mev); ev->setAccepted(accepted); RefPtr<WebCore::Node> newNode; focusedFrame = page->focusController()->focusedFrame(); if (Document* focusedDocument = focusedFrame ? focusedFrame->document() : 0) newNode = focusedDocument->focusedNode(); if (newNode && oldNode != newNode) clickCausedFocus = true; } void QWebPagePrivate::mousePressEvent(QMouseEvent *ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; RefPtr<WebCore::Node> oldNode; Frame* focusedFrame = page->focusController()->focusedFrame(); if (Document* focusedDocument = focusedFrame ? focusedFrame->document() : 0) oldNode = focusedDocument->focusedNode(); if (tripleClickTimer.isActive() && (ev->pos() - tripleClick).manhattanLength() < QApplication::startDragDistance()) { mouseTripleClickEvent(ev); return; } bool accepted = false; PlatformMouseEvent mev(ev, 1); // ignore the event if we can't map Qt's mouse buttons to WebCore::MouseButton if (mev.button() != NoButton) accepted = frame->eventHandler()->handleMousePressEvent(mev); ev->setAccepted(accepted); RefPtr<WebCore::Node> newNode; focusedFrame = page->focusController()->focusedFrame(); if (Document* focusedDocument = focusedFrame ? focusedFrame->document() : 0) newNode = focusedDocument->focusedNode(); if (newNode && oldNode != newNode) clickCausedFocus = true; } void QWebPagePrivate::mouseDoubleClickEvent(QGraphicsSceneMouseEvent *ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; bool accepted = false; PlatformMouseEvent mev(ev, 2); // ignore the event if we can't map Qt's mouse buttons to WebCore::MouseButton if (mev.button() != NoButton) accepted = frame->eventHandler()->handleMousePressEvent(mev); ev->setAccepted(accepted); tripleClickTimer.start(QApplication::doubleClickInterval(), q); tripleClick = ev->pos().toPoint(); } void QWebPagePrivate::mouseDoubleClickEvent(QMouseEvent *ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; bool accepted = false; PlatformMouseEvent mev(ev, 2); // ignore the event if we can't map Qt's mouse buttons to WebCore::MouseButton if (mev.button() != NoButton) accepted = frame->eventHandler()->handleMousePressEvent(mev); ev->setAccepted(accepted); tripleClickTimer.start(QApplication::doubleClickInterval(), q); tripleClick = ev->pos(); } void QWebPagePrivate::mouseTripleClickEvent(QGraphicsSceneMouseEvent *ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; bool accepted = false; PlatformMouseEvent mev(ev, 3); // ignore the event if we can't map Qt's mouse buttons to WebCore::MouseButton if (mev.button() != NoButton) accepted = frame->eventHandler()->handleMousePressEvent(mev); ev->setAccepted(accepted); } void QWebPagePrivate::mouseTripleClickEvent(QMouseEvent *ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; bool accepted = false; PlatformMouseEvent mev(ev, 3); // ignore the event if we can't map Qt's mouse buttons to WebCore::MouseButton if (mev.button() != NoButton) accepted = frame->eventHandler()->handleMousePressEvent(mev); ev->setAccepted(accepted); } void QWebPagePrivate::handleClipboard(QEvent* ev, Qt::MouseButton button) { #ifndef QT_NO_CLIPBOARD if (QApplication::clipboard()->supportsSelection()) { bool oldSelectionMode = Pasteboard::generalPasteboard()->isSelectionMode(); Pasteboard::generalPasteboard()->setSelectionMode(true); WebCore::Frame* focusFrame = page->focusController()->focusedOrMainFrame(); if (button == Qt::LeftButton) { if (focusFrame && (focusFrame->editor()->canCopy() || focusFrame->editor()->canDHTMLCopy())) { focusFrame->editor()->copy(); ev->setAccepted(true); } } else if (button == Qt::MidButton) { if (focusFrame && (focusFrame->editor()->canPaste() || focusFrame->editor()->canDHTMLPaste())) { focusFrame->editor()->paste(); ev->setAccepted(true); } } Pasteboard::generalPasteboard()->setSelectionMode(oldSelectionMode); } #endif } void QWebPagePrivate::mouseReleaseEvent(QGraphicsSceneMouseEvent* ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; bool accepted = false; PlatformMouseEvent mev(ev, 0); // ignore the event if we can't map Qt's mouse buttons to WebCore::MouseButton if (mev.button() != NoButton) accepted = frame->eventHandler()->handleMouseReleaseEvent(mev); ev->setAccepted(accepted); handleClipboard(ev, ev->button()); handleSoftwareInputPanel(ev->button()); } void QWebPagePrivate::handleSoftwareInputPanel(Qt::MouseButton button) { #if QT_VERSION >= QT_VERSION_CHECK(4, 6, 0) Frame* frame = page->focusController()->focusedFrame(); if (!frame) return; if (client && client->inputMethodEnabled() && frame->document()->focusedNode() && button == Qt::LeftButton && qApp->autoSipEnabled()) { QStyle::RequestSoftwareInputPanel behavior = QStyle::RequestSoftwareInputPanel( client->ownerWidget()->style()->styleHint(QStyle::SH_RequestSoftwareInputPanel)); if (!clickCausedFocus || behavior == QStyle::RSIP_OnMouseClick) { QEvent event(QEvent::RequestSoftwareInputPanel); QApplication::sendEvent(client->ownerWidget(), &event); } } clickCausedFocus = false; #endif } void QWebPagePrivate::mouseReleaseEvent(QMouseEvent *ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; bool accepted = false; PlatformMouseEvent mev(ev, 0); // ignore the event if we can't map Qt's mouse buttons to WebCore::MouseButton if (mev.button() != NoButton) accepted = frame->eventHandler()->handleMouseReleaseEvent(mev); ev->setAccepted(accepted); handleClipboard(ev, ev->button()); handleSoftwareInputPanel(ev->button()); } #ifndef QT_NO_CONTEXTMENU void QWebPagePrivate::contextMenuEvent(const QPoint& globalPos) { QMenu *menu = q->createStandardContextMenu(); if (menu) { menu->exec(globalPos); delete menu; } } #endif // QT_NO_CONTEXTMENU /*! \since 4.5 This function creates the standard context menu which is shown when the user clicks on the web page with the right mouse button. It is called from the default contextMenuEvent() handler. The popup menu's ownership is transferred to the caller. */ QMenu *QWebPage::createStandardContextMenu() { #ifndef QT_NO_CONTEXTMENU QMenu *menu = d->currentContextMenu; d->currentContextMenu = 0; return menu; #else return 0; #endif } #ifndef QT_NO_WHEELEVENT void QWebPagePrivate::wheelEvent(QGraphicsSceneWheelEvent* ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; WebCore::PlatformWheelEvent pev(ev); bool accepted = frame->eventHandler()->handleWheelEvent(pev); ev->setAccepted(accepted); } void QWebPagePrivate::wheelEvent(QWheelEvent *ev) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return; WebCore::PlatformWheelEvent pev(ev); bool accepted = frame->eventHandler()->handleWheelEvent(pev); ev->setAccepted(accepted); } #endif // QT_NO_WHEELEVENT #ifndef QT_NO_SHORTCUT QWebPage::WebAction QWebPagePrivate::editorActionForKeyEvent(QKeyEvent* event) { static struct { QKeySequence::StandardKey standardKey; QWebPage::WebAction action; } editorActions[] = { { QKeySequence::Cut, QWebPage::Cut }, { QKeySequence::Copy, QWebPage::Copy }, { QKeySequence::Paste, QWebPage::Paste }, { QKeySequence::Undo, QWebPage::Undo }, { QKeySequence::Redo, QWebPage::Redo }, { QKeySequence::MoveToNextChar, QWebPage::MoveToNextChar }, { QKeySequence::MoveToPreviousChar, QWebPage::MoveToPreviousChar }, { QKeySequence::MoveToNextWord, QWebPage::MoveToNextWord }, { QKeySequence::MoveToPreviousWord, QWebPage::MoveToPreviousWord }, { QKeySequence::MoveToNextLine, QWebPage::MoveToNextLine }, { QKeySequence::MoveToPreviousLine, QWebPage::MoveToPreviousLine }, { QKeySequence::MoveToStartOfLine, QWebPage::MoveToStartOfLine }, { QKeySequence::MoveToEndOfLine, QWebPage::MoveToEndOfLine }, { QKeySequence::MoveToStartOfBlock, QWebPage::MoveToStartOfBlock }, { QKeySequence::MoveToEndOfBlock, QWebPage::MoveToEndOfBlock }, { QKeySequence::MoveToStartOfDocument, QWebPage::MoveToStartOfDocument }, { QKeySequence::MoveToEndOfDocument, QWebPage::MoveToEndOfDocument }, { QKeySequence::SelectNextChar, QWebPage::SelectNextChar }, { QKeySequence::SelectPreviousChar, QWebPage::SelectPreviousChar }, { QKeySequence::SelectNextWord, QWebPage::SelectNextWord }, { QKeySequence::SelectPreviousWord, QWebPage::SelectPreviousWord }, { QKeySequence::SelectNextLine, QWebPage::SelectNextLine }, { QKeySequence::SelectPreviousLine, QWebPage::SelectPreviousLine }, { QKeySequence::SelectStartOfLine, QWebPage::SelectStartOfLine }, { QKeySequence::SelectEndOfLine, QWebPage::SelectEndOfLine }, { QKeySequence::SelectStartOfBlock, QWebPage::SelectStartOfBlock }, { QKeySequence::SelectEndOfBlock, QWebPage::SelectEndOfBlock }, { QKeySequence::SelectStartOfDocument, QWebPage::SelectStartOfDocument }, { QKeySequence::SelectEndOfDocument, QWebPage::SelectEndOfDocument }, { QKeySequence::DeleteStartOfWord, QWebPage::DeleteStartOfWord }, { QKeySequence::DeleteEndOfWord, QWebPage::DeleteEndOfWord }, { QKeySequence::InsertParagraphSeparator, QWebPage::InsertParagraphSeparator }, { QKeySequence::InsertLineSeparator, QWebPage::InsertLineSeparator }, { QKeySequence::SelectAll, QWebPage::SelectAll }, { QKeySequence::UnknownKey, QWebPage::NoWebAction } }; for (int i = 0; editorActions[i].standardKey != QKeySequence::UnknownKey; ++i) if (event == editorActions[i].standardKey) return editorActions[i].action; return QWebPage::NoWebAction; } #endif // QT_NO_SHORTCUT void QWebPagePrivate::keyPressEvent(QKeyEvent *ev) { bool handled = false; WebCore::Frame* frame = page->focusController()->focusedOrMainFrame(); // we forward the key event to WebCore first to handle potential DOM // defined event handlers and later on end up in EditorClientQt::handleKeyboardEvent // to trigger editor commands via triggerAction(). if (!handled) handled = frame->eventHandler()->keyEvent(ev); if (!handled) { handled = true; if (!handleScrolling(ev, frame)) { switch (ev->key()) { case Qt::Key_Back: q->triggerAction(QWebPage::Back); break; case Qt::Key_Forward: q->triggerAction(QWebPage::Forward); break; case Qt::Key_Stop: q->triggerAction(QWebPage::Stop); break; case Qt::Key_Refresh: q->triggerAction(QWebPage::Reload); break; case Qt::Key_Backspace: if (ev->modifiers() == Qt::ShiftModifier) q->triggerAction(QWebPage::Forward); else q->triggerAction(QWebPage::Back); break; default: handled = false; break; } } } ev->setAccepted(handled); } void QWebPagePrivate::keyReleaseEvent(QKeyEvent *ev) { if (ev->isAutoRepeat()) { ev->setAccepted(true); return; } WebCore::Frame* frame = page->focusController()->focusedOrMainFrame(); bool handled = frame->eventHandler()->keyEvent(ev); ev->setAccepted(handled); } void QWebPagePrivate::focusInEvent(QFocusEvent*) { FocusController *focusController = page->focusController(); focusController->setActive(true); focusController->setFocused(true); if (!focusController->focusedFrame()) focusController->setFocusedFrame(QWebFramePrivate::core(mainFrame)); } void QWebPagePrivate::focusOutEvent(QFocusEvent*) { // only set the focused frame inactive so that we stop painting the caret // and the focus frame. But don't tell the focus controller so that upon // focusInEvent() we can re-activate the frame. FocusController *focusController = page->focusController(); // Call setFocused first so that window.onblur doesn't get called twice focusController->setFocused(false); focusController->setActive(false); } void QWebPagePrivate::dragEnterEvent(QGraphicsSceneDragDropEvent* ev) { #ifndef QT_NO_DRAGANDDROP DragData dragData(ev->mimeData(), ev->pos().toPoint(), QCursor::pos(), dropActionToDragOp(ev->possibleActions())); Qt::DropAction action = dragOpToDropAction(page->dragController()->dragEntered(&dragData)); ev->setDropAction(action); if (action != Qt::IgnoreAction) ev->acceptProposedAction(); #endif } void QWebPagePrivate::dragEnterEvent(QDragEnterEvent* ev) { #ifndef QT_NO_DRAGANDDROP DragData dragData(ev->mimeData(), ev->pos(), QCursor::pos(), dropActionToDragOp(ev->possibleActions())); Qt::DropAction action = dragOpToDropAction(page->dragController()->dragEntered(&dragData)); ev->setDropAction(action); // We must accept this event in order to receive the drag move events that are sent // while the drag and drop action is in progress. ev->acceptProposedAction(); #endif } void QWebPagePrivate::dragLeaveEvent(QGraphicsSceneDragDropEvent* ev) { #ifndef QT_NO_DRAGANDDROP DragData dragData(0, IntPoint(), QCursor::pos(), DragOperationNone); page->dragController()->dragExited(&dragData); ev->accept(); #endif } void QWebPagePrivate::dragLeaveEvent(QDragLeaveEvent* ev) { #ifndef QT_NO_DRAGANDDROP DragData dragData(0, IntPoint(), QCursor::pos(), DragOperationNone); page->dragController()->dragExited(&dragData); ev->accept(); #endif } void QWebPagePrivate::dragMoveEvent(QGraphicsSceneDragDropEvent* ev) { #ifndef QT_NO_DRAGANDDROP DragData dragData(ev->mimeData(), ev->pos().toPoint(), QCursor::pos(), dropActionToDragOp(ev->possibleActions())); Qt::DropAction action = dragOpToDropAction(page->dragController()->dragUpdated(&dragData)); ev->setDropAction(action); if (action != Qt::IgnoreAction) ev->acceptProposedAction(); #endif } void QWebPagePrivate::dragMoveEvent(QDragMoveEvent* ev) { #ifndef QT_NO_DRAGANDDROP DragData dragData(ev->mimeData(), ev->pos(), QCursor::pos(), dropActionToDragOp(ev->possibleActions())); Qt::DropAction action = dragOpToDropAction(page->dragController()->dragUpdated(&dragData)); m_lastDropAction = action; ev->setDropAction(action); // We must accept this event in order to receive the drag move events that are sent // while the drag and drop action is in progress. ev->acceptProposedAction(); #endif } void QWebPagePrivate::dropEvent(QGraphicsSceneDragDropEvent* ev) { #ifndef QT_NO_DRAGANDDROP DragData dragData(ev->mimeData(), ev->pos().toPoint(), QCursor::pos(), dropActionToDragOp(ev->possibleActions())); if (page->dragController()->performDrag(&dragData)) ev->acceptProposedAction(); #endif } void QWebPagePrivate::dropEvent(QDropEvent* ev) { #ifndef QT_NO_DRAGANDDROP // Overwrite the defaults set by QDragManager::defaultAction() ev->setDropAction(m_lastDropAction); DragData dragData(ev->mimeData(), ev->pos(), QCursor::pos(), dropActionToDragOp(Qt::DropAction(ev->dropAction()))); if (page->dragController()->performDrag(&dragData)) ev->acceptProposedAction(); #endif } void QWebPagePrivate::leaveEvent(QEvent*) { // Fake a mouse move event just outside of the widget, since all // the interesting mouse-out behavior like invalidating scrollbars // is handled by the WebKit event handler's mouseMoved function. QMouseEvent fakeEvent(QEvent::MouseMove, QCursor::pos(), Qt::NoButton, Qt::NoButton, Qt::NoModifier); mouseMoveEvent(&fakeEvent); } /*! \property QWebPage::palette \brief the page's palette The base brush of the palette is used to draw the background of the main frame. By default, this property contains the application's default palette. */ void QWebPage::setPalette(const QPalette &pal) { d->palette = pal; if (!d->mainFrame || !d->mainFrame->d->frame->view()) return; QBrush brush = pal.brush(QPalette::Base); QColor backgroundColor = brush.style() == Qt::SolidPattern ? brush.color() : QColor(); QWebFramePrivate::core(d->mainFrame)->view()->updateBackgroundRecursively(backgroundColor, !backgroundColor.alpha()); } QPalette QWebPage::palette() const { return d->palette; } void QWebPagePrivate::inputMethodEvent(QInputMethodEvent *ev) { WebCore::Frame *frame = page->focusController()->focusedOrMainFrame(); WebCore::Editor *editor = frame->editor(); #if QT_VERSION >= QT_VERSION_CHECK(4, 6, 0) QInputMethodEvent::Attribute selection(QInputMethodEvent::Selection, 0, 0, QVariant()); #endif if (!editor->canEdit()) { ev->ignore(); return; } RenderObject* renderer = 0; RenderTextControl* renderTextControl = 0; if (frame->selection()->rootEditableElement()) renderer = frame->selection()->rootEditableElement()->shadowAncestorNode()->renderer(); if (renderer && renderer->isTextControl()) renderTextControl = toRenderTextControl(renderer); Vector<CompositionUnderline> underlines; bool hasSelection = false; for (int i = 0; i < ev->attributes().size(); ++i) { const QInputMethodEvent::Attribute& a = ev->attributes().at(i); switch (a.type) { case QInputMethodEvent::TextFormat: { QTextCharFormat textCharFormat = a.value.value<QTextFormat>().toCharFormat(); QColor qcolor = textCharFormat.underlineColor(); underlines.append(CompositionUnderline(qMin(a.start, (a.start + a.length)), qMax(a.start, (a.start + a.length)), Color(makeRGBA(qcolor.red(), qcolor.green(), qcolor.blue(), qcolor.alpha())), false)); break; } case QInputMethodEvent::Cursor: { frame->selection()->setCaretVisible(a.length); //if length is 0 cursor is invisible if (a.length > 0) { RenderObject* caretRenderer = frame->selection()->caretRenderer(); if (caretRenderer) { QColor qcolor = a.value.value<QColor>(); caretRenderer->style()->setColor(Color(makeRGBA(qcolor.red(), qcolor.green(), qcolor.blue(), qcolor.alpha()))); } } break; } #if QT_VERSION >= QT_VERSION_CHECK(4, 6, 0) case QInputMethodEvent::Selection: { selection = a; hasSelection = true; break; } #endif } } if (!ev->commitString().isEmpty()) editor->confirmComposition(ev->commitString()); else { // 1. empty preedit with a selection attribute, and start/end of 0 cancels composition // 2. empty preedit with a selection attribute, and start/end of non-0 updates selection of current preedit text // 3. populated preedit with a selection attribute, and start/end of 0 or non-0 updates selection of supplied preedit text // 4. otherwise event is updating supplied pre-edit text QString preedit = ev->preeditString(); #if QT_VERSION >= QT_VERSION_CHECK(4, 6, 0) if (hasSelection) { QString text = (renderTextControl) ? QString(renderTextControl->text()) : QString(); if (preedit.isEmpty() && selection.start + selection.length > 0) preedit = text; editor->setComposition(preedit, underlines, (selection.length < 0) ? selection.start + selection.length : selection.start, (selection.length < 0) ? selection.start : selection.start + selection.length); } else #endif if (!preedit.isEmpty()) editor->setComposition(preedit, underlines, preedit.length(), 0); } ev->accept(); } #ifndef QT_NO_PROPERTIES typedef struct { const char* name; double deferredRepaintDelay; double initialDeferredRepaintDelayDuringLoading; double maxDeferredRepaintDelayDuringLoading; double deferredRepaintDelayIncrementDuringLoading; } QRepaintThrottlingPreset; void QWebPagePrivate::dynamicPropertyChangeEvent(QDynamicPropertyChangeEvent* event) { if (event->propertyName() == "_q_viewMode") { page->setViewMode(Page::stringToViewMode(q->property("_q_viewMode").toString())); } else if (event->propertyName() == "_q_HTMLTokenizerChunkSize") { int chunkSize = q->property("_q_HTMLTokenizerChunkSize").toInt(); q->handle()->page->setCustomHTMLTokenizerChunkSize(chunkSize); } else if (event->propertyName() == "_q_HTMLTokenizerTimeDelay") { double timeDelay = q->property("_q_HTMLTokenizerTimeDelay").toDouble(); q->handle()->page->setCustomHTMLTokenizerTimeDelay(timeDelay); } else if (event->propertyName() == "_q_RepaintThrottlingDeferredRepaintDelay") { double p = q->property("_q_RepaintThrottlingDeferredRepaintDelay").toDouble(); FrameView::setRepaintThrottlingDeferredRepaintDelay(p); } else if (event->propertyName() == "_q_RepaintThrottlingnInitialDeferredRepaintDelayDuringLoading") { double p = q->property("_q_RepaintThrottlingnInitialDeferredRepaintDelayDuringLoading").toDouble(); FrameView::setRepaintThrottlingnInitialDeferredRepaintDelayDuringLoading(p); } else if (event->propertyName() == "_q_RepaintThrottlingMaxDeferredRepaintDelayDuringLoading") { double p = q->property("_q_RepaintThrottlingMaxDeferredRepaintDelayDuringLoading").toDouble(); FrameView::setRepaintThrottlingMaxDeferredRepaintDelayDuringLoading(p); } else if (event->propertyName() == "_q_RepaintThrottlingDeferredRepaintDelayIncrementDuringLoading") { double p = q->property("_q_RepaintThrottlingDeferredRepaintDelayIncrementDuringLoading").toDouble(); FrameView::setRepaintThrottlingDeferredRepaintDelayIncrementDuringLoading(p); } else if (event->propertyName() == "_q_RepaintThrottlingPreset") { static const QRepaintThrottlingPreset presets[] = { { "NoThrottling", 0, 0, 0, 0 }, { "Legacy", 0.025, 0, 2.5, 0.5 }, { "Minimal", 0.01, 0, 1, 0.2 }, { "Medium", 0.025, 1, 5, 0.5 }, { "Heavy", 0.1, 2, 10, 1 } }; QString p = q->property("_q_RepaintThrottlingPreset").toString(); for(int i = 0; i < sizeof(presets) / sizeof(presets[0]); i++) { if(p == presets[i].name) { FrameView::setRepaintThrottlingDeferredRepaintDelay( presets[i].deferredRepaintDelay); FrameView::setRepaintThrottlingnInitialDeferredRepaintDelayDuringLoading( presets[i].initialDeferredRepaintDelayDuringLoading); FrameView::setRepaintThrottlingMaxDeferredRepaintDelayDuringLoading( presets[i].maxDeferredRepaintDelayDuringLoading); FrameView::setRepaintThrottlingDeferredRepaintDelayIncrementDuringLoading( presets[i].deferredRepaintDelayIncrementDuringLoading); break; } } } #if ENABLE(TILED_BACKING_STORE) else if (event->propertyName() == "_q_TiledBackingStoreTileSize") { WebCore::Frame* frame = QWebFramePrivate::core(q->mainFrame()); if (!frame->tiledBackingStore()) return; QSize tileSize = q->property("_q_TiledBackingStoreTileSize").toSize(); frame->tiledBackingStore()->setTileSize(tileSize); } else if (event->propertyName() == "_q_TiledBackingStoreTileCreationDelay") { WebCore::Frame* frame = QWebFramePrivate::core(q->mainFrame()); if (!frame->tiledBackingStore()) return; int tileCreationDelay = q->property("_q_TiledBackingStoreTileCreationDelay").toInt(); frame->tiledBackingStore()->setTileCreationDelay(static_cast<double>(tileCreationDelay) / 1000.); } else if (event->propertyName() == "_q_TiledBackingStoreKeepAreaMultiplier") { WebCore::Frame* frame = QWebFramePrivate::core(q->mainFrame()); if (!frame->tiledBackingStore()) return; FloatSize keepMultiplier; FloatSize coverMultiplier; frame->tiledBackingStore()->getKeepAndCoverAreaMultipliers(keepMultiplier, coverMultiplier); QSizeF qSize = q->property("_q_TiledBackingStoreKeepAreaMultiplier").toSizeF(); keepMultiplier = FloatSize(qSize.width(), qSize.height()); frame->tiledBackingStore()->setKeepAndCoverAreaMultipliers(keepMultiplier, coverMultiplier); } else if (event->propertyName() == "_q_TiledBackingStoreCoverAreaMultiplier") { WebCore::Frame* frame = QWebFramePrivate::core(q->mainFrame()); if (!frame->tiledBackingStore()) return; FloatSize keepMultiplier; FloatSize coverMultiplier; frame->tiledBackingStore()->getKeepAndCoverAreaMultipliers(keepMultiplier, coverMultiplier); QSizeF qSize = q->property("_q_TiledBackingStoreCoverAreaMultiplier").toSizeF(); coverMultiplier = FloatSize(qSize.width(), qSize.height()); frame->tiledBackingStore()->setKeepAndCoverAreaMultipliers(keepMultiplier, coverMultiplier); } #endif } #endif void QWebPagePrivate::shortcutOverrideEvent(QKeyEvent* event) { WebCore::Frame* frame = page->focusController()->focusedOrMainFrame(); WebCore::Editor* editor = frame->editor(); if (editor->canEdit()) { if (event->modifiers() == Qt::NoModifier || event->modifiers() == Qt::ShiftModifier || event->modifiers() == Qt::KeypadModifier) { if (event->key() < Qt::Key_Escape) { event->accept(); } else { switch (event->key()) { case Qt::Key_Return: case Qt::Key_Enter: case Qt::Key_Delete: case Qt::Key_Home: case Qt::Key_End: case Qt::Key_Backspace: case Qt::Key_Left: case Qt::Key_Right: case Qt::Key_Up: case Qt::Key_Down: case Qt::Key_Tab: event->accept(); default: break; } } } #ifndef QT_NO_SHORTCUT else if (editorActionForKeyEvent(event) != QWebPage::NoWebAction) event->accept(); #endif } } bool QWebPagePrivate::handleScrolling(QKeyEvent *ev, Frame *frame) { ScrollDirection direction; ScrollGranularity granularity; #ifndef QT_NO_SHORTCUT if (ev == QKeySequence::MoveToNextPage || (ev->key() == Qt::Key_Space && !(ev->modifiers() & Qt::ShiftModifier))) { granularity = ScrollByPage; direction = ScrollDown; } else if (ev == QKeySequence::MoveToPreviousPage || ((ev->key() == Qt::Key_Space) && (ev->modifiers() & Qt::ShiftModifier))) { granularity = ScrollByPage; direction = ScrollUp; } else #endif // QT_NO_SHORTCUT if ((ev->key() == Qt::Key_Up && ev->modifiers() & Qt::ControlModifier) || ev->key() == Qt::Key_Home) { granularity = ScrollByDocument; direction = ScrollUp; } else if ((ev->key() == Qt::Key_Down && ev->modifiers() & Qt::ControlModifier) || ev->key() == Qt::Key_End) { granularity = ScrollByDocument; direction = ScrollDown; } else { switch (ev->key()) { case Qt::Key_Up: granularity = ScrollByLine; direction = ScrollUp; break; case Qt::Key_Down: granularity = ScrollByLine; direction = ScrollDown; break; case Qt::Key_Left: granularity = ScrollByLine; direction = ScrollLeft; break; case Qt::Key_Right: granularity = ScrollByLine; direction = ScrollRight; break; default: return false; } } return frame->eventHandler()->scrollRecursively(direction, granularity); } #if QT_VERSION >= QT_VERSION_CHECK(4, 6, 0) bool QWebPagePrivate::touchEvent(QTouchEvent* event) { WebCore::Frame* frame = QWebFramePrivate::core(mainFrame); if (!frame->view()) return false; // Always accept the QTouchEvent so that we'll receive also TouchUpdate and TouchEnd events event->setAccepted(true); // Return whether the default action was cancelled in the JS event handler return frame->eventHandler()->handleTouchEvent(PlatformTouchEvent(event)); } #endif /*! This method is used by the input method to query a set of properties of the page to be able to support complex input method operations as support for surrounding text and reconversions. \a property specifies which property is queried. \sa QWidget::inputMethodEvent(), QInputMethodEvent, QInputContext */ QVariant QWebPage::inputMethodQuery(Qt::InputMethodQuery property) const { Frame* frame = d->page->focusController()->focusedFrame(); if (!frame) return QVariant(); WebCore::Editor* editor = frame->editor(); RenderObject* renderer = 0; RenderTextControl* renderTextControl = 0; if (frame->selection()->rootEditableElement()) renderer = frame->selection()->rootEditableElement()->shadowAncestorNode()->renderer(); if (renderer && renderer->isTextControl()) renderTextControl = toRenderTextControl(renderer); switch (property) { case Qt::ImMicroFocus: { WebCore::FrameView* view = frame->view(); if (view && view->needsLayout()) { // We can't access absoluteCaretBounds() while the view needs to layout. return QVariant(); } return QVariant(view->contentsToWindow(frame->selection()->absoluteCaretBounds())); } case Qt::ImFont: { if (renderTextControl) { RenderStyle* renderStyle = renderTextControl->style(); return QVariant(QFont(renderStyle->font().font())); } return QVariant(QFont()); } case Qt::ImCursorPosition: { if (renderTextControl) { if (editor->hasComposition()) { RefPtr<Range> range = editor->compositionRange(); return QVariant(renderTextControl->selectionEnd() - TextIterator::rangeLength(range.get())); } return QVariant(frame->selection()->extent().offsetInContainerNode()); } return QVariant(); } case Qt::ImSurroundingText: { if (renderTextControl) { QString text = renderTextControl->text(); RefPtr<Range> range = editor->compositionRange(); if (range) { text.remove(range->startPosition().offsetInContainerNode(), TextIterator::rangeLength(range.get())); } return QVariant(text); } return QVariant(); } case Qt::ImCurrentSelection: { if (renderTextControl) { int start = renderTextControl->selectionStart(); int end = renderTextControl->selectionEnd(); if (end > start) return QVariant(QString(renderTextControl->text()).mid(start,end-start)); } return QVariant(); } #if QT_VERSION >= QT_VERSION_CHECK(4, 6, 0) case Qt::ImAnchorPosition: { if (renderTextControl) { if (editor->hasComposition()) { RefPtr<Range> range = editor->compositionRange(); return QVariant(renderTextControl->selectionStart() - TextIterator::rangeLength(range.get())); } return QVariant(frame->selection()->base().offsetInContainerNode()); } return QVariant(); } case Qt::ImMaximumTextLength: { if (frame->selection()->isContentEditable()) { if (frame->document() && frame->document()->focusedNode()) { if (frame->document()->focusedNode()->hasTagName(HTMLNames::inputTag)) { HTMLInputElement* inputElement = static_cast<HTMLInputElement*>(frame->document()->focusedNode()); return QVariant(inputElement->maxLength()); } } return QVariant(InputElement::s_maximumLength); } return QVariant(0); } #endif default: return QVariant(); } } /*! \internal */ void QWebPagePrivate::setInspector(QWebInspector* insp) { if (inspector) inspector->d->setFrontend(0); if (inspectorIsInternalOnly) { QWebInspector* inspToDelete = inspector; inspector = 0; inspectorIsInternalOnly = false; delete inspToDelete; // Delete after to prevent infinite recursion } inspector = insp; // Give inspector frontend web view if previously created if (inspector && inspectorFrontend) inspector->d->setFrontend(inspectorFrontend); } /*! \internal Returns the inspector and creates it if it wasn't created yet. The instance created here will not be available through QWebPage's API. */ QWebInspector* QWebPagePrivate::getOrCreateInspector() { #if ENABLE(INSPECTOR) if (!inspector) { QWebInspector* insp = new QWebInspector; insp->setPage(q); inspectorIsInternalOnly = true; Q_ASSERT(inspector); // Associated through QWebInspector::setPage(q) } #endif return inspector; } /*! \internal */ InspectorController* QWebPagePrivate::inspectorController() { #if ENABLE(INSPECTOR) return page->inspectorController(); #else return 0; #endif } /*! \enum QWebPage::FindFlag This enum describes the options available to the findText() function. The options can be OR-ed together from the following list: \value FindBackward Searches backwards instead of forwards. \value FindCaseSensitively By default findText() works case insensitive. Specifying this option changes the behaviour to a case sensitive find operation. \value FindWrapsAroundDocument Makes findText() restart from the beginning of the document if the end was reached and the text was not found. \value HighlightAllOccurrences Highlights all existing occurrences of a specific string. */ /*! \enum QWebPage::LinkDelegationPolicy This enum defines the delegation policies a webpage can have when activating links and emitting the linkClicked() signal. \value DontDelegateLinks No links are delegated. Instead, QWebPage tries to handle them all. \value DelegateExternalLinks When activating links that point to documents not stored on the local filesystem or an equivalent - such as the Qt resource system - then linkClicked() is emitted. \value DelegateAllLinks Whenever a link is activated the linkClicked() signal is emitted. \sa QWebPage::linkDelegationPolicy */ /*! \enum QWebPage::NavigationType This enum describes the types of navigation available when browsing through hyperlinked documents. \value NavigationTypeLinkClicked The user clicked on a link or pressed return on a focused link. \value NavigationTypeFormSubmitted The user activated a submit button for an HTML form. \value NavigationTypeBackOrForward Navigation to a previously shown document in the back or forward history is requested. \value NavigationTypeReload The user activated the reload action. \value NavigationTypeFormResubmitted An HTML form was submitted a second time. \value NavigationTypeOther A navigation to another document using a method not listed above. \sa acceptNavigationRequest() */ /*! \enum QWebPage::WebAction This enum describes the types of action which can be performed on the web page. Actions only have an effect when they are applicable. The availability of actions can be be determined by checking \l{QAction::}{isEnabled()} on the action returned by action(). One method of enabling the text editing, cursor movement, and text selection actions is by setting \l contentEditable to true. \value NoWebAction No action is triggered. \value OpenLink Open the current link. \value OpenLinkInNewWindow Open the current link in a new window. \value OpenFrameInNewWindow Replicate the current frame in a new window. \value DownloadLinkToDisk Download the current link to the disk. \value CopyLinkToClipboard Copy the current link to the clipboard. \value OpenImageInNewWindow Open the highlighted image in a new window. \value DownloadImageToDisk Download the highlighted image to the disk. \value CopyImageToClipboard Copy the highlighted image to the clipboard. \value Back Navigate back in the history of navigated links. \value Forward Navigate forward in the history of navigated links. \value Stop Stop loading the current page. \value StopScheduledPageRefresh Stop all pending page refresh/redirect requests. \value Reload Reload the current page. \value ReloadAndBypassCache Reload the current page, but do not use any local cache. (Added in Qt 4.6) \value Cut Cut the content currently selected into the clipboard. \value Copy Copy the content currently selected into the clipboard. \value Paste Paste content from the clipboard. \value Undo Undo the last editing action. \value Redo Redo the last editing action. \value MoveToNextChar Move the cursor to the next character. \value MoveToPreviousChar Move the cursor to the previous character. \value MoveToNextWord Move the cursor to the next word. \value MoveToPreviousWord Move the cursor to the previous word. \value MoveToNextLine Move the cursor to the next line. \value MoveToPreviousLine Move the cursor to the previous line. \value MoveToStartOfLine Move the cursor to the start of the line. \value MoveToEndOfLine Move the cursor to the end of the line. \value MoveToStartOfBlock Move the cursor to the start of the block. \value MoveToEndOfBlock Move the cursor to the end of the block. \value MoveToStartOfDocument Move the cursor to the start of the document. \value MoveToEndOfDocument Move the cursor to the end of the document. \value SelectNextChar Select to the next character. \value SelectPreviousChar Select to the previous character. \value SelectNextWord Select to the next word. \value SelectPreviousWord Select to the previous word. \value SelectNextLine Select to the next line. \value SelectPreviousLine Select to the previous line. \value SelectStartOfLine Select to the start of the line. \value SelectEndOfLine Select to the end of the line. \value SelectStartOfBlock Select to the start of the block. \value SelectEndOfBlock Select to the end of the block. \value SelectStartOfDocument Select to the start of the document. \value SelectEndOfDocument Select to the end of the document. \value DeleteStartOfWord Delete to the start of the word. \value DeleteEndOfWord Delete to the end of the word. \value SetTextDirectionDefault Set the text direction to the default direction. \value SetTextDirectionLeftToRight Set the text direction to left-to-right. \value SetTextDirectionRightToLeft Set the text direction to right-to-left. \value ToggleBold Toggle the formatting between bold and normal weight. \value ToggleItalic Toggle the formatting between italic and normal style. \value ToggleUnderline Toggle underlining. \value InspectElement Show the Web Inspector with the currently highlighted HTML element. \value InsertParagraphSeparator Insert a new paragraph. \value InsertLineSeparator Insert a new line. \value SelectAll Selects all content. \value PasteAndMatchStyle Paste content from the clipboard with current style. \value RemoveFormat Removes formatting and style. \value ToggleStrikethrough Toggle the formatting between strikethrough and normal style. \value ToggleSubscript Toggle the formatting between subscript and baseline. \value ToggleSuperscript Toggle the formatting between supercript and baseline. \value InsertUnorderedList Toggles the selection between an ordered list and a normal block. \value InsertOrderedList Toggles the selection between an ordered list and a normal block. \value Indent Increases the indentation of the currently selected format block by one increment. \value Outdent Decreases the indentation of the currently selected format block by one increment. \value AlignCenter Applies center alignment to content. \value AlignJustified Applies full justification to content. \value AlignLeft Applies left justification to content. \value AlignRight Applies right justification to content. \omitvalue WebActionCount */ /*! \enum QWebPage::WebWindowType This enum describes the types of window that can be created by the createWindow() function. \value WebBrowserWindow The window is a regular web browser window. \value WebModalDialog The window acts as modal dialog. */ /*! \class QWebPage::ViewportConfiguration \since 4.7 \brief The QWebPage::ViewportConfiguration class describes hints that can be applied to a viewport. QWebPage::ViewportConfiguration provides a description of a viewport, such as viewport geometry, initial scale factor with limits, plus information about whether a user should be able to scale the contents in the viewport or not, ie. by zooming. ViewportConfiguration can be set by a web author using the viewport meta tag extension, documented at \l{http://developer.apple.com/safari/library/documentation/appleapplications/reference/safariwebcontent/usingtheviewport/usingtheviewport.html}{Safari Reference Library: Using the Viewport Meta Tag}. All values might not be set, as such when dealing with the hints, the developer needs to check whether the values are valid. Negative values denote an invalid qreal value. \inmodule QtWebKit */ /*! Constructs an empty QWebPage::ViewportConfiguration. */ QWebPage::ViewportConfiguration::ViewportConfiguration() : d(0) , m_initialScaleFactor(-1.0) , m_minimumScaleFactor(-1.0) , m_maximumScaleFactor(-1.0) , m_devicePixelRatio(-1.0) , m_isUserScalable(true) , m_isValid(false) { } /*! Constructs a QWebPage::ViewportConfiguration which is a copy from \a other . */ QWebPage::ViewportConfiguration::ViewportConfiguration(const QWebPage::ViewportConfiguration& other) : d(other.d) , m_initialScaleFactor(other.m_initialScaleFactor) , m_minimumScaleFactor(other.m_minimumScaleFactor) , m_maximumScaleFactor(other.m_maximumScaleFactor) , m_devicePixelRatio(other.m_devicePixelRatio) , m_isUserScalable(other.m_isUserScalable) , m_isValid(other.m_isValid) , m_size(other.m_size) { } /*! Destroys the QWebPage::ViewportConfiguration. */ QWebPage::ViewportConfiguration::~ViewportConfiguration() { } /*! Assigns the given QWebPage::ViewportConfiguration to this viewport hints and returns a reference to this. */ QWebPage::ViewportConfiguration& QWebPage::ViewportConfiguration::operator=(const QWebPage::ViewportConfiguration& other) { if (this != &other) { d = other.d; m_initialScaleFactor = other.m_initialScaleFactor; m_minimumScaleFactor = other.m_minimumScaleFactor; m_maximumScaleFactor = other.m_maximumScaleFactor; m_isUserScalable = other.m_isUserScalable; m_isValid = other.m_isValid; m_size = other.m_size; } return *this; } /*! \fn inline bool QWebPage::ViewportConfiguration::isValid() const Returns whether this is a valid ViewportConfiguration or not. An invalid ViewportConfiguration will have an empty QSize, negative values for scale factors and true for the boolean isUserScalable. */ /*! \fn inline QSize QWebPage::ViewportConfiguration::size() const Returns the size of the viewport. */ /*! \fn inline qreal QWebPage::ViewportConfiguration::initialScaleFactor() const Returns the initial scale of the viewport as a multiplier. */ /*! \fn inline qreal QWebPage::ViewportConfiguration::minimumScaleFactor() const Returns the minimum scale value of the viewport as a multiplier. */ /*! \fn inline qreal QWebPage::ViewportConfiguration::maximumScaleFactor() const Returns the maximum scale value of the viewport as a multiplier. */ /*! \fn inline bool QWebPage::ViewportConfiguration::isUserScalable() const Determines whether or not the scale can be modified by the user. */ /*! \class QWebPage \since 4.4 \brief The QWebPage class provides an object to view and edit web documents. \inmodule QtWebKit QWebPage holds a main frame responsible for web content, settings, the history of navigated links and actions. This class can be used, together with QWebFrame, to provide functionality like QWebView in a widget-less environment. QWebPage's API is very similar to QWebView, as you are still provided with common functions like action() (known as \l{QWebView::pageAction()}{pageAction}() in QWebView), triggerAction(), findText() and settings(). More QWebView-like functions can be found in the main frame of QWebPage, obtained via the mainFrame() function. For example, the \l{QWebFrame::load()}{load}(), \l{QWebFrame::setUrl()}{setUrl}() and \l{QWebFrame::setHtml()}{setHtml}() functions for QWebPage can be accessed using QWebFrame. The loadStarted() signal is emitted when the page begins to load.The loadProgress() signal, on the other hand, is emitted whenever an element of the web page completes loading, such as an embedded image, a script, etc. Finally, the loadFinished() signal is emitted when the page has loaded completely. Its argument, either true or false, indicates whether or not the load operation succeeded. \section1 Using QWebPage in a Widget-less Environment Before you begin painting a QWebPage object, you need to set the size of the viewport by calling setViewportSize(). Then, you invoke the main frame's render function (QWebFrame::render()). An example of this is shown in the code snippet below. Suppose we have a \c Thumbnail class as follows: \snippet webkitsnippets/webpage/main.cpp 0 The \c Thumbnail's constructor takes in a \a url. We connect our QWebPage object's \l{QWebPage::}{loadFinished()} signal to our private slot, \c render(). \snippet webkitsnippets/webpage/main.cpp 1 The \c render() function shows how we can paint a thumbnail using a QWebPage object. \snippet webkitsnippets/webpage/main.cpp 2 We begin by setting the \l{QWebPage::viewportSize()}{viewportSize} and then we instantiate a QImage object, \c image, with the same size as our \l{QWebPage::viewportSize()}{viewportSize}. This image is then sent as a parameter to \c painter. Next, we render the contents of the main frame and its subframes into \c painter. Finally, we save the scaled image. \sa QWebFrame */ /*! Constructs an empty QWebPage with parent \a parent. */ QWebPage::QWebPage(QObject *parent) : QObject(parent) , d(new QWebPagePrivate(this)) { setView(qobject_cast<QWidget*>(parent)); connect(this, SIGNAL(loadProgress(int)), this, SLOT(_q_onLoadProgressChanged(int))); #ifndef NDEBUG connect(QCoreApplication::instance(), SIGNAL(aboutToQuit()), this, SLOT(_q_cleanupLeakMessages())); #endif } /*! Destroys the web page. */ QWebPage::~QWebPage() { d->createMainFrame(); FrameLoader *loader = d->mainFrame->d->frame->loader(); if (loader) loader->detachFromParent(); if (d->inspector) { // Since we have to delete an internal inspector, // call setInspector(0) directly to prevent potential crashes if (d->inspectorIsInternalOnly) d->setInspector(0); else d->inspector->setPage(0); } delete d; } /*! Returns the main frame of the page. The main frame provides access to the hierarchy of sub-frames and is also needed if you want to explicitly render a web page into a given painter. \sa currentFrame() */ QWebFrame *QWebPage::mainFrame() const { d->createMainFrame(); return d->mainFrame; } /*! Returns the frame currently active. \sa mainFrame(), frameCreated() */ QWebFrame *QWebPage::currentFrame() const { d->createMainFrame(); return static_cast<WebCore::FrameLoaderClientQt *>(d->page->focusController()->focusedOrMainFrame()->loader()->client())->webFrame(); } /*! \since 4.6 Returns the frame at the given point \a pos, or 0 if there is no frame at that position. \sa mainFrame(), currentFrame() */ QWebFrame* QWebPage::frameAt(const QPoint& pos) const { QWebFrame* webFrame = mainFrame(); if (!webFrame->geometry().contains(pos)) return 0; QWebHitTestResult hitTestResult = webFrame->hitTestContent(pos); return hitTestResult.frame(); } /*! Returns a pointer to the view's history of navigated web pages. */ QWebHistory *QWebPage::history() const { d->createMainFrame(); return &d->history; } /*! Sets the \a view that is associated with the web page. \sa view() */ void QWebPage::setView(QWidget* view) { if (this->view() == view) return; d->view = view; setViewportSize(view ? view->size() : QSize(0, 0)); // If we have no client, we install a special client delegating // the responsibility to the QWidget. This is the code path // handling a.o. the "legacy" QWebView. // // If such a special delegate already exist, we substitute the view. if (d->client) { if (d->client->isQWidgetClient()) static_cast<PageClientQWidget*>(d->client)->view = view; return; } if (view) d->client = new PageClientQWidget(view); } /*! Returns the view widget that is associated with the web page. \sa setView() */ QWidget *QWebPage::view() const { #if QT_VERSION < QT_VERSION_CHECK(4, 6, 0) return d->view; #else return d->view.data(); #endif } /*! This function is called whenever a JavaScript program tries to print a \a message to the web browser's console. For example in case of evaluation errors the source URL may be provided in \a sourceID as well as the \a lineNumber. The default implementation prints nothing. */ void QWebPage::javaScriptConsoleMessage(const QString& message, int lineNumber, const QString& sourceID) { Q_UNUSED(sourceID) // Catch plugin logDestroy message for LayoutTests/plugins/open-and-close-window-with-plugin.html // At this point DRT's WebPage has already been destroyed if (QWebPagePrivate::drtRun) { if (message == "PLUGIN: NPP_Destroy") fprintf (stdout, "CONSOLE MESSAGE: line %d: %s\n", lineNumber, message.toUtf8().constData()); } } /*! This function is called whenever a JavaScript program running inside \a frame calls the alert() function with the message \a msg. The default implementation shows the message, \a msg, with QMessageBox::information. */ void QWebPage::javaScriptAlert(QWebFrame *frame, const QString& msg) { Q_UNUSED(frame) #ifndef QT_NO_MESSAGEBOX QWidget* parent = (d->client) ? d->client->ownerWidget() : 0; QMessageBox::information(parent, tr("JavaScript Alert - %1").arg(mainFrame()->url().host()), Qt::escape(msg), QMessageBox::Ok); #endif } /*! This function is called whenever a JavaScript program running inside \a frame calls the confirm() function with the message, \a msg. Returns true if the user confirms the message; otherwise returns false. The default implementation executes the query using QMessageBox::information with QMessageBox::Yes and QMessageBox::No buttons. */ bool QWebPage::javaScriptConfirm(QWebFrame *frame, const QString& msg) { Q_UNUSED(frame) #ifdef QT_NO_MESSAGEBOX return true; #else QWidget* parent = (d->client) ? d->client->ownerWidget() : 0; return QMessageBox::Yes == QMessageBox::information(parent, tr("JavaScript Confirm - %1").arg(mainFrame()->url().host()), Qt::escape(msg), QMessageBox::Yes, QMessageBox::No); #endif } /*! This function is called whenever a JavaScript program running inside \a frame tries to prompt the user for input. The program may provide an optional message, \a msg, as well as a default value for the input in \a defaultValue. If the prompt was cancelled by the user the implementation should return false; otherwise the result should be written to \a result and true should be returned. If the prompt was not cancelled by the user, the implementation should return true and the result string must not be null. The default implementation uses QInputDialog::getText(). */ bool QWebPage::javaScriptPrompt(QWebFrame *frame, const QString& msg, const QString& defaultValue, QString* result) { Q_UNUSED(frame) bool ok = false; #ifndef QT_NO_INPUTDIALOG QWidget* parent = (d->client) ? d->client->ownerWidget() : 0; QString x = QInputDialog::getText(parent, tr("JavaScript Prompt - %1").arg(mainFrame()->url().host()), Qt::escape(msg), QLineEdit::Normal, defaultValue, &ok); if (ok && result) *result = x; #endif return ok; } /*! \fn bool QWebPage::shouldInterruptJavaScript() \since 4.6 This function is called when a JavaScript program is running for a long period of time. If the user wanted to stop the JavaScript the implementation should return true; otherwise false. The default implementation executes the query using QMessageBox::information with QMessageBox::Yes and QMessageBox::No buttons. \warning Because of binary compatibility constraints, this function is not virtual. If you want to provide your own implementation in a QWebPage subclass, reimplement the shouldInterruptJavaScript() slot in your subclass instead. QtWebKit will dynamically detect the slot and call it. */ bool QWebPage::shouldInterruptJavaScript() { #ifdef QT_NO_MESSAGEBOX return false; #else QWidget* parent = (d->client) ? d->client->ownerWidget() : 0; return QMessageBox::Yes == QMessageBox::information(parent, tr("JavaScript Problem - %1").arg(mainFrame()->url().host()), tr("The script on this page appears to have a problem. Do you want to stop the script?"), QMessageBox::Yes, QMessageBox::No); #endif } void QWebPage::setUserPermission(QWebFrame* frame, PermissionDomain domain, PermissionPolicy policy) { switch (domain) { case NotificationsPermissionDomain: #if ENABLE(NOTIFICATIONS) if (policy == PermissionGranted) NotificationPresenterClientQt::notificationPresenter()->allowNotificationForFrame(frame); #endif break; case GeolocationPermissionDomain: #if ENABLE(GEOLOCATION) GeolocationPermissionClientQt::geolocationPermissionClient()->setPermission(frame, policy); #endif break; default: break; } } /*! This function is called whenever WebKit wants to create a new window of the given \a type, for example when a JavaScript program requests to open a document in a new window. If the new window can be created, the new window's QWebPage is returned; otherwise a null pointer is returned. If the view associated with the web page is a QWebView object, then the default implementation forwards the request to QWebView's createWindow() function; otherwise it returns a null pointer. If \a type is WebModalDialog, the application must call setWindowModality(Qt::ApplicationModal) on the new window. \note In the cases when the window creation is being triggered by JavaScript, apart from reimplementing this method application must also set the JavaScriptCanOpenWindows attribute of QWebSettings to true in order for it to get called. \sa acceptNavigationRequest(), QWebView::createWindow() */ QWebPage *QWebPage::createWindow(WebWindowType type) { QWebView *webView = qobject_cast<QWebView*>(view()); if (webView) { QWebView *newView = webView->createWindow(type); if (newView) return newView->page(); } return 0; } /*! This function is called whenever WebKit encounters a HTML object element with type "application/x-qt-plugin". It is called regardless of the value of QWebSettings::PluginsEnabled. The \a classid, \a url, \a paramNames and \a paramValues correspond to the HTML object element attributes and child elements to configure the embeddable object. */ QObject *QWebPage::createPlugin(const QString &classid, const QUrl &url, const QStringList &paramNames, const QStringList &paramValues) { Q_UNUSED(classid) Q_UNUSED(url) Q_UNUSED(paramNames) Q_UNUSED(paramValues) return 0; } static WebCore::FrameLoadRequest frameLoadRequest(const QUrl &url, WebCore::Frame *frame) { WebCore::ResourceRequest rr(url, frame->loader()->outgoingReferrer()); return WebCore::FrameLoadRequest(rr); } static void openNewWindow(const QUrl& url, WebCore::Frame* frame) { if (Page* oldPage = frame->page()) { WindowFeatures features; if (Page* newPage = oldPage->chrome()->createWindow(frame, frameLoadRequest(url, frame), features)) newPage->chrome()->show(); } } static void collectChildFrames(QWebFrame* frame, QList<QWebFrame*>& list) { list << frame->childFrames(); QListIterator<QWebFrame*> it(frame->childFrames()); while (it.hasNext()) { collectChildFrames(it.next(), list); } } /*! This function can be called to trigger the specified \a action. It is also called by QtWebKit if the user triggers the action, for example through a context menu item. If \a action is a checkable action then \a checked specified whether the action is toggled or not. \sa action() */ void QWebPage::triggerAction(WebAction action, bool) { WebCore::Frame *frame = d->page->focusController()->focusedOrMainFrame(); if (!frame) return; WebCore::Editor *editor = frame->editor(); const char *command = 0; switch (action) { case OpenLink: if (QWebFrame *targetFrame = d->hitTestResult.linkTargetFrame()) { WTF::RefPtr<WebCore::Frame> wcFrame = targetFrame->d->frame; targetFrame->d->frame->loader()->loadFrameRequest(frameLoadRequest(d->hitTestResult.linkUrl(), wcFrame.get()), /*lockHistory*/ false, /*lockBackForwardList*/ false, /*event*/ 0, /*FormState*/ 0, SendReferrer); break; } // fall through case OpenLinkInNewWindow: openNewWindow(d->hitTestResult.linkUrl(), frame); break; case OpenFrameInNewWindow: { KURL url = frame->loader()->documentLoader()->unreachableURL(); if (url.isEmpty()) url = frame->loader()->documentLoader()->url(); openNewWindow(url, frame); break; } case CopyLinkToClipboard: { #if defined(Q_WS_X11) bool oldSelectionMode = Pasteboard::generalPasteboard()->isSelectionMode(); Pasteboard::generalPasteboard()->setSelectionMode(true); editor->copyURL(d->hitTestResult.linkUrl(), d->hitTestResult.linkText()); Pasteboard::generalPasteboard()->setSelectionMode(oldSelectionMode); #endif editor->copyURL(d->hitTestResult.linkUrl(), d->hitTestResult.linkText()); break; } case OpenImageInNewWindow: openNewWindow(d->hitTestResult.imageUrl(), frame); break; case DownloadImageToDisk: frame->loader()->client()->startDownload(WebCore::ResourceRequest(d->hitTestResult.imageUrl(), frame->loader()->outgoingReferrer())); break; case DownloadLinkToDisk: frame->loader()->client()->startDownload(WebCore::ResourceRequest(d->hitTestResult.linkUrl(), frame->loader()->outgoingReferrer())); break; #ifndef QT_NO_CLIPBOARD case CopyImageToClipboard: QApplication::clipboard()->setPixmap(d->hitTestResult.pixmap()); break; #endif case Back: d->page->goBack(); break; case Forward: d->page->goForward(); break; case Stop: mainFrame()->d->frame->loader()->stopForUserCancel(); break; case Reload: mainFrame()->d->frame->loader()->reload(/*endtoendreload*/false); break; case ReloadAndBypassCache: mainFrame()->d->frame->loader()->reload(/*endtoendreload*/true); break; case SetTextDirectionDefault: editor->setBaseWritingDirection(NaturalWritingDirection); break; case SetTextDirectionLeftToRight: editor->setBaseWritingDirection(LeftToRightWritingDirection); break; case SetTextDirectionRightToLeft: editor->setBaseWritingDirection(RightToLeftWritingDirection); break; case InspectElement: { #if ENABLE(INSPECTOR) if (!d->hitTestResult.isNull()) { d->getOrCreateInspector(); // Make sure the inspector is created d->inspector->show(); // The inspector is expected to be shown on inspection d->page->inspectorController()->inspect(d->hitTestResult.d->innerNonSharedNode.get()); } #endif break; } case StopScheduledPageRefresh: { QWebFrame* topFrame = mainFrame(); topFrame->d->frame->redirectScheduler()->cancel(); QList<QWebFrame*> childFrames; collectChildFrames(topFrame, childFrames); QListIterator<QWebFrame*> it(childFrames); while (it.hasNext()) it.next()->d->frame->redirectScheduler()->cancel(); break; } default: command = QWebPagePrivate::editorCommandForWebActions(action); break; } if (command) editor->command(command).execute(); } QSize QWebPage::viewportSize() const { if (d->mainFrame && d->mainFrame->d->frame->view()) return d->mainFrame->d->frame->view()->frameRect().size(); return d->viewportSize; } /*! \property QWebPage::viewportSize \brief the size of the viewport The size affects for example the visibility of scrollbars if the document is larger than the viewport. By default, for a newly-created Web page, this property contains a size with zero width and height. \sa QWebFrame::render(), preferredContentsSize */ void QWebPage::setViewportSize(const QSize &size) const { d->viewportSize = size; QWebFrame *frame = mainFrame(); if (frame->d->frame && frame->d->frame->view()) { WebCore::FrameView* view = frame->d->frame->view(); view->setFrameRect(QRect(QPoint(0, 0), size)); view->adjustViewSize(); } } QWebPage::ViewportConfiguration QWebPage::viewportConfigurationForSize(QSize availableSize) const { static int desktopWidth = 980; static int deviceDPI = 160; FloatRect rect = d->page->chrome()->windowRect(); int deviceWidth = rect.width(); int deviceHeight = rect.height(); WebCore::ViewportConfiguration conf = WebCore::findConfigurationForViewportData(mainFrame()->d->viewportArguments, desktopWidth, deviceWidth, deviceHeight, deviceDPI, availableSize); ViewportConfiguration result; result.m_isValid = true; result.m_size = conf.layoutViewport; result.m_initialScaleFactor = conf.initialScale; result.m_minimumScaleFactor = conf.minimumScale; result.m_maximumScaleFactor = conf.maximumScale; result.m_devicePixelRatio = conf.devicePixelRatio; return result; } QSize QWebPage::preferredContentsSize() const { QWebFrame* frame = d->mainFrame; if (frame) { WebCore::FrameView* view = frame->d->frame->view(); if (view && view->useFixedLayout()) return d->mainFrame->d->frame->view()->fixedLayoutSize(); } return d->fixedLayoutSize; } /*! \property QWebPage::preferredContentsSize \since 4.6 \brief a custom size used for laying out the page contents. By default all pages are laid out using the viewport of the page as the base. As pages mostly are designed for desktop usage, they often do not layout properly on small devices as the contents require a certain view width. For this reason it is common to use a different layout size and then scale the contents to fit within the actual view. If this property is set to a valid size, this size is used for all layout needs instead of the size of the viewport. Setting an invalid size, makes the page fall back to using the viewport size for layout. \sa viewportSize */ void QWebPage::setPreferredContentsSize(const QSize& size) const { // FIXME: Rename this method to setCustomLayoutSize d->fixedLayoutSize = size; QWebFrame* frame = mainFrame(); if (!frame->d->frame || !frame->d->frame->view()) return; WebCore::FrameView* view = frame->d->frame->view(); if (size.isValid()) { view->setUseFixedLayout(true); view->setFixedLayoutSize(size); } else if (view->useFixedLayout()) view->setUseFixedLayout(false); view->layout(); } /*! \fn bool QWebPage::acceptNavigationRequest(QWebFrame *frame, const QNetworkRequest &request, QWebPage::NavigationType type) This function is called whenever WebKit requests to navigate \a frame to the resource specified by \a request by means of the specified navigation type \a type. If \a frame is a null pointer then navigation to a new window is requested. If the request is accepted createWindow() will be called. The default implementation interprets the page's linkDelegationPolicy and emits linkClicked accordingly or returns true to let QWebPage handle the navigation itself. \sa createWindow() */ bool QWebPage::acceptNavigationRequest(QWebFrame *frame, const QNetworkRequest &request, QWebPage::NavigationType type) { Q_UNUSED(frame) if (type == NavigationTypeLinkClicked) { switch (d->linkPolicy) { case DontDelegateLinks: return true; case DelegateExternalLinks: if (WebCore::SchemeRegistry::shouldTreatURLSchemeAsLocal(request.url().scheme())) return true; emit linkClicked(request.url()); return false; case DelegateAllLinks: emit linkClicked(request.url()); return false; } } return true; } /*! \property QWebPage::selectedText \brief the text currently selected By default, this property contains an empty string. \sa selectionChanged() */ QString QWebPage::selectedText() const { d->createMainFrame(); return d->page->focusController()->focusedOrMainFrame()->editor()->selectedText(); } #ifndef QT_NO_ACTION /*! Returns a QAction for the specified WebAction \a action. The action is owned by the QWebPage but you can customize the look by changing its properties. QWebPage also takes care of implementing the action, so that upon triggering the corresponding action is performed on the page. \sa triggerAction() */ QAction *QWebPage::action(WebAction action) const { if (action == QWebPage::NoWebAction) return 0; if (d->actions[action]) return d->actions[action]; QString text; QIcon icon; QStyle *style = d->client ? d->client->style() : qApp->style(); bool checkable = false; switch (action) { case OpenLink: text = contextMenuItemTagOpenLink(); break; case OpenLinkInNewWindow: text = contextMenuItemTagOpenLinkInNewWindow(); break; case OpenFrameInNewWindow: text = contextMenuItemTagOpenFrameInNewWindow(); break; case DownloadLinkToDisk: text = contextMenuItemTagDownloadLinkToDisk(); break; case CopyLinkToClipboard: text = contextMenuItemTagCopyLinkToClipboard(); break; case OpenImageInNewWindow: text = contextMenuItemTagOpenImageInNewWindow(); break; case DownloadImageToDisk: text = contextMenuItemTagDownloadImageToDisk(); break; case CopyImageToClipboard: text = contextMenuItemTagCopyImageToClipboard(); break; case Back: text = contextMenuItemTagGoBack(); icon = style->standardIcon(QStyle::SP_ArrowBack); break; case Forward: text = contextMenuItemTagGoForward(); icon = style->standardIcon(QStyle::SP_ArrowForward); break; case Stop: text = contextMenuItemTagStop(); icon = style->standardIcon(QStyle::SP_BrowserStop); break; case Reload: text = contextMenuItemTagReload(); icon = style->standardIcon(QStyle::SP_BrowserReload); break; case Cut: text = contextMenuItemTagCut(); break; case Copy: text = contextMenuItemTagCopy(); break; case Paste: text = contextMenuItemTagPaste(); break; #ifndef QT_NO_UNDOSTACK case Undo: { QAction *a = undoStack()->createUndoAction(d->q); d->actions[action] = a; return a; } case Redo: { QAction *a = undoStack()->createRedoAction(d->q); d->actions[action] = a; return a; } #endif // QT_NO_UNDOSTACK case MoveToNextChar: text = tr("Move the cursor to the next character"); break; case MoveToPreviousChar: text = tr("Move the cursor to the previous character"); break; case MoveToNextWord: text = tr("Move the cursor to the next word"); break; case MoveToPreviousWord: text = tr("Move the cursor to the previous word"); break; case MoveToNextLine: text = tr("Move the cursor to the next line"); break; case MoveToPreviousLine: text = tr("Move the cursor to the previous line"); break; case MoveToStartOfLine: text = tr("Move the cursor to the start of the line"); break; case MoveToEndOfLine: text = tr("Move the cursor to the end of the line"); break; case MoveToStartOfBlock: text = tr("Move the cursor to the start of the block"); break; case MoveToEndOfBlock: text = tr("Move the cursor to the end of the block"); break; case MoveToStartOfDocument: text = tr("Move the cursor to the start of the document"); break; case MoveToEndOfDocument: text = tr("Move the cursor to the end of the document"); break; case SelectAll: text = tr("Select all"); break; case SelectNextChar: text = tr("Select to the next character"); break; case SelectPreviousChar: text = tr("Select to the previous character"); break; case SelectNextWord: text = tr("Select to the next word"); break; case SelectPreviousWord: text = tr("Select to the previous word"); break; case SelectNextLine: text = tr("Select to the next line"); break; case SelectPreviousLine: text = tr("Select to the previous line"); break; case SelectStartOfLine: text = tr("Select to the start of the line"); break; case SelectEndOfLine: text = tr("Select to the end of the line"); break; case SelectStartOfBlock: text = tr("Select to the start of the block"); break; case SelectEndOfBlock: text = tr("Select to the end of the block"); break; case SelectStartOfDocument: text = tr("Select to the start of the document"); break; case SelectEndOfDocument: text = tr("Select to the end of the document"); break; case DeleteStartOfWord: text = tr("Delete to the start of the word"); break; case DeleteEndOfWord: text = tr("Delete to the end of the word"); break; case SetTextDirectionDefault: text = contextMenuItemTagDefaultDirection(); break; case SetTextDirectionLeftToRight: text = contextMenuItemTagLeftToRight(); checkable = true; break; case SetTextDirectionRightToLeft: text = contextMenuItemTagRightToLeft(); checkable = true; break; case ToggleBold: text = contextMenuItemTagBold(); checkable = true; break; case ToggleItalic: text = contextMenuItemTagItalic(); checkable = true; break; case ToggleUnderline: text = contextMenuItemTagUnderline(); checkable = true; break; case InspectElement: text = contextMenuItemTagInspectElement(); break; case InsertParagraphSeparator: text = tr("Insert a new paragraph"); break; case InsertLineSeparator: text = tr("Insert a new line"); break; case PasteAndMatchStyle: text = tr("Paste and Match Style"); break; case RemoveFormat: text = tr("Remove formatting"); break; case ToggleStrikethrough: text = tr("Strikethrough"); checkable = true; break; case ToggleSubscript: text = tr("Subscript"); checkable = true; break; case ToggleSuperscript: text = tr("Superscript"); checkable = true; break; case InsertUnorderedList: text = tr("Insert Bulleted List"); checkable = true; break; case InsertOrderedList: text = tr("Insert Numbered List"); checkable = true; break; case Indent: text = tr("Indent"); break; case Outdent: text = tr("Outdent"); break; case AlignCenter: text = tr("Center"); break; case AlignJustified: text = tr("Justify"); break; case AlignLeft: text = tr("Align Left"); break; case AlignRight: text = tr("Align Right"); break; case NoWebAction: return 0; } if (text.isEmpty()) return 0; QAction *a = new QAction(d->q); a->setText(text); a->setData(action); a->setCheckable(checkable); a->setIcon(icon); connect(a, SIGNAL(triggered(bool)), this, SLOT(_q_webActionTriggered(bool))); d->actions[action] = a; d->updateAction(action); return a; } #endif // QT_NO_ACTION /*! \property QWebPage::modified \brief whether the page contains unsubmitted form data, or the contents have been changed. By default, this property is false. \sa contentsChanged(), contentEditable, undoStack() */ bool QWebPage::isModified() const { #ifdef QT_NO_UNDOSTACK return false; #else if (!d->undoStack) return false; return d->undoStack->canUndo(); #endif // QT_NO_UNDOSTACK } #ifndef QT_NO_UNDOSTACK /*! Returns a pointer to the undo stack used for editable content. \sa modified */ QUndoStack *QWebPage::undoStack() const { if (!d->undoStack) d->undoStack = new QUndoStack(const_cast<QWebPage *>(this)); return d->undoStack; } #endif // QT_NO_UNDOSTACK /*! \reimp */ bool QWebPage::event(QEvent *ev) { switch (ev->type()) { case QEvent::Timer: d->timerEvent(static_cast<QTimerEvent*>(ev)); break; case QEvent::MouseMove: d->mouseMoveEvent(static_cast<QMouseEvent*>(ev)); break; case QEvent::GraphicsSceneMouseMove: d->mouseMoveEvent(static_cast<QGraphicsSceneMouseEvent*>(ev)); break; case QEvent::MouseButtonPress: d->mousePressEvent(static_cast<QMouseEvent*>(ev)); break; case QEvent::GraphicsSceneMousePress: d->mousePressEvent(static_cast<QGraphicsSceneMouseEvent*>(ev)); break; case QEvent::MouseButtonDblClick: d->mouseDoubleClickEvent(static_cast<QMouseEvent*>(ev)); break; case QEvent::GraphicsSceneMouseDoubleClick: d->mouseDoubleClickEvent(static_cast<QGraphicsSceneMouseEvent*>(ev)); break; case QEvent::MouseButtonRelease: d->mouseReleaseEvent(static_cast<QMouseEvent*>(ev)); break; case QEvent::GraphicsSceneMouseRelease: d->mouseReleaseEvent(static_cast<QGraphicsSceneMouseEvent*>(ev)); break; #ifndef QT_NO_CONTEXTMENU case QEvent::ContextMenu: d->contextMenuEvent(static_cast<QContextMenuEvent*>(ev)->globalPos()); break; case QEvent::GraphicsSceneContextMenu: d->contextMenuEvent(static_cast<QGraphicsSceneContextMenuEvent*>(ev)->screenPos()); break; #endif #ifndef QT_NO_WHEELEVENT case QEvent::Wheel: d->wheelEvent(static_cast<QWheelEvent*>(ev)); break; case QEvent::GraphicsSceneWheel: d->wheelEvent(static_cast<QGraphicsSceneWheelEvent*>(ev)); break; #endif case QEvent::KeyPress: d->keyPressEvent(static_cast<QKeyEvent*>(ev)); break; case QEvent::KeyRelease: d->keyReleaseEvent(static_cast<QKeyEvent*>(ev)); break; case QEvent::FocusIn: d->focusInEvent(static_cast<QFocusEvent*>(ev)); break; case QEvent::FocusOut: d->focusOutEvent(static_cast<QFocusEvent*>(ev)); break; #ifndef QT_NO_DRAGANDDROP case QEvent::DragEnter: d->dragEnterEvent(static_cast<QDragEnterEvent*>(ev)); break; case QEvent::GraphicsSceneDragEnter: d->dragEnterEvent(static_cast<QGraphicsSceneDragDropEvent*>(ev)); break; case QEvent::DragLeave: d->dragLeaveEvent(static_cast<QDragLeaveEvent*>(ev)); break; case QEvent::GraphicsSceneDragLeave: d->dragLeaveEvent(static_cast<QGraphicsSceneDragDropEvent*>(ev)); break; case QEvent::DragMove: d->dragMoveEvent(static_cast<QDragMoveEvent*>(ev)); break; case QEvent::GraphicsSceneDragMove: d->dragMoveEvent(static_cast<QGraphicsSceneDragDropEvent*>(ev)); break; case QEvent::Drop: d->dropEvent(static_cast<QDropEvent*>(ev)); break; case QEvent::GraphicsSceneDrop: d->dropEvent(static_cast<QGraphicsSceneDragDropEvent*>(ev)); break; #endif case QEvent::InputMethod: d->inputMethodEvent(static_cast<QInputMethodEvent*>(ev)); case QEvent::ShortcutOverride: d->shortcutOverrideEvent(static_cast<QKeyEvent*>(ev)); break; case QEvent::Leave: d->leaveEvent(ev); break; #if QT_VERSION >= QT_VERSION_CHECK(4, 6, 0) case QEvent::TouchBegin: case QEvent::TouchUpdate: case QEvent::TouchEnd: // Return whether the default action was cancelled in the JS event handler return d->touchEvent(static_cast<QTouchEvent*>(ev)); #endif #ifndef QT_NO_PROPERTIES case QEvent::DynamicPropertyChange: d->dynamicPropertyChangeEvent(static_cast<QDynamicPropertyChangeEvent*>(ev)); break; #endif default: return QObject::event(ev); } return true; } /*! Similar to QWidget::focusNextPrevChild() it focuses the next focusable web element if \a next is true; otherwise the previous element is focused. Returns true if it can find a new focusable element, or false if it can't. */ bool QWebPage::focusNextPrevChild(bool next) { QKeyEvent ev(QEvent::KeyPress, Qt::Key_Tab, Qt::KeyboardModifiers(next ? Qt::NoModifier : Qt::ShiftModifier)); d->keyPressEvent(&ev); bool hasFocusedNode = false; Frame *frame = d->page->focusController()->focusedFrame(); if (frame) { Document *document = frame->document(); hasFocusedNode = document && document->focusedNode(); } //qDebug() << "focusNextPrevChild(" << next << ") =" << ev.isAccepted() << "focusedNode?" << hasFocusedNode; return hasFocusedNode; } /*! \property QWebPage::contentEditable \brief whether the content in this QWebPage is editable or not \since 4.5 If this property is enabled the contents of the page can be edited by the user through a visible cursor. If disabled (the default) only HTML elements in the web page with their \c{contenteditable} attribute set are editable. \sa modified, contentsChanged(), WebAction */ void QWebPage::setContentEditable(bool editable) { if (d->editable != editable) { d->editable = editable; d->page->setTabKeyCyclesThroughElements(!editable); if (d->mainFrame) { WebCore::Frame* frame = d->mainFrame->d->frame; if (editable) { frame->editor()->applyEditingStyleToBodyElement(); // FIXME: mac port calls this if there is no selectedDOMRange //frame->setSelectionFromNone(); } } d->updateEditorActions(); } } bool QWebPage::isContentEditable() const { return d->editable; } /*! \property QWebPage::forwardUnsupportedContent \brief whether QWebPage should forward unsupported content If enabled, the unsupportedContent() signal is emitted with a network reply that can be used to read the content. If disabled, the download of such content is aborted immediately. By default unsupported content is not forwarded. */ void QWebPage::setForwardUnsupportedContent(bool forward) { d->forwardUnsupportedContent = forward; } bool QWebPage::forwardUnsupportedContent() const { return d->forwardUnsupportedContent; } /*! \property QWebPage::linkDelegationPolicy \brief how QWebPage should delegate the handling of links through the linkClicked() signal The default is to delegate no links. */ void QWebPage::setLinkDelegationPolicy(LinkDelegationPolicy policy) { d->linkPolicy = policy; } QWebPage::LinkDelegationPolicy QWebPage::linkDelegationPolicy() const { return d->linkPolicy; } #ifndef QT_NO_CONTEXTMENU /*! Filters the context menu event, \a event, through handlers for scrollbars and custom event handlers in the web page. Returns true if the event was handled; otherwise false. A web page may swallow a context menu event through a custom event handler, allowing for context menus to be implemented in HTML/JavaScript. This is used by \l{http://maps.google.com/}{Google Maps}, for example. */ bool QWebPage::swallowContextMenuEvent(QContextMenuEvent *event) { d->page->contextMenuController()->clearContextMenu(); if (QWebFrame* webFrame = frameAt(event->pos())) { Frame* frame = QWebFramePrivate::core(webFrame); if (Scrollbar* scrollbar = frame->view()->scrollbarAtPoint(PlatformMouseEvent(event, 1).pos())) return scrollbar->contextMenu(PlatformMouseEvent(event, 1)); } WebCore::Frame* focusedFrame = d->page->focusController()->focusedOrMainFrame(); focusedFrame->eventHandler()->sendContextMenuEvent(PlatformMouseEvent(event, 1)); ContextMenu *menu = d->page->contextMenuController()->contextMenu(); // If the website defines its own handler then sendContextMenuEvent takes care of // calling/showing it and the context menu pointer will be zero. This is the case // on maps.google.com for example. return !menu; } #endif // QT_NO_CONTEXTMENU /*! Updates the page's actions depending on the position \a pos. For example if \a pos is over an image element the CopyImageToClipboard action is enabled. */ void QWebPage::updatePositionDependentActions(const QPoint &pos) { #ifndef QT_NO_ACTION // First we disable all actions, but keep track of which ones were originally enabled. QBitArray originallyEnabledWebActions(QWebPage::WebActionCount); for (int i = ContextMenuItemTagNoAction; i < ContextMenuItemBaseApplicationTag; ++i) { QWebPage::WebAction action = webActionForContextMenuAction(WebCore::ContextMenuAction(i)); if (QAction *a = this->action(action)) { originallyEnabledWebActions.setBit(action, a->isEnabled()); a->setEnabled(false); } } #endif // QT_NO_ACTION d->createMainFrame(); WebCore::Frame* focusedFrame = d->page->focusController()->focusedOrMainFrame(); HitTestResult result = focusedFrame->eventHandler()->hitTestResultAtPoint(focusedFrame->view()->windowToContents(pos), /*allowShadowContent*/ false); if (result.scrollbar()) d->hitTestResult = QWebHitTestResult(); else d->hitTestResult = QWebHitTestResult(new QWebHitTestResultPrivate(result)); WebCore::ContextMenu menu(result); menu.populate(); #if ENABLE(INSPECTOR) if (d->page->inspectorController()->enabled()) menu.addInspectElementItem(); #endif QBitArray visitedWebActions(QWebPage::WebActionCount); #ifndef QT_NO_CONTEXTMENU delete d->currentContextMenu; // Then we let createContextMenu() enable the actions that are put into the menu d->currentContextMenu = d->createContextMenu(&menu, menu.platformDescription(), &visitedWebActions); #endif // QT_NO_CONTEXTMENU #ifndef QT_NO_ACTION // Finally, we restore the original enablement for the actions that were not put into the menu. originallyEnabledWebActions &= ~visitedWebActions; // Mask out visited actions (they're part of the menu) for (int i = 0; i < QWebPage::WebActionCount; ++i) { if (originallyEnabledWebActions.at(i)) { if (QAction *a = this->action(QWebPage::WebAction(i))) a->setEnabled(true); } } #endif // QT_NO_ACTION // This whole process ensures that any actions put into to the context menu has the right // enablement, while also keeping the correct enablement for actions that were left out of // the menu. } /*! \enum QWebPage::Extension This enum describes the types of extensions that the page can support. Before using these extensions, you should verify that the extension is supported by calling supportsExtension(). \value ChooseMultipleFilesExtension Whether the web page supports multiple file selection. This extension is invoked when the web content requests one or more file names, for example as a result of the user clicking on a "file upload" button in a HTML form where multiple file selection is allowed. \value ErrorPageExtension Whether the web page can provide an error page when loading fails. (introduced in Qt 4.6) \sa ChooseMultipleFilesExtensionOption, ChooseMultipleFilesExtensionReturn, ErrorPageExtensionOption, ErrorPageExtensionReturn */ /*! \enum QWebPage::ErrorDomain \since 4.6 This enum describes the domain of an ErrorPageExtensionOption object (i.e. the layer in which the error occurred). \value QtNetwork The error occurred in the QtNetwork layer; the error code is of type QNetworkReply::NetworkError. \value Http The error occurred in the HTTP layer; the error code is a HTTP status code (see QNetworkRequest::HttpStatusCodeAttribute). \value WebKit The error is an internal WebKit error. */ /*! \class QWebPage::ExtensionOption \since 4.4 \brief The ExtensionOption class provides an extended input argument to QWebPage's extension support. \inmodule QtWebKit \sa QWebPage::extension() QWebPage::ExtensionReturn */ /*! \class QWebPage::ExtensionReturn \since 4.4 \brief The ExtensionReturn class provides an output result from a QWebPage's extension. \inmodule QtWebKit \sa QWebPage::extension() QWebPage::ExtensionOption */ /*! \class QWebPage::ErrorPageExtensionOption \since 4.6 \brief The ErrorPageExtensionOption class describes the option for the error page extension. \inmodule QtWebKit The ErrorPageExtensionOption class holds the \a url for which an error occurred as well as the associated \a frame. The error itself is reported by an error \a domain, the \a error code as well as \a errorString. \sa QWebPage::extension() QWebPage::ErrorPageExtensionReturn */ /*! \variable QWebPage::ErrorPageExtensionOption::url \brief the url for which an error occurred */ /*! \variable QWebPage::ErrorPageExtensionOption::frame \brief the frame associated with the error */ /*! \variable QWebPage::ErrorPageExtensionOption::domain \brief the domain that reported the error */ /*! \variable QWebPage::ErrorPageExtensionOption::error \brief the error code. Interpretation of the value depends on the \a domain \sa QWebPage::ErrorDomain */ /*! \variable QWebPage::ErrorPageExtensionOption::errorString \brief a string that describes the error */ /*! \class QWebPage::ErrorPageExtensionReturn \since 4.6 \brief The ErrorPageExtensionReturn describes the error page, which will be shown for the frame for which the error occured. \inmodule QtWebKit The ErrorPageExtensionReturn class holds the data needed for creating an error page. Some are optional such as \a contentType, which defaults to "text/html", as well as the \a encoding, which is assumed to be UTF-8 if not indicated otherwise. The error page is stored in the \a content byte array, as HTML content. In order to convert a QString to a byte array, the QString::toUtf8() method can be used. External objects such as stylesheets or images referenced in the HTML are located relative to \a baseUrl. \sa QWebPage::extension() QWebPage::ErrorPageExtensionOption, QString::toUtf8() */ /*! \fn QWebPage::ErrorPageExtensionReturn::ErrorPageExtensionReturn() Constructs a new error page object. */ /*! \variable QWebPage::ErrorPageExtensionReturn::contentType \brief the error page's content type */ /*! \variable QWebPage::ErrorPageExtensionReturn::encoding \brief the error page encoding */ /*! \variable QWebPage::ErrorPageExtensionReturn::baseUrl \brief the base url External objects such as stylesheets or images referenced in the HTML are located relative to this url. */ /*! \variable QWebPage::ErrorPageExtensionReturn::content \brief the HTML content of the error page */ /*! \class QWebPage::ChooseMultipleFilesExtensionOption \since 4.5 \brief The ChooseMultipleFilesExtensionOption class describes the option for the multiple files selection extension. \inmodule QtWebKit The ChooseMultipleFilesExtensionOption class holds the frame originating the request and the suggested filenames which might be provided. \sa QWebPage::extension() QWebPage::chooseFile(), QWebPage::ChooseMultipleFilesExtensionReturn */ /*! \variable QWebPage::ChooseMultipleFilesExtensionOption::parentFrame \brief The frame in which the request originated */ /*! \variable QWebPage::ChooseMultipleFilesExtensionOption::suggestedFileNames \brief The suggested filenames */ /*! \variable QWebPage::ChooseMultipleFilesExtensionReturn::fileNames \brief The selected filenames */ /*! \class QWebPage::ChooseMultipleFilesExtensionReturn \since 4.5 \brief The ChooseMultipleFilesExtensionReturn describes the return value for the multiple files selection extension. \inmodule QtWebKit The ChooseMultipleFilesExtensionReturn class holds the filenames selected by the user when the extension is invoked. \sa QWebPage::extension() QWebPage::ChooseMultipleFilesExtensionOption */ /*! This virtual function can be reimplemented in a QWebPage subclass to provide support for extensions. The \a option argument is provided as input to the extension; the output results can be stored in \a output. The behavior of this function is determined by \a extension. The \a option and \a output values are typically casted to the corresponding types (for example, ChooseMultipleFilesExtensionOption and ChooseMultipleFilesExtensionReturn for ChooseMultipleFilesExtension). You can call supportsExtension() to check if an extension is supported by the page. Returns true if the extension was called successfully; otherwise returns false. \sa supportsExtension(), Extension */ bool QWebPage::extension(Extension extension, const ExtensionOption *option, ExtensionReturn *output) { #ifndef QT_NO_FILEDIALOG if (extension == ChooseMultipleFilesExtension) { // FIXME: do not ignore suggestedFiles QStringList suggestedFiles = static_cast<const ChooseMultipleFilesExtensionOption*>(option)->suggestedFileNames; QWidget* parent = (d->client) ? d->client->ownerWidget() : 0; QStringList names = QFileDialog::getOpenFileNames(parent, QString::null); static_cast<ChooseMultipleFilesExtensionReturn*>(output)->fileNames = names; return true; } #endif return false; } /*! This virtual function returns true if the web page supports \a extension; otherwise false is returned. \sa extension() */ bool QWebPage::supportsExtension(Extension extension) const { #ifndef QT_NO_FILEDIALOG return extension == ChooseMultipleFilesExtension; #else Q_UNUSED(extension); return false; #endif } /*! Finds the specified string, \a subString, in the page, using the given \a options. If the HighlightAllOccurrences flag is passed, the function will highlight all occurrences that exist in the page. All subsequent calls will extend the highlight, rather than replace it, with occurrences of the new string. If the HighlightAllOccurrences flag is not passed, the function will select an occurrence and all subsequent calls will replace the current occurrence with the next one. To clear the selection, just pass an empty string. Returns true if \a subString was found; otherwise returns false. */ bool QWebPage::findText(const QString &subString, FindFlags options) { ::TextCaseSensitivity caseSensitivity = ::TextCaseInsensitive; if (options & FindCaseSensitively) caseSensitivity = ::TextCaseSensitive; if (options & HighlightAllOccurrences) { if (subString.isEmpty()) { d->page->unmarkAllTextMatches(); return true; } else return d->page->markAllMatchesForText(subString, caseSensitivity, true, 0); } else { if (subString.isEmpty()) { d->page->mainFrame()->selection()->clear(); Frame* frame = d->page->mainFrame()->tree()->firstChild(); while (frame) { frame->selection()->clear(); frame = frame->tree()->traverseNextWithWrap(false); } } ::FindDirection direction = ::FindDirectionForward; if (options & FindBackward) direction = ::FindDirectionBackward; const bool shouldWrap = options & FindWrapsAroundDocument; return d->page->findString(subString, caseSensitivity, direction, shouldWrap); } } /*! Returns a pointer to the page's settings object. \sa QWebSettings::globalSettings() */ QWebSettings *QWebPage::settings() const { return d->settings; } /*! This function is called when the web content requests a file name, for example as a result of the user clicking on a "file upload" button in a HTML form. A suggested filename may be provided in \a suggestedFile. The frame originating the request is provided as \a parentFrame. \sa ChooseMultipleFilesExtension */ QString QWebPage::chooseFile(QWebFrame *parentFrame, const QString& suggestedFile) { Q_UNUSED(parentFrame) #ifndef QT_NO_FILEDIALOG QWidget* parent = (d->client) ? d->client->ownerWidget() : 0; return QFileDialog::getOpenFileName(parent, QString::null, suggestedFile); #else return QString::null; #endif } /*! Sets the QNetworkAccessManager \a manager responsible for serving network requests for this QWebPage. \note It is currently not supported to change the network access manager after the QWebPage has used it. The results of doing this are undefined. \sa networkAccessManager() */ void QWebPage::setNetworkAccessManager(QNetworkAccessManager *manager) { if (manager == d->networkManager) return; if (d->networkManager && d->networkManager->parent() == this) delete d->networkManager; d->networkManager = manager; } /*! Returns the QNetworkAccessManager that is responsible for serving network requests for this QWebPage. \sa setNetworkAccessManager() */ QNetworkAccessManager *QWebPage::networkAccessManager() const { if (!d->networkManager) { QWebPage *that = const_cast<QWebPage *>(this); that->d->networkManager = new QNetworkAccessManager(that); } return d->networkManager; } /*! Sets the QWebPluginFactory \a factory responsible for creating plugins embedded into this QWebPage. Note: The plugin factory is only used if the QWebSettings::PluginsEnabled attribute is enabled. \sa pluginFactory() */ void QWebPage::setPluginFactory(QWebPluginFactory *factory) { d->pluginFactory = factory; } /*! Returns the QWebPluginFactory that is responsible for creating plugins embedded into this QWebPage. If no plugin factory is installed a null pointer is returned. \sa setPluginFactory() */ QWebPluginFactory *QWebPage::pluginFactory() const { return d->pluginFactory; } /*! This function is called when a user agent for HTTP requests is needed. You can reimplement this function to dynamically return different user agents for different URLs, based on the \a url parameter. The default implementation returns the following value: "Mozilla/5.0 (%Platform%; %Security%; %Subplatform%; %Locale%) AppleWebKit/%WebKitVersion% (KHTML, like Gecko) %AppVersion Safari/%WebKitVersion%" On mobile platforms such as Symbian S60 and Maemo, "Mobile Safari" is used instead of "Safari". In this string the following values are replaced at run-time: \list \o %Platform% and %Subplatform% are expanded to the windowing system and the operation system. \o %Security% expands to U if SSL is enabled, otherwise N. SSL is enabled if QSslSocket::supportsSsl() returns true. \o %Locale% is replaced with QLocale::name(). The locale is determined from the view of the QWebPage. If no view is set on the QWebPage, then a default constructed QLocale is used instead. \o %WebKitVersion% is the version of WebKit the application was compiled against. \o %AppVersion% expands to QCoreApplication::applicationName()/QCoreApplication::applicationVersion() if they're set; otherwise defaulting to Qt and the current Qt version. \endlist */ QString QWebPage::userAgentForUrl(const QUrl&) const { // splitting the string in three and user QStringBuilder is better than using QString::arg() static QString firstPart; static QString secondPart; static QString thirdPart; if (firstPart.isNull() || secondPart.isNull() || thirdPart.isNull()) { QString firstPartTemp; firstPartTemp.reserve(150); firstPartTemp += QString::fromLatin1("Mozilla/5.0 (" // Platform #ifdef Q_WS_MAC "Macintosh" #elif defined Q_WS_QWS "QtEmbedded" #elif defined Q_WS_WIN "Windows" #elif defined Q_WS_X11 "X11" #elif defined Q_OS_SYMBIAN "Symbian" #else "Unknown" #endif ); #if defined Q_OS_SYMBIAN QSysInfo::SymbianVersion symbianVersion = QSysInfo::symbianVersion(); switch (symbianVersion) { case QSysInfo::SV_9_2: firstPartTemp += QString::fromLatin1("OS/9.2"); break; case QSysInfo::SV_9_3: firstPartTemp += QString::fromLatin1("OS/9.3"); break; case QSysInfo::SV_9_4: firstPartTemp += QString::fromLatin1("OS/9.4"); break; case QSysInfo::SV_SF_2: firstPartTemp += QString::fromLatin1("/2"); break; case QSysInfo::SV_SF_3: firstPartTemp += QString::fromLatin1("/3"); break; case QSysInfo::SV_SF_4: firstPartTemp += QString::fromLatin1("/4"); default: break; } #endif firstPartTemp += QString::fromLatin1("; "); // SSL support #if !defined(QT_NO_OPENSSL) // we could check QSslSocket::supportsSsl() here, but this makes // OpenSSL, certificates etc being loaded in all cases were QWebPage // is used. This loading is not needed for non-https. firstPartTemp += QString::fromLatin1("U; "); // this may lead to a false positive: We indicate SSL since it is // compiled in even though supportsSsl() might return false #else firstPartTemp += QString::fromLatin1("N; "); #endif // Operating system #ifdef Q_OS_AIX firstPartTemp += QString::fromLatin1("AIX"); #elif defined Q_OS_WIN32 switch (QSysInfo::WindowsVersion) { case QSysInfo::WV_32s: firstPartTemp += QString::fromLatin1("Windows 3.1"); break; case QSysInfo::WV_95: firstPartTemp += QString::fromLatin1("Windows 95"); break; case QSysInfo::WV_98: firstPartTemp += QString::fromLatin1("Windows 98"); break; case QSysInfo::WV_Me: firstPartTemp += QString::fromLatin1("Windows 98; Win 9x 4.90"); break; case QSysInfo::WV_NT: firstPartTemp += QString::fromLatin1("WinNT4.0"); break; case QSysInfo::WV_2000: firstPartTemp += QString::fromLatin1("Windows NT 5.0"); break; case QSysInfo::WV_XP: firstPartTemp += QString::fromLatin1("Windows NT 5.1"); break; case QSysInfo::WV_2003: firstPartTemp += QString::fromLatin1("Windows NT 5.2"); break; case QSysInfo::WV_VISTA: firstPartTemp += QString::fromLatin1("Windows NT 6.0"); break; case QSysInfo::WV_WINDOWS7: firstPartTemp += QString::fromLatin1("Windows NT 6.1"); break; case QSysInfo::WV_CE: firstPartTemp += QString::fromLatin1("Windows CE"); break; case QSysInfo::WV_CENET: firstPartTemp += QString::fromLatin1("Windows CE .NET"); break; case QSysInfo::WV_CE_5: firstPartTemp += QString::fromLatin1("Windows CE 5.x"); break; case QSysInfo::WV_CE_6: firstPartTemp += QString::fromLatin1("Windows CE 6.x"); break; } #elif defined Q_OS_DARWIN #ifdef __i386__ || __x86_64__ firstPartTemp += QString::fromLatin1("Intel Mac OS X"); #else firstPartTemp += QString::fromLatin1("PPC Mac OS X"); #endif #elif defined Q_OS_BSDI firstPartTemp += QString::fromLatin1("BSD"); #elif defined Q_OS_BSD4 firstPartTemp += QString::fromLatin1("BSD Four"); #elif defined Q_OS_CYGWIN firstPartTemp += QString::fromLatin1("Cygwin"); #elif defined Q_OS_DGUX firstPartTemp += QString::fromLatin1("DG/UX"); #elif defined Q_OS_DYNIX firstPartTemp += QString::fromLatin1("DYNIX/ptx"); #elif defined Q_OS_FREEBSD firstPartTemp += QString::fromLatin1("FreeBSD"); #elif defined Q_OS_HPUX firstPartTemp += QString::fromLatin1("HP-UX"); #elif defined Q_OS_HURD firstPartTemp += QString::fromLatin1("GNU Hurd"); #elif defined Q_OS_IRIX firstPartTemp += QString::fromLatin1("SGI Irix"); #elif defined Q_OS_LINUX #if defined(__x86_64__) firstPartTemp += QString::fromLatin1("Linux x86_64"); #elif defined(__i386__) firstPartTemp += QString::fromLatin1("Linux i686"); #else firstPartTemp += QString::fromLatin1("Linux"); #endif #elif defined Q_OS_LYNX firstPartTemp += QString::fromLatin1("LynxOS"); #elif defined Q_OS_NETBSD firstPartTemp += QString::fromLatin1("NetBSD"); #elif defined Q_OS_OS2 firstPartTemp += QString::fromLatin1("OS/2"); #elif defined Q_OS_OPENBSD firstPartTemp += QString::fromLatin1("OpenBSD"); #elif defined Q_OS_OS2EMX firstPartTemp += QString::fromLatin1("OS/2"); #elif defined Q_OS_OSF firstPartTemp += QString::fromLatin1("HP Tru64 UNIX"); #elif defined Q_OS_QNX6 firstPartTemp += QString::fromLatin1("QNX RTP Six"); #elif defined Q_OS_QNX firstPartTemp += QString::fromLatin1("QNX"); #elif defined Q_OS_RELIANT firstPartTemp += QString::fromLatin1("Reliant UNIX"); #elif defined Q_OS_SCO firstPartTemp += QString::fromLatin1("SCO OpenServer"); #elif defined Q_OS_SOLARIS firstPartTemp += QString::fromLatin1("Sun Solaris"); #elif defined Q_OS_ULTRIX firstPartTemp += QString::fromLatin1("DEC Ultrix"); #elif defined Q_OS_SYMBIAN firstPartTemp += QLatin1Char(' '); QSysInfo::S60Version s60Version = QSysInfo::s60Version(); switch (s60Version) { case QSysInfo::SV_S60_3_1: firstPartTemp += QString::fromLatin1("Series60/3.1"); break; case QSysInfo::SV_S60_3_2: firstPartTemp += QString::fromLatin1("Series60/3.2"); break; case QSysInfo::SV_S60_5_0: firstPartTemp += QString::fromLatin1("Series60/5.0"); break; default: break; } #elif defined Q_OS_UNIX firstPartTemp += QString::fromLatin1("UNIX BSD/SYSV system"); #elif defined Q_OS_UNIXWARE firstPartTemp += QString::fromLatin1("UnixWare Seven, Open UNIX Eight"); #else firstPartTemp += QString::fromLatin1("Unknown"); #endif // language is the split firstPartTemp += QString::fromLatin1("; "); firstPartTemp.squeeze(); firstPart = firstPartTemp; QString secondPartTemp; secondPartTemp.reserve(150); secondPartTemp += QString::fromLatin1(") "); // webkit/qt version secondPartTemp += QString::fromLatin1("AppleWebKit/"); secondPartTemp += qWebKitVersion(); secondPartTemp += QString::fromLatin1(" (KHTML, like Gecko) "); // Application name split the third part secondPartTemp.squeeze(); secondPart = secondPartTemp; QString thirdPartTemp; thirdPartTemp.reserve(150); #if defined(Q_OS_SYMBIAN) || defined(Q_WS_MAEMO_5) thirdPartTemp += QLatin1String(" Mobile Safari/"); #else thirdPartTemp += QLatin1String(" Safari/"); #endif thirdPartTemp += qWebKitVersion(); thirdPartTemp.squeeze(); thirdPart = thirdPartTemp; Q_ASSERT(!firstPart.isNull()); Q_ASSERT(!secondPart.isNull()); Q_ASSERT(!thirdPart.isNull()); } // Language QString languageName; if (d->client && d->client->ownerWidget()) languageName = d->client->ownerWidget()->locale().name(); else languageName = QLocale().name(); languageName.replace(QLatin1Char('_'), QLatin1Char('-')); // Application name/version QString appName = QCoreApplication::applicationName(); if (!appName.isEmpty()) { QString appVer = QCoreApplication::applicationVersion(); if (!appVer.isEmpty()) appName.append(QLatin1Char('/') + appVer); } else { // Qt version appName = QString::fromLatin1("Qt/") + QString::fromLatin1(qVersion()); } return firstPart + languageName + secondPart + appName + thirdPart; } void QWebPagePrivate::_q_onLoadProgressChanged(int) { m_totalBytes = page->progress()->totalPageAndResourceBytesToLoad(); m_bytesReceived = page->progress()->totalBytesReceived(); } /*! Returns the total number of bytes that were received from the network to render the current page, including extra content such as embedded images. \sa bytesReceived() */ quint64 QWebPage::totalBytes() const { return d->m_totalBytes; } /*! Returns the number of bytes that were received from the network to render the current page. \sa totalBytes(), loadProgress() */ quint64 QWebPage::bytesReceived() const { return d->m_bytesReceived; } /*! \since 4.7 \fn void QWebPage::viewportChangeRequested() Page authors can provide the supplied values by using the viewport meta tag. More information about this can be found at \l{http://developer.apple.com/safari/library/documentation/appleapplications/reference/safariwebcontent/usingtheviewport/usingtheviewport.html}{Safari Reference Library: Using the Viewport Meta Tag}. \sa QWebPage::ViewportConfiguration, setPreferredContentsSize(), QGraphicsWebView::setScale() */ /*! \fn void QWebPage::loadStarted() This signal is emitted when a new load of the page is started. \sa loadFinished() */ /*! \fn void QWebPage::loadProgress(int progress) This signal is emitted when the global progress status changes. The current value is provided by \a progress and scales from 0 to 100, which is the default range of QProgressBar. It accumulates changes from all the child frames. \sa bytesReceived() */ /*! \fn void QWebPage::loadFinished(bool ok) This signal is emitted when a load of the page is finished. \a ok will indicate whether the load was successful or any error occurred. \sa loadStarted(), ErrorPageExtension */ /*! \fn void QWebPage::linkHovered(const QString &link, const QString &title, const QString &textContent) This signal is emitted when the mouse hovers over a link. \a link contains the link url. \a title is the link element's title, if it is specified in the markup. \a textContent provides text within the link element, e.g., text inside an HTML anchor tag. When the mouse leaves the link element the signal is emitted with empty parameters. \sa linkClicked() */ /*! \fn void QWebPage::statusBarMessage(const QString& text) This signal is emitted when the statusbar \a text is changed by the page. */ /*! \fn void QWebPage::frameCreated(QWebFrame *frame) This signal is emitted whenever the page creates a new \a frame. \sa currentFrame() */ /*! \fn void QWebPage::selectionChanged() This signal is emitted whenever the selection changes, either interactively or programmatically (e.g. by calling triggerAction() with a selection action). \sa selectedText() */ /*! \fn void QWebPage::contentsChanged() \since 4.5 This signal is emitted whenever the text in form elements changes as well as other editable content. \sa contentEditable, modified, QWebFrame::toHtml(), QWebFrame::toPlainText() */ /*! \fn void QWebPage::geometryChangeRequested(const QRect& geom) This signal is emitted whenever the document wants to change the position and size of the page to \a geom. This can happen for example through JavaScript. */ /*! \fn void QWebPage::repaintRequested(const QRect& dirtyRect) This signal is emitted whenever this QWebPage should be updated and no view was set. \a dirtyRect contains the area that needs to be updated. To paint the QWebPage get the mainFrame() and call the render(QPainter*, const QRegion&) method with the \a dirtyRect as the second parameter. \sa mainFrame() \sa view() */ /*! \fn void QWebPage::scrollRequested(int dx, int dy, const QRect& rectToScroll) This signal is emitted whenever the content given by \a rectToScroll needs to be scrolled \a dx and \a dy downwards and no view was set. \sa view() */ /*! \fn void QWebPage::windowCloseRequested() This signal is emitted whenever the page requests the web browser window to be closed, for example through the JavaScript \c{window.close()} call. */ /*! \fn void QWebPage::printRequested(QWebFrame *frame) This signal is emitted whenever the page requests the web browser to print \a frame, for example through the JavaScript \c{window.print()} call. \sa QWebFrame::print(), QPrintPreviewDialog */ /*! \fn void QWebPage::unsupportedContent(QNetworkReply *reply) This signal is emitted when WebKit cannot handle a link the user navigated to or a web server's response includes a "Content-Disposition" header with the 'attachment' directive. If "Content-Disposition" is present in \a reply, the web server is indicating that the client should prompt the user to save the content regardless of content-type. See RFC 2616 sections 19.5.1 for details about Content-Disposition. At signal emission time the meta-data of the QNetworkReply \a reply is available. \note This signal is only emitted if the forwardUnsupportedContent property is set to true. \sa downloadRequested() */ /*! \fn void QWebPage::downloadRequested(const QNetworkRequest &request) This signal is emitted when the user decides to download a link. The url of the link as well as additional meta-information is contained in \a request. \sa unsupportedContent() */ /*! \fn void QWebPage::microFocusChanged() This signal is emitted when for example the position of the cursor in an editable form element changes. It is used to inform input methods about the new on-screen position where the user is able to enter text. This signal is usually connected to the QWidget::updateMicroFocus() slot. */ /*! \fn void QWebPage::linkClicked(const QUrl &url) This signal is emitted whenever the user clicks on a link and the page's linkDelegationPolicy property is set to delegate the link handling for the specified \a url. By default no links are delegated and are handled by QWebPage instead. \note This signal possibly won't be emitted for clicked links which use JavaScript to trigger navigation. \sa linkHovered() */ /*! \fn void QWebPage::toolBarVisibilityChangeRequested(bool visible) This signal is emitted whenever the visibility of the toolbar in a web browser window that hosts QWebPage should be changed to \a visible. */ /*! \fn void QWebPage::statusBarVisibilityChangeRequested(bool visible) This signal is emitted whenever the visibility of the statusbar in a web browser window that hosts QWebPage should be changed to \a visible. */ /*! \fn void QWebPage::menuBarVisibilityChangeRequested(bool visible) This signal is emitted whenever the visibility of the menubar in a web browser window that hosts QWebPage should be changed to \a visible. */ /*! \fn void QWebPage::databaseQuotaExceeded(QWebFrame* frame, QString databaseName); \since 4.5 This signal is emitted whenever the web site shown in \a frame is asking to store data to the database \a databaseName and the quota allocated to that web site is exceeded. \sa QWebDatabase */ /*! \since 4.5 \fn void QWebPage::saveFrameStateRequested(QWebFrame* frame, QWebHistoryItem* item); This signal is emitted shortly before the history of navigated pages in \a frame is changed, for example when navigating back in the history. The provided QWebHistoryItem, \a item, holds the history entry of the frame before the change. A potential use-case for this signal is to store custom data in the QWebHistoryItem associated to the frame, using QWebHistoryItem::setUserData(). */ /*! \since 4.5 \fn void QWebPage::restoreFrameStateRequested(QWebFrame* frame); This signal is emitted when the load of \a frame is finished and the application may now update its state accordingly. */ /*! \fn QWebPagePrivate* QWebPage::handle() const \internal */ #include "moc_qwebpage.cpp"

cb2868bf534222bd20be7735188c230a5a149533

ffb2c41127e4a47d59a44dfd2ce0c115a9a125af

/helpers/StatusLocks.h

47385af745bc2f000e763a59bd1871e6b569e630

no_license

jcaesar/crctrl

b02e0c845e4820c6c7270e99119a19690c887542

4410461f0d8d360dfd065cb867e9a4f3e5276c21

refs/heads/master

UTF-8

C++

h

#ifndef StatusLocksHpp #define StatusLocksHpp #include <pthread.h> //Note: Ihateyouihateyouihateyou. //I just can't figure out how to build it that it will allow what I want it to do, without allocating memory in LockStatus-Calls //I should better implement the fast version. Collisions won't appear for my code anyway, so this is a lot slower than it could be. class StatusLocks { private: pthread_mutex_t statuslock; pthread_cond_t statuscond; struct ReaderInfo { pthread_t thread; unsigned int count; ReaderInfo * next; } readerinfo; unsigned int writercount; pthread_t writer; protected: void StatusUnstable(); void StatusStable(); public: void LockStatus(); void UnlockStatus(); StatusLocks(); ~StatusLocks(); }; #endif

950559d017716c4451464c96f8f4a1096d70c7c7

dfc04887c24e0e7d31ca3a779cee13860baa8810

/native/swtlibrary/SWTQtContainer_win32.cpp

686d8f8655aac2464ca75fe3cf8da93ae27638f8

no_license

kevinmiles/qtwidgetsinswt

cdf48cb9bef4999faff7950179fc70d4395e0ec5

b53ada927d77ed920de3dfa5493da18e2ce077f1

refs/heads/master

UTF-8

C++

cpp

/** * Copyright (c) 2010 Symbian Foundation and/or its subsidiary(-ies). * All rights reserved. * This component and the accompanying materials are made available * under the terms of the GNU Lesser General Public License * which accompanies this distribution * * Initial Contributors: * Symbian Foundation - initial contribution. * Contributors: * Description: * Overview: * Details: * Platforms/Drives/Compatibility: * Assumptions/Requirement/Pre-requisites: * Failures and causes: */ #include "SWTQtContainer.h" #include "../qtwinmigrate/QWinWidget" #include <windows.h> static QApplication* app; class WindowsNativePanel: public INativePanel { private: QWinWidget *winWidget; public: WindowsNativePanel(HWND); virtual QWidget* container(); virtual void resize(int x, int y, int w, int h); virtual ~WindowsNativePanel(); }; INativePanel* create(int parentHandle) { return new WindowsNativePanel(reinterpret_cast<HWND> (parentHandle)); } void startQt() { int argc = 0; app = new QApplication(argc, 0); } void tearDownQt() { delete app; } WindowsNativePanel::WindowsNativePanel(HWND parentWindow) { winWidget = new QWinWidget(parentWindow); } void WindowsNativePanel::resize(int x, int y, int w, int h) { HWND hWnd = winWidget->winId(); UINT flags = SWP_NOZORDER | SWP_DRAWFRAME | SWP_NOACTIVATE; SetWindowPos(hWnd, (HWND) 0, x, 0, w, h, flags); winWidget->move(x, 0); winWidget->resize(w, h); } QWidget* WindowsNativePanel::container() { return winWidget; } WindowsNativePanel::~WindowsNativePanel() { }

2ffcb889019e6d6be1e6c075ff1028e4df098479

8bf3d8714b3ed7b5663951aaf6d997ba41178d54

/Window.cpp

4bffa72dd4bd9783f1ed01f8f9d86a8d2df59f55

no_license

burnchar/cnb-data-parser

f71565bfab3e8de3600a553d6084a7ba0fde6059

cf63d326eb265242c420e10d3e873d63eb131b94

refs/heads/master

UTF-8

C++

cpp

/* Name : Window.cpp Author : Charles N. Burns (charlesnburns|gmail|com / burnchar|isu|edu) Date : August 2009 License : GPL3. See license.txt or www.gnu.org/licenses/gpl-3.0.txt Requirements: Qt 4, data to parse, any spreadsheet program. Notes : Tested only with Atmel hardware. Best viewed with tab width 4. Description : This is the main class of the program. It dynamically creates the GUI, responds to user input, and does all necessary calculations, parsing, and file I/O. */ #include "Window.h" //! Constructor for Window class. @see Window Window::Window() { this->setWindowTitle("CNB Data Parser 1.0"); this->configFileURI = "config.xml"; this->maxComboItems = 10; this->config = new Config(); this->createStatusBar(); this->createDataLayout(); this->createAdvFeaturesLayout(); this->createMainLayout(); this->updateColumnList(); this->mainLayoutCreateConnections(); this->importSettings(); this->setMaximumWidth(300); this->setAcceptDrops(true); } //! Sets up and creates the status bar (the information panel at the bottom) //! @see window() void Window::createStatusBar() { statusBar = new QStatusBar(this); statusBarMessage = new QLabel(); statusBarMessage->setText(defaultStatusMessage); statusBar->addWidget(statusBarMessage, 100); } //! Finds the integer by which the row count must divide to stay within limits. //! For example, if there are 200 rows, and the row limit is 50, returns 4 //! @returns That integer //! @see infileNumberRows() //! @see updateInfileRowsDisplay() quint64 Window::infileRowLimitDivisor() { quint64 rowLimit = comboRowLimit->currentText().toULongLong(); quint64 rows = infileNumberRows(); quint64 divider = 1; quint64 start; if((rowLimit < rows) && (rows > 0) && (rowLimit > 0)) { if(checkBoxWriteColNames->isChecked()) rows += 1; start = rows / (rowLimit + 1); for(divider = start; ((rows / divider) > rowLimit); divider += 1); } return divider; } //! Creates and configures main layout //! @see mainLayoutAllocateWidgets() //! @see mainLayoutConfigureWidgets() //! @see mainLayoutAddWidgets() void Window::createMainLayout() { mainLayout = new QGridLayout(); mainLayout->setColumnStretch(1, 2); mainLayoutAllocateWidgets(); mainLayoutConfigureWidgets(); mainLayoutAddWidgets(); this->setLayout(mainLayout); } //! Allocates widgets for the main layout. //! @see createMainLayout() void Window::mainLayoutAllocateWidgets() { comboInfile = new QComboBox(); comboOutfile = new QComboBox(); comboRowLimit = new QComboBox(); spinColumns = new QSpinBox(); infileRowsDisplay = new QLabel(); buttonBrowseInput = new QPushButton(tr("Browse")); buttonBrowseOutput = new QPushButton(tr("Browse")); buttonProcessData = new QPushButton(tr("Process data")); checkBoxOpenWhenDone = new QCheckBox(tr("Open output file when finished")); } //! Configures widgets for the main layout. Widgets must already be allocated. //! @see createMainLayout() void Window::mainLayoutConfigureWidgets() { QIcon iconExcel(":/embedded/icon_excel.png"); QIcon iconOocalc(":/embedded/icon_oocalc.png"); QIcon iconQuattro(":/embedded/icon_quattropro.png"); QIcon iconUnlimited(":/embedded/icon_unlimited.png"); spinColumns->setRange(1, 255); comboOutfile->setEditable(true); comboOutfile->setMaxCount(maxComboItems); comboOutfile->setInsertPolicy(QComboBox::InsertAtTop); comboInfile->setEditable(true); comboInfile->setMaxCount(maxComboItems); comboInfile->setInsertPolicy(QComboBox::InsertAtTop); comboInfile->setMaximumWidth(300); comboOutfile->setMaximumWidth(300); comboRowLimit->setEditable(true); comboRowLimit->setMaxCount(maxComboItems); comboRowLimit->addItem(iconUnlimited, tr("No limit")); comboRowLimit->addItem(iconOocalc, tr("65536 (OpenOffice, Excel)")); comboRowLimit->addItem(iconExcel, tr("1048576 (Excel 2007+)")); comboRowLimit->addItem(iconQuattro, tr("1000000 (Quattro Pro)")); comboRowLimit->setCompleter(0); comboRowLimit->insertSeparator(0); comboRowLimitDefaultItemCount = 4; } //! Adds widgets to the appropriate grid coordinates of the main layout. //! @see createMainLayout() void Window::mainLayoutAddWidgets() { mainLayout->addWidget(new QLabel(tr("Data file:")), 0, 0); mainLayout->addWidget(comboInfile, 0, 1, 1, 2); mainLayout->addWidget(buttonBrowseInput, 0, 3); mainLayout->addWidget(new QLabel(tr("Output file:")), 1, 0); mainLayout->addWidget(comboOutfile, 1, 1, 1, 2); mainLayout->addWidget(buttonBrowseOutput, 1, 3); mainLayout->addWidget(checkBoxOpenWhenDone, 2, 1, 1, 2); mainLayout->addWidget(new QLabel(tr("Limit rows:")), 3, 0); mainLayout->addWidget(comboRowLimit, 3, 1, 1, 1); mainLayout->addWidget(infileRowsDisplay, 3, 2, 1, 2); mainLayout->addWidget(new QLabel(tr("Columns:")), 4, 0); mainLayout->addWidget(spinColumns, 4, 1, 1, 1); mainLayout->addWidget(scrollArea, 5, 0, 1, 4); mainLayout->addLayout(advFeaturesLayout, 6, 0, 1, 4); mainLayout->addWidget(buttonProcessData, 7, 0, 1, 4); mainLayout->addWidget(statusBar, 8, 0, 1, 4); } //! Connects the signals of widgets in the main layout to the appropriate slots. //! @see createMainLayout() void Window::mainLayoutCreateConnections() const { connect(comboInfile, SIGNAL(editTextChanged(QString)), this, SLOT(updateDisplay())); connect(comboOutfile, SIGNAL(editTextChanged(QString)), this, SLOT(updateDisplay())); connect(spinColumns, SIGNAL(valueChanged(int)), this, SLOT(updateColumnList())); connect(spinColumns, SIGNAL(valueChanged(int)), this, SLOT(updateDisplay())); connect(buttonBrowseInput, SIGNAL(clicked()), this, SLOT(openFileDialog())); connect(buttonBrowseOutput, SIGNAL(clicked()), this, SLOT(saveFileDialog())); connect(buttonProcessData, SIGNAL(clicked()), this, SLOT(dataToCsv())); connect(comboRowLimit, SIGNAL(editTextChanged(const QString&)), this, SLOT(filterLimitRowsName(const QString&))); connect(comboRowLimit, SIGNAL(editTextChanged(const QString&)), this, SLOT(updateDisplay())); connect(statusBarMessage, SIGNAL(linkActivated(QString)), this, SLOT(openSystemWebBrowser(QString))); } //! Allocates, configures, and adds widgets to the layout which shows columns. //! @see Window() void Window::createDataLayout() { dataLayout = new QGridLayout; dataLayout->addWidget(new QLabel(tr("#")), 0, 0); checkBoxWriteColNames = new QCheckBox("Column Name"); checkBoxWriteColNames->setChecked(true); dataLayout->addWidget(checkBoxWriteColNames, 0, 1, 1, 1, Qt::AlignCenter); dataLayout->addWidget(new QLabel(tr("# bytes")), 0, 2); dataLayout->addWidget(new QLabel(tr("Count")), 0, 3); dataLayout->setColumnStretch(1, 2); dataLayout->setAlignment(Qt::AlignTop); dataGroupBox = new QGroupBox(); dataGroupBox->setFocusPolicy(Qt::WheelFocus); dataGroupBox->setLayout(dataLayout); scrollArea = new QScrollArea; scrollArea->setWidgetResizable(true); scrollArea->setWidget(dataGroupBox); connect(checkBoxWriteColNames, SIGNAL(toggled(bool)), this, SLOT(updateDisplay())); } //! Allocates, configures, and adds widgets to the advanced features layout. //! @see Window() void Window::createAdvFeaturesLayout() { minVoltage = new QDoubleSpinBox(); maxVoltage = new QDoubleSpinBox(); checkBoxEndian = new QCheckBox("Swap byte order"); checkBoxEndian->setChecked(true); advFeaturesLayout = new QHBoxLayout(); advFeaturesLayout->addWidget( new QLabel(tr("Low voltage:")), 0, Qt::AlignRight); advFeaturesLayout->addWidget(minVoltage, 0); advFeaturesLayout->addWidget( new QLabel(tr("High voltage:")), 0, Qt::AlignRight); advFeaturesLayout->addWidget(maxVoltage); advFeaturesLayout->addWidget(checkBoxEndian); minVoltage->setValue(0.0); maxVoltage->setValue(5.0); minVoltage->setRange(-1000.0, 1000.0); maxVoltage->setRange(-1000.0, 1000.0); minVoltage->setSuffix("v"); maxVoltage->setSuffix("v"); minVoltage->setDecimals(3); maxVoltage->setDecimals(3); connect(minVoltage, SIGNAL(valueChanged(double)), this, SLOT(minVoltageChanged(double))); connect(maxVoltage, SIGNAL(valueChanged(double)), this, SLOT(maxVoltageChanged(double))); } //! This slot changes the number of items displayed in the data layout. //! @see mainLayoutCreateConnections() void Window::updateColumnList() { static int oldCount; //! Remembers previous number of columns int newCount = spinColumns->value(); for(; oldCount < newCount; ++oldCount) { if(dataLayout->rowCount() -1 > oldCount) dataRowSetVisible(oldCount, true); else dataRowCreate(oldCount); } while(oldCount > newCount) { --oldCount; dataRowSetVisible(newCount, false); } } //! Changes the visibility of a row in the data layout. //! @param index Index of the row of controls (0-based) to make show or hide. //! @param visible Should this row be visible? True or false? //! @see updateColumnList() void Window::dataRowSetVisible(const int index, const bool visible) { dataLabel.at(index)->setVisible(visible); dataComboName.at(index)->setVisible(visible); dataSpinNumBytes.at(index)->setVisible(visible); dataCheckBox.at(index)->setVisible(visible); } //! Creates and configures an entire row of widgets in the data layout. //! @param index Index of the row (0-based) to create controls in //! @see updateColumnList() void Window::dataRowCreate(const int index) { dataLabel.append(new QLabel(QString::number(index + 1))); dataComboName.append(new QComboBox()); dataComboName.at(index)->setEditable(true); dataSpinNumBytes.append(new QSpinBox()); dataSpinNumBytes.at(index)->setRange(1, maxColumnBytes); dataCheckBox.append(new QCheckBox()); dataLayout->addWidget(dataLabel.at(index)); dataLayout->addWidget(dataComboName.at(index)); dataLayout->addWidget(dataSpinNumBytes.at(index)); connect(dataSpinNumBytes.at(index), SIGNAL(valueChanged(int)), this, SLOT(updateDisplay())); dataLayout->addWidget(dataCheckBox.at(index)); connect(dataComboName.at(index), SIGNAL(editTextChanged(const QString&)), this, SLOT(filterColumnName(const QString&))); } //! Sets up the default file dialog box. //! @see Window() void Window::openFileDialog() { QString fileURI = QFileDialog::getOpenFileName( this, tr("Open data file"), comboInfile->currentText(), tr("All Files (*.*);;Data files (*.dat *.bin)")); QFileInfo fInfo(fileURI); if(fInfo.exists()) { int dupeIndex = comboInfile->findText( fileURI, Qt::MatchFixedString | Qt::MatchCaseSensitive); if(dupeIndex >= 0) comboInfile->removeItem(dupeIndex); comboInfile->insertItem(0, QDir::convertSeparators(fileURI)); comboInfile->setCurrentIndex(0); } } //! Computes the sum of bytes in the columns of any one row of input data. //! @returns the number of bytes //! @see infileNumberRows() //! @see dataToCsv() int Window::rowDataSize() { int accumulator = 0, columns = spinColumns->value(); for(int index = 0; index < columns; ++index) accumulator += dataSpinNumBytes.at(index)->value(); return accumulator; } //! Computes number of rows in input file based on its size and bytes per row. //! @returns The number of rows //! @see rowDataSize() //! @see dataToCsv() //! @see updateInfileRowsDisplay() //! @see updateStatusBarFileStats() //! @see infileRowLimitDivisor() quint64 Window::infileNumberRows() { quint64 rows; QFile infile(comboInfile->currentText().trimmed()); if(!infile.open(QIODevice::ReadOnly)) rows = 0; else { int rowSize = this->rowDataSize(); quint64 fileSize = infile.size(); rows = fileSize / rowSize; if(fileSize % rowSize != 0) rows += 1; // Don't ignore partial rows infile.close(); } return rows; } //! Opens file dialog box to determine the file in which to save processed data //! @see mainLayoutCreateConnections() void Window::saveFileDialog() { QString fileURI = QFileDialog::getSaveFileName( this, tr("Save as..."), comboOutfile->currentText(), tr("Comma-separated values file (*.csv *.txt);; All files (*.* )")); // If file is already in list, delete it and re-insert at the top. int dupeIndex = comboOutfile->findText( fileURI, Qt::MatchFixedString | Qt::MatchCaseSensitive); if(dupeIndex >= 0) comboOutfile->removeItem(dupeIndex); comboOutfile->insertItem(0, QDir::convertSeparators(fileURI)); comboOutfile->setCurrentIndex(0); } /* 000000000000AA80 Correct value 00000000000080AA Raw data before qbswap AA80000000000000 After qbswap 000000000000AA80 Bit shifted 8 - bytecount * 8 bits. */ //! Opens both input and output files for processing. //! @param infile Unassociated QFile object representing input file. //! @param outfile Unassociated QFile object representing output file. //! @returns True if there was an error opening either one, false otherwise. //! @see dataToCsv() bool Window::csvOpenFiles(QFile &infile, QFile &outfile) { bool errorState = false; infile.setFileName(comboInfile->currentText()); if(!infile.open(QIODevice::ReadOnly)) { statusBarMessage->setText(tr("Cannot open data file for reading.")); errorState = true; } else { outfile.setFileName(comboOutfile->currentText()); if(!outfile.open(QIODevice::WriteOnly | QIODevice::Text)) { statusBarMessage->setText(tr( "Cannot open output file for writing.")); errorState = true; } else { QFileInfo ifinfo(infile); QFileInfo ofinfo(outfile); if(ifinfo.canonicalFilePath() == ofinfo.canonicalFilePath()) { statusBarMessage->setText(tr( "Input and output files must not be the same file!")); errorState = true; } } } return errorState; } //! Writes the first row of the output file -- the names of each column. //! @param ts QTextStream object already associated with an output file //! @returns True if column names were written, false otherwise //! @see dataToCsv() bool Window::csvWriteColumnNames(QTextStream &ts) { bool retval = false; for(int index = 0; index < spinColumns->value(); ++index) { if(dataComboName.at(index)->isHidden()) break; else { ts << dataComboName.at(index)->currentText().trimmed() << ','; retval = true; } } ts << endl; return retval; } //! Processes all data in one row of input & writes appropriate data to output //! @param ts QTextStream already associated with an output file //! @param infile QFile object representing input (raw data) file //! @param colCount Interpret data in infile as having this many "columns" //! @param colSize Array of column sizes with colSize[n] = bytes in column n //! @param byteSwap Swap endianness of source data. True or false. //! @param vMin If device outputs between 1.1v and 5.5v, this is the 1.1v //! @param vMax If device outputs between 1.1v and 5.5v, this is the 5.1v //! @see dataToCsv() void inline Window::csvProcessRow(QTextStream &ts, QFile &infile, int colCount, QByteArray &colSize, bool byteSwap, double vMin, double vMax) { static raw2quint64 raw; raw.ui64 = 0; for(int col = 0; col < colCount; ++col) { // For each column in this row int readError = infile.read(raw.bytes, colSize[col]); if(readError == -1) { statusBarMessage->setText(tr("Error reading data file.")); return; // TODO: Get rid of multiple returns } if(byteSwap) raw.ui64 = qbswap(raw.ui64) >> ((8 - colSize[col]) << 3); // TODO: Get rid of this check against a GUI checkbox if(dataCheckBox.at(col)->isChecked()) ts << raw.ui64 << ','; else { double colVal = rawIntToVoltage(raw.ui64, colSize[col], vMin, vMax); ts << qSetRealNumberPrecision(15) << colVal << ','; } } ts << endl; } //! Controller function to convert input file data to an output .CSV file //! @see mainLayoutCreateConnections() void Window::dataToCsv() { QFile infile, outfile; bool errorOpeningEitherFile = csvOpenFiles(infile, outfile); if(!errorOpeningEitherFile) { int colCount = spinColumns->value(); int rowSize = rowDataSize(); quint64 rowsOutput = 0; quint64 rowLimit = comboRowLimit->currentText().toULongLong(); quint64 divCount = infileRowLimitDivisor(); bool byteSwap = checkBoxEndian->isChecked(); bool cancelled = false; double vMin = minVoltage->value(); double vMax = maxVoltage->value(); QTextStream ts(&outfile); if(checkBoxWriteColNames->isChecked()) if(csvWriteColumnNames(ts)) rowsOutput += 1; QByteArray colSize(colCount, '\n'); for(int index = 0; index < colCount; ++index) colSize[index] = dataSpinNumBytes.at(index)->value(); quint64 pMax = infileNumberRows(); if(rowLimit > 0 && rowLimit < pMax) pMax = rowLimit; QProgressDialog progress("Saving CSV file...", "Cancel", 0, pMax, this); progress.setModal(true); statusBarMessage->setText(tr("Processing data file...")); while(!infile.atEnd()) { // while(rowsOutput <= pMax) { if(rowLimit > 0 && rowsOutput >= rowLimit) break; // Updating the status bar for every line processed is too slow! if(rowsOutput % 1024 == 0) { progress.setValue(rowsOutput); if(progress.wasCanceled()) { cancelled = true; statusBarMessage->setText(tr("Processing cancelled.")); outfile.remove(); break; } } csvProcessRow(ts, infile, colCount, colSize, byteSwap, vMin, vMax); ++rowsOutput; if(divCount > 1) infile.seek(infile.pos() + (rowSize * (divCount - 1))); } infile.close(); outfile.close(); if(!cancelled) statusBarMessage->setText(tr("Processing complete.")); if(checkBoxOpenWhenDone->isChecked()) openFileWithAssociatedProgram(); } } //! Converts a raw unsigned integer value range [0, 2^numBits] to a voltage. //! Assumes that vMax > vMin //! @param value One piece of the raw uninterpreted data from the source file //! @param numBytes The size of value in number of bytes //! @param vMin If device outputs between 1.1v and 5.5v, this is the 1.1v //! @param vMax If device outputs between 1.1v and 5.5v, this is the 5.1v //! @returns The computed voltage in the range [vMin, vMax] //! @see dataToCsv() inline double Window::rawIntToVoltage(const quint64 value, const int numBytes, const double vMin, const double vMax) const { double range = vMax - vMin; // Corrected bug reported by Riley Pack, 26 Jan 2010 // quint64 maxVal = 1 << (numBytes << 3); // pow(2,(bits in numBytes)) quint64 maxVal = (1 << (numBytes << 3)) -1; // pow(2,(bits in numBytes)) return (value / (maxVal / range)) + vMin; } //! Opens a file or URI with an applications the host operating system suggests. //! @see dataToCsv() void Window::openFileWithAssociatedProgram() const { QString filePath("file:///"); filePath += comboOutfile->currentText(); QUrl fileURI(filePath, QUrl::TolerantMode); QDesktopServices::openUrl(fileURI); } //! Reads program settings from the data structures in the Config class //! @returns false on any error, true otherwise //! @see Window() bool Window::importSettings() { bool retval = config->xmlRead(configFileURI, "charles_n_burns-data_parser"); if(!retval) statusBarMessage->setText("Unable to read config file."); retval = config->xmlParse(); if(!retval) statusBarMessage->setText("Unable to parse config file."); if(! config->pathlistInfile.isEmpty()) comboInfile->addItems(config->pathlistInfile); if(! config->pathlistOutfile.isEmpty()) comboOutfile->addItems(config->pathlistOutfile); checkBoxOpenWhenDone->setChecked(config->boxOpen); comboRowLimit->insertItem(0, QString::number( getUint64(config->limitRows.trimmed()))); comboRowLimit->setCurrentIndex(0); int colCount = config->colCount; if(this->spinColumns->value() < colCount) spinColumns->setValue(colCount); for(int index = 0; index < colCount; ++index) { if(config->colNames.size() > index) dataComboName.at(index)->addItems(config->colNames.at(index)); if(config->colBoxChecked.size() > index) dataCheckBox.at(index)->setChecked(config->colBoxChecked.at(index)); if(config->colBytes.size() > index) dataSpinNumBytes.at(index)->setValue(config->colBytes.at(index)); } spinColumns->setValue(config->colCount); return retval; } //! Writes current program state to data structures in Config class //! @see closeEvent() void Window::exportSettings() const { config->clear(); int index; config->pathlistInfile.append(comboInfile->currentText()); for(index = 0; index < comboInfile->count(); ++index) { config->pathlistInfile.append(comboInfile->itemText(index)); } config->pathlistInfile.removeDuplicates(); config->pathlistOutfile.append(comboOutfile->currentText()); for(index = 0; index < comboOutfile->count(); ++index) { config->pathlistOutfile.append(comboOutfile->itemText(index)); } config->pathlistOutfile.removeDuplicates(); config->boxOpen = checkBoxOpenWhenDone->isChecked(); if(comboRowLimit->count() > comboRowLimitDefaultItemCount) { config->limitRows = comboRowLimit->currentText(); } config->colCount = spinColumns->value(); QStringList sl; for(index = 0; index < spinColumns->value(); ++index) { // For each column QComboBox *cBox = dataComboName.at(index); sl.append(cBox->currentText()); // Add the currently displayed text // For each name in this combobox for(int name = 0; name < cBox->count(); ++name) { sl.append(cBox->itemText(name)); } sl.removeDuplicates(); config->colNames.append(sl); sl.clear(); config->colBoxChecked.append(dataCheckBox.at(index)->isChecked()); config->colBytes.append(dataSpinNumBytes.at(index)->value()); } } //! Grabs digits from a string. Stops when non-digit is reached or at maxDigits //! @param text A QString of characters which theoretically contain a number //! @param maxDigits The max number of individual numeric characters to extract //! @returns the integer whose digits were collected from the string. //! @see importSettings() quint64 Window::getUint64(const QString &text, const quint8 maxDigits) const { int limit = (text.size() > maxDigits) ? maxDigits : text.size(); int index; for(index = 0; index < limit; ++index) if(!text.at(index).isDigit()) break; return text.left(index).toULongLong(); } //! Blocks disruptive characters from being entered in a column name field. //! This function directly changes the text in the GUI combobox controls. //! @param text The string to insert into the output CSV file after filtering //! @see dataRowCreate() void Window::filterColumnName(const QString &text) { QString filtered = text; // The following characters cause problems with CSV and so are banned: \", filtered.remove(QRegExp("[\\\\\\\",]")); if(text.length() != filtered.length()) { // To find out which combobox is being typed in, we have to request // the sender. It arrives as a QObject, which we cast to a QComboBox QComboBox * cBox = reinterpret_cast<QComboBox*>(QObject::sender()); cBox->setEditText(filtered); } } //! This slot updates to on-screen stats (number of rows in current file, etc.) //! @see mainLayoutCreateConnections() //! @see createDataLayout() //! @see dataRowCreate() void Window::updateDisplay() { this->updateInfileRowsDisplay(); this->updateStatusBarFileStats(); } //! Updates the display of the number of data rows in the current input file. //! @see updateDisplay() void Window::updateInfileRowsDisplay() { QString display; int addRows = 0; quint64 numRows = infileNumberRows(); if(numRows < 1) display = "Unknown # rows"; else { if(checkBoxWriteColNames->isChecked()) addRows = 1; display = QString("/ %1 rows").arg(numRows + addRows); } infileRowsDisplay->setText(display); } //! Updates the status bar with statistics regarding current file vs. row limit. //! @see updateDisplay() void Window::updateStatusBarFileStats() { quint64 rowLimit = comboRowLimit->currentText().toULongLong(); quint64 rowDivide = infileRowLimitDivisor(); QString display = defaultStatusMessage; if(rowLimit < infileNumberRows() && rowLimit != 0) display = QString("Row limit %1: Keeping 1 in %2 rows." ).arg(rowLimit).arg(rowDivide); statusBarMessage->setText(display); } //! Ensures only digits are accepted into comboRowLimit, for integer validity //! comboRowLimit displays individual row limits for several office suites. //! This function removes text such as (Excel 2007+) and grabs just the number. //! @see mainLayoutCreateConnections() void Window::filterLimitRowsName(const QString &text) { int indexNonInt = text.indexOf(QRegExp("[^0-9]")); QString filtered = text.left(indexNonInt); if(text.length() != filtered.length()) comboRowLimit->setEditText(filtered); } //! Slot called when minVoltage is changed. Ensures maxVoltage > minVoltage //! newValue The new minimum voltage value from the min voltage spinbox //! @see createAdvFeaturesLayout() void Window::minVoltageChanged(double newValue) { if(newValue > (maxVoltage->value() - minVoltageDifference)) { maxVoltage->setValue(newValue + minVoltageDifference); } } //! Slot called when maxVoltage is changed. Ensures minVoltage < maxVoltage //! newValue The new maximum voltage value from the max voltage spinbox //! @see createAdvFeaturesLayout() void Window::maxVoltageChanged(double newValue) { if(newValue < minVoltage->value() + minVoltageDifference) { minVoltage->setValue(newValue - minVoltageDifference); } } //! Slot which open's a url on system's default web browser //! @param url The URI to open in the web browser, such as www.formortals.com //! @see window() //! @see createStatusBar() void Window::openSystemWebBrowser(QString uri) { QDesktopServices::openUrl(uri); } //! Accepts a drag over the main window if and only if it's a list of files. void Window::dragEnterEvent(QDragEnterEvent *event) { if(event->mimeData()->hasUrls()) event->acceptProposedAction(); } //! Sets comboInfile text to the first in a file list dropped on the main window void Window::dropEvent(QDropEvent *event) { QFileInfo fInfo; QList<QUrl> urls = event->mimeData()->urls(); if(! urls.isEmpty()) { QString fileURI = urls.first().toLocalFile(); if(! fileURI.isEmpty()) { fInfo.setFile(fileURI); if(fInfo.isFile()) { comboInfile->insertItem(0, QDir::toNativeSeparators(fileURI)); comboInfile->setCurrentIndex(0); } } } } //! Called when program is closed. Saves settings and writes them to disk. void Window::closeEvent(QCloseEvent *event) { exportSettings(); config->xmlWrite(this->configFileURI); event->accept(); }

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C++

h

/* * Thanks to Dr.Watson JGE++! ** Haaf's Game Engine 1.7 ** Copyright (C) 2003-2007, Relish Games ** hge.relishgames.com ** ** hgeColor*** helper classes */ #ifndef HGECOLOR_H #define HGECOLOR_H #include "../nge_define.h" #define hgeColor hgeColorRGB inline void ColorClamp(float &x) { if(x<0.0f) x=0.0f; if(x>1.0f) x=1.0f; } class hgeColorRGB { public: float r,g,b,a; hgeColorRGB(float _r, float _g, float _b, float _a) { r=_r; g=_g; b=_b; a=_a; } hgeColorRGB(uint32 col) { SetHWColor(col); } hgeColorRGB() { r=g=b=a=0; } hgeColorRGB operator- (const hgeColorRGB &c) const { return hgeColorRGB(r-c.r, g-c.g, b-c.b, a-c.a); } hgeColorRGB operator+ (const hgeColorRGB &c) const { return hgeColorRGB(r+c.r, g+c.g, b+c.b, a+c.a); } hgeColorRGB operator* (const hgeColorRGB &c) const { return hgeColorRGB(r*c.r, g*c.g, b*c.b, a*c.a); } hgeColorRGB& operator-= (const hgeColorRGB &c) { r-=c.r; g-=c.g; b-=c.b; a-=c.a; return *this; } hgeColorRGB& operator+= (const hgeColorRGB &c) { r+=c.r; g+=c.g; b+=c.b; a+=c.a; return *this; } BOOLu8 operator== (const hgeColorRGB &c) const { return (r==c.r && g==c.g && b==c.b && a==c.a); } BOOLu8 operator!= (const hgeColorRGB &c) const { return (r!=c.r || g!=c.g || b!=c.b || a!=c.a); } hgeColorRGB operator/ (const float scalar) const { return hgeColorRGB(r/scalar, g/scalar, b/scalar, a/scalar); } hgeColorRGB operator* (const float scalar) const { return hgeColorRGB(r*scalar, g*scalar, b*scalar, a*scalar); } hgeColorRGB& operator*= (const float scalar) { r*=scalar; g*=scalar; b*=scalar; a*=scalar; return *this; } void Clamp() { ColorClamp(r); ColorClamp(g); ColorClamp(b); ColorClamp(a); } void SetHWColor(uint32 col) { a = (col>>24)/255.0f; r = ((col>>16) & 0xFF)/255.0f; g = ((col>>8) & 0xFF)/255.0f; b = (col & 0xFF)/255.0f; } uint32 GetHWColor() const { return MAKE_RGBA_8888(((int)(r*255.0f)), ((int)(g*255.0f)), ((int)(b*255.0f)),((int)(a*255.0f))); } }; inline hgeColorRGB operator* (const float sc, const hgeColorRGB &c) { return c*sc; } class hgeColorHSV { public: float h,s,v,a; hgeColorHSV(float _h, float _s, float _v, float _a) { h=_h; s=_s; v=_v; a=_a; } hgeColorHSV(uint32 col) { SetHWColor(col); } hgeColorHSV() { h=s=v=a=0; } hgeColorHSV operator- (const hgeColorHSV &c) const { return hgeColorHSV(h-c.h, s-c.s, v-c.v, a-c.a); } hgeColorHSV operator+ (const hgeColorHSV &c) const { return hgeColorHSV(h+c.h, s+c.s, v+c.v, a+c.a); } hgeColorHSV operator* (const hgeColorHSV &c) const { return hgeColorHSV(h*c.h, s*c.s, v*c.v, a*c.a); } hgeColorHSV& operator-= (const hgeColorHSV &c) { h-=c.h; s-=c.s; v-=c.v; a-=c.a; return *this; } hgeColorHSV& operator+= (const hgeColorHSV &c) { h+=c.h; s+=c.s; v+=c.v; a+=c.a; return *this; } BOOLu8 operator== (const hgeColorHSV &c) const { return (h==c.h && s==c.s && v==c.v && a==c.a); } BOOLu8 operator!= (const hgeColorHSV &c) const { return (h!=c.h || s!=c.s || v!=c.v || a!=c.a); } hgeColorHSV operator/ (const float scalar) const { return hgeColorHSV(h/scalar, s/scalar, v/scalar, a/scalar); } hgeColorHSV operator* (const float scalar) const { return hgeColorHSV(h*scalar, s*scalar, v*scalar, a*scalar); } hgeColorHSV& operator*= (const float scalar) { h*=scalar; s*=scalar; v*=scalar; a*=scalar; return *this; } void Clamp() { ColorClamp(h); ColorClamp(s); ColorClamp(v); ColorClamp(a); } void SetHWColor(uint32 col); uint32 GetHWColor() const; }; inline hgeColorHSV operator* (const float sc, const hgeColorHSV &c) { return c*sc; } #endif

22b91ed21bb15b542c1acb6a1e2327101f0167e6

5ff30d64df43c7438bbbcfda528b09bb8fec9e6b

/kcore/base/Assert.cpp

f43743c37510925f5f7cf40dc9a61e9ae9f125ac

no_license

lvtx/gamekernel

c80cdb4655f6d4930a7d035a5448b469ac9ae924

a84d9c268590a294a298a4c825d2dfe35e6eca21

refs/heads/master

UTF-8

C++

cpp

#include "stdafx.h" #include <kcore/corebase.h> #include <cassert> void nassert( bool cond, const char* cs, int line, const char* file ) { file; line; cs; if ( !cond ) { #ifdef _DEBUG __asm { int 3 }; #endif assert( cond ); } }

97c2728b3b1333fcaf9bb06f5d51b7bf2aa8e664

a381a69db3bd4f37266bf0c7129817ebb999e7b8

/Common/AtgSessionManager.cpp

29fb5bf47f2a90598433a1ec13750dd7442a2358

no_license

oukiar/vdash

4420d6d6b462b7a833929b59d1ca232bd410e632

d2bff3090c7d1c081d5b7ab41abb963f03d6118b

refs/heads/master

UTF-8

C++

cpp

#include "stdafx.h" #include "AtgUtil.h" #include "AtgSessionManager.h" #define DebugSpew ATG::DebugSpew #define FatalError ATG::FatalError #define XNKIDToInt64 ATG::XNKIDToInt64 //------------------------------------------------------------------------ // Name: SessionManager() // Desc: Public constructor //------------------------------------------------------------------------ SessionManager::SessionManager() { Reset(); } //------------------------------------------------------------------------ // Name: Reset() // Desc: Resets this SessionManager instance to its creation state //------------------------------------------------------------------------ VOID SessionManager::Reset() { m_bIsInitialized = FALSE; m_SessionCreationReason = SessionCreationReasonNone; m_dwSessionFlags = 0; m_dwOwnerController = XUSER_MAX_COUNT + 1; m_xuidOwner = INVALID_XUID; m_SessionState = SessionStateNone; m_migratedSessionState = SessionStateNone; m_bIsMigratedSessionHost = FALSE; m_hSession = INVALID_HANDLE_VALUE; m_qwSessionNonce = 0; m_strSessionError = NULL; m_bUsingQoS = FALSE; m_pRegistrationResults = NULL; ZeroMemory( &m_SessionInfo, sizeof( XSESSION_INFO ) ); ZeroMemory( &m_NewSessionInfo, sizeof( XSESSION_INFO ) ); ZeroMemory( &m_migratedSessionID, sizeof( XNKID ) ); } //------------------------------------------------------------------------ // Name: ~SessionManager() // Desc: Public destructor //------------------------------------------------------------------------ SessionManager::~SessionManager() { // Close our XSession handle to clean up resources held by it if( m_hSession != INVALID_HANDLE_VALUE && m_hSession != NULL ) { XCloseHandle( m_hSession ); } } //------------------------------------------------------------------------ // Name: Initialize() // Desc: Initializes this SessionManager instance //------------------------------------------------------------------------ BOOL SessionManager::Initialize( SessionManagerInitParams initParams ) { if( m_bIsInitialized ) { DebugSpew( "SessionManager already initialized. Reinitializing..\n" ); } m_SessionCreationReason = initParams.m_SessionCreationReason; m_dwSessionFlags = initParams.m_dwSessionFlags; m_bIsHost = initParams.m_bIsHost; m_Slots[SLOTS_TOTALPUBLIC] = initParams.m_dwMaxPublicSlots; m_Slots[SLOTS_TOTALPRIVATE] = initParams.m_dwMaxPrivateSlots; m_Slots[SLOTS_FILLEDPUBLIC] = 0; m_Slots[SLOTS_FILLEDPRIVATE] = 0; m_Slots[SLOTS_ZOMBIEPUBLIC] = 0; m_Slots[SLOTS_ZOMBIEPRIVATE] = 0; m_bIsInitialized = TRUE; return TRUE; } //------------------------------------------------------------------------ // Name: IsInitialized() // Desc: Queries SessionManager initialization state //------------------------------------------------------------------------ BOOL SessionManager::IsInitialized() { return m_bIsInitialized; } //------------------------------------------------------------------------ // Name: IsSessionDeleted() // Desc: Returns TRUE if the XSession for this instance // has a 0 sessionID; otherwise false //------------------------------------------------------------------------ BOOL SessionManager::IsSessionDeleted( VOID ) const { static const XNKID zero = {0}; if( m_SessionState == SessionStateDeleted ) { return TRUE; } BOOL bIsSessionDeleted = FALSE; if( m_hSession == INVALID_HANDLE_VALUE || m_hSession == NULL ) { // If the session hasn't been created yet, return false if ( m_SessionState < SessionStateCreated ) { bIsSessionDeleted = FALSE; } else { bIsSessionDeleted = TRUE; } return bIsSessionDeleted; } // Call XSessionGetDetails first time to get back the size // of the results buffer we need DWORD cbResults = 0; DWORD ret = XSessionGetDetails( m_hSession, &cbResults, NULL, NULL ); if( ( ret != ERROR_INSUFFICIENT_BUFFER ) || ( cbResults == 0 ) ) { DebugSpew( "SessionManager::IsSessionDeleted - Failed on first call to XSessionGetDetails, hr=0x%08x\n", ret ); return FALSE; } XSESSION_LOCAL_DETAILS* pSessionDetails = (XSESSION_LOCAL_DETAILS*)new BYTE[ cbResults ]; if( pSessionDetails == NULL ) { FatalError( "SessionManager::IsSessionDeleted - Failed to allocate buffer.\n" ); } // Call second time to fill our results buffer ret = XSessionGetDetails( m_hSession, &cbResults, pSessionDetails, NULL ); if( ret != ERROR_SUCCESS ) { DebugSpew( "SessionManager::IsSessionDeleted - XSessionGetDetails failed with error %d\n", ret ); return FALSE; } // Iterate through the returned results const XNKID sessionID = pSessionDetails->sessionInfo.sessionID; if ( !memcmp( &sessionID, &zero, sizeof( sessionID ) ) ) { bIsSessionDeleted = TRUE; } if ( pSessionDetails ) { delete [] pSessionDetails; } return bIsSessionDeleted; } //------------------------------------------------------------------------ // Name: IsPlayerInSession() // Desc: Uses XSessionGetDetails API to determine if a player is in the session //------------------------------------------------------------------------ BOOL SessionManager::IsPlayerInSession( const XUID xuidPlayer, const DWORD dwUserIndex ) const { if( m_hSession == INVALID_HANDLE_VALUE || m_hSession == NULL ) { DebugSpew( "SessionManager::IsPlayerInSession - Session handle invalid. Perhaps session has been deleted?\n" ); return FALSE; } // Call XSessionGetDetails first time to get back the size // of the results buffer we need DWORD cbResults = 0; DWORD ret = XSessionGetDetails( m_hSession, &cbResults, NULL, NULL ); if( ( ret != ERROR_INSUFFICIENT_BUFFER ) || ( cbResults == 0 ) ) { DebugSpew( "SessionManager::IsPlayerInSession - Failed on first call to XSessionGetDetails, hr=0x%08x\n", ret ); return FALSE; } // Increase our buffer size to include an estimate of the maximum number // of players allowed in the session const DWORD dwMaxMembers = m_Slots[SLOTS_TOTALPUBLIC] + m_Slots[SLOTS_TOTALPRIVATE]; cbResults += dwMaxMembers * sizeof(XSESSION_MEMBER); XSESSION_LOCAL_DETAILS* pSessionDetails = (XSESSION_LOCAL_DETAILS*)new BYTE[ cbResults ]; if( pSessionDetails == NULL ) { FatalError( "SessionManager::IsPlayerInSession - Failed to allocate buffer.\n" ); } // Call second time to fill our results buffer ret = XSessionGetDetails( m_hSession, &cbResults, pSessionDetails, NULL ); if( ret != ERROR_SUCCESS ) { DebugSpew( "SessionManager::IsPlayerInSession - XSessionGetDetails failed with error %d\n", ret ); return FALSE; } const BOOL bIsValidUserIndex = ( dwUserIndex < XUSER_MAX_COUNT ); BOOL bIsInSession = FALSE; for ( DWORD i = 0; i < pSessionDetails->dwReturnedMemberCount; ++i ) { if( ( bIsValidUserIndex && ( pSessionDetails->pSessionMembers[i].dwUserIndex == dwUserIndex ) ) || ( xuidPlayer == pSessionDetails->pSessionMembers[i].xuidOnline ) ) { bIsInSession = TRUE; break; } } if ( pSessionDetails ) { delete [] pSessionDetails; } return bIsInSession; } //------------------------------------------------------------------------ // Name: DebugDumpSessionDetails() // Desc: Dumps session deletes //------------------------------------------------------------------------ VOID SessionManager::DebugDumpSessionDetails() const { #ifdef _DEBUG if( m_hSession == INVALID_HANDLE_VALUE || m_hSession == NULL ) { DebugSpew( "SessionManager::DebugDumpSessionDetails - Session handle invalid. Perhaps session has been deleted?\n" ); return; } // Call XSessionGetDetails first time to get back the size // of the results buffer we need DWORD cbResults = 0; DWORD ret = XSessionGetDetails( m_hSession, &cbResults, NULL, NULL ); if( ( ret != ERROR_INSUFFICIENT_BUFFER ) || ( cbResults == 0 ) ) { DebugSpew( "SessionManager::DebugDumpSessionDetails - Failed on first call to XSessionGetDetails, hr=0x%08x\n", ret ); return; } // Increase our buffer size to include an estimate of the maximum number // of players allowed in the session const DWORD dwMaxMembers = m_Slots[SLOTS_TOTALPUBLIC] + m_Slots[SLOTS_TOTALPRIVATE]; cbResults += dwMaxMembers * sizeof(XSESSION_MEMBER); XSESSION_LOCAL_DETAILS* pSessionDetails = (XSESSION_LOCAL_DETAILS*)new BYTE[ cbResults ]; if( pSessionDetails == NULL ) { FatalError( "SessionManager::DebugDumpSessionDetails - Failed to allocate buffer.\n" ); } // Call second time to fill our results buffer ret = XSessionGetDetails( m_hSession, &cbResults, pSessionDetails, NULL ); if( ret != ERROR_SUCCESS ) { DebugSpew( "SessionManager::DebugDumpSessionDetails - XSessionGetDetails failed with error %d\n", ret ); return; } // Iterate through the returned results DebugSpew( "***************** DebugDumpSessionDetails *****************\n" \ "instance: %p\n" \ "sessionID: %016I64X\n" \ "Matchmaking session?: %s\n" \ "m_hSession: %p\n" \ "bIsHost: %d\n" \ "sessionstate: %s\n" \ "qwSessionNonce: %I64u\n" \ "dwUserIndexHost: %d\n" \ "dwGameType: %d\n" \ "dwGameMode: %d\n" \ "dwFlags: 0x%x\n" \ "dwMaxPublicSlots: %d\n" \ "dwMaxPrivateSlots: %d\n" \ "dwAvailablePublicSlots: %d\n" \ "dwAvailablePrivateSlots: %d\n" \ "dwActualMemberCount: %d\n" \ "dwReturnedMemberCount: %d\n" \ "xnkidArbitration: %016I64X\n", this, GetSessionIDAsInt(), ( HasSessionFlags( XSESSION_CREATE_USES_MATCHMAKING ) ) ? "Yes" : "No", m_hSession, m_bIsHost, g_astrSessionState[m_SessionState], m_qwSessionNonce, pSessionDetails->dwUserIndexHost, pSessionDetails->dwGameType, pSessionDetails->dwGameMode, pSessionDetails->dwFlags, pSessionDetails->dwMaxPublicSlots, pSessionDetails->dwMaxPrivateSlots, pSessionDetails->dwAvailablePublicSlots, pSessionDetails->dwAvailablePrivateSlots, pSessionDetails->dwActualMemberCount, pSessionDetails->dwReturnedMemberCount, XNKIDToInt64( pSessionDetails->xnkidArbitration ) ); for ( DWORD i = 0; i < pSessionDetails->dwReturnedMemberCount; ++i ) { DebugSpew( "***************** XSESSION_MEMBER %d *****************\n" \ "Online XUID: 0x%016I64X\n" \ "dwUserIndex: %d\n" \ "dwFlags: 0x%x\n", i, pSessionDetails->pSessionMembers[i].xuidOnline, pSessionDetails->pSessionMembers[i].dwUserIndex, pSessionDetails->pSessionMembers[i].dwFlags ); } if ( pSessionDetails ) { delete [] pSessionDetails; } #endif } //------------------------------------------------------------------------ // Name: DebugValidateExpectedSlotCounts() // Desc: Makes sure slot counts are consistent with what is stored with // the XSession //------------------------------------------------------------------------ BOOL SessionManager::DebugValidateExpectedSlotCounts( const BOOL bBreakOnDifferent ) const { BOOL bSlotCountsDiffer = FALSE; assert (m_SessionState < SessionStateCount); #ifdef _DEBUG if( m_hSession == INVALID_HANDLE_VALUE || m_hSession == NULL ) { DebugSpew( "SessionManager::DebugValidateExpectedSlotCounts - Session handle invalid. Perhaps session has been deleted?\n" ); return !bSlotCountsDiffer; } // Call XSessionGetDetails first time to get back the size // of the results buffer we need DWORD cbResults = 0; DWORD ret = XSessionGetDetails( m_hSession, &cbResults, NULL, NULL ); if( ( ret != ERROR_INSUFFICIENT_BUFFER ) || ( cbResults == 0 ) ) { DebugSpew( "SessionManager::DebugValidateExpectedSlotCounts - Failed on first call to XSessionGetDetails, hr=0x%08x\n", ret ); return FALSE; } XSESSION_LOCAL_DETAILS* pSessionDetails = (XSESSION_LOCAL_DETAILS*)new BYTE[ cbResults ]; if( pSessionDetails == NULL ) { FatalError( "SessionManager::DebugValidateExpectedSlotCounts - Failed to allocate buffer.\n" ); } // Call second time to fill our results buffer ret = XSessionGetDetails( m_hSession, &cbResults, pSessionDetails, NULL ); if( ret != ERROR_SUCCESS ) { DebugSpew( "SessionManager::DebugValidateExpectedSlotCounts - XSessionGetDetails failed with error %d\n", ret ); return FALSE; } const XNKID sessionID = pSessionDetails->sessionInfo.sessionID; const DWORD dwMaxPublicSlots = m_Slots[SLOTS_TOTALPUBLIC]; const DWORD dwMaxPrivateSlots = m_Slots[SLOTS_TOTALPRIVATE]; const DWORD dwAvailablePublicSlots = m_Slots[SLOTS_TOTALPUBLIC] - m_Slots[SLOTS_FILLEDPUBLIC]; const DWORD dwAvailablePrivateSlots = m_Slots[SLOTS_TOTALPRIVATE] - m_Slots[SLOTS_FILLEDPRIVATE]; bSlotCountsDiffer = ( pSessionDetails->dwMaxPublicSlots != dwMaxPublicSlots || pSessionDetails->dwMaxPrivateSlots != dwMaxPrivateSlots ); // XSessionGetDetails only returns dwAvailablePublicSlots and dwAvailablePrivateSlots data // for: // 1. matchmaking sessions, // 2. sessions that are joinable during gameplay, // 3. sessions that aren't deleted // // Therefore it only makes sense to compare against are expected slot counts if all of // these conditions are met const BOOL bIsMatchmakingSession = HasSessionFlags( XSESSION_CREATE_USES_MATCHMAKING ); const BOOL bJoinable = !HasSessionFlags( XSESSION_CREATE_USES_ARBITRATION ) && !HasSessionFlags( XSESSION_CREATE_JOIN_IN_PROGRESS_DISABLED ); if( bIsMatchmakingSession && ( m_SessionState != SessionStateDeleted ) && ( ( m_SessionState != SessionStateInGame ) || ( ( m_SessionState == SessionStateInGame ) && bJoinable ) ) ) { bSlotCountsDiffer |= ( pSessionDetails->dwAvailablePublicSlots != dwAvailablePublicSlots || pSessionDetails->dwAvailablePrivateSlots != dwAvailablePrivateSlots ); } // Any differences detected? if( !bSlotCountsDiffer ) { goto Terminate; } // Spew expected/actual slot counts DebugSpew( "***************** DebugValidateExpectedSlotCounts *****************\n" \ "instance: %p\n" \ "sessionID: %016I64X\n" \ "m_hSession: %p\n" \ "bIsHost: %d\n" \ "sessionstate: %s\n" \ "dwMaxPublicSlots expected: %d; actual: %d\n" \ "dwMaxPrivateSlots expected: %d; actual: %d\n", this, XNKIDToInt64( sessionID ), m_hSession, m_bIsHost, g_astrSessionState[m_SessionState], dwMaxPublicSlots, pSessionDetails->dwMaxPublicSlots, dwMaxPrivateSlots, pSessionDetails->dwMaxPrivateSlots ); if( HasSessionFlags( XSESSION_CREATE_USES_MATCHMAKING ) ) { DebugSpew( "dwAvailablePublicSlots expected: %d; actual: %d\n" \ "dwAvailablePrivateSlots expected: %d; actual: %d\n", dwAvailablePublicSlots, pSessionDetails->dwAvailablePublicSlots, dwAvailablePrivateSlots, pSessionDetails->dwAvailablePrivateSlots ); } if( bBreakOnDifferent & bSlotCountsDiffer ) { DebugBreak(); } Terminate: if ( pSessionDetails ) { delete [] pSessionDetails; } #endif return !bSlotCountsDiffer; } //------------------------------------------------------------------------ // Name: GetSessionCreationReason() // Desc: Retrieves session creation reason //------------------------------------------------------------------------ SessionCreationReason SessionManager::GetSessionCreationReason( VOID ) const { return m_SessionCreationReason; } //------------------------------------------------------------------------ // Name: GetSessionState() // Desc: Retrieves current session state //------------------------------------------------------------------------ SessionState SessionManager::GetSessionState( VOID ) const { return m_SessionState; } //------------------------------------------------------------------------ // Name: GetSessionStateString() // Desc: Retrieves current session state //------------------------------------------------------------------------ const char* SessionManager::GetSessionStateString( VOID ) const { return g_astrSessionState[m_SessionState]; } //------------------------------------------------------------------------ // Name: SetSessionOwner() // Desc: Sets current session owner //------------------------------------------------------------------------ VOID SessionManager::SetSessionOwner( const DWORD dwOwnerController ) { m_dwOwnerController = dwOwnerController; XUserGetXUID( m_dwOwnerController, &m_xuidOwner ); } //------------------------------------------------------------------------ // Name: GetSessionOwner() // Desc: Retrieves current session owner //------------------------------------------------------------------------ DWORD SessionManager::GetSessionOwner( VOID ) const { return m_dwOwnerController; } //------------------------------------------------------------------------ // Name: GetSessionOwner() // Desc: Retrieves current session owner XUID //------------------------------------------------------------------------ XUID SessionManager::GetSessionOwnerXuid( VOID ) const { return m_xuidOwner; } //------------------------------------------------------------------------ // Name: IsSessionOwner() // Desc: Retrieves current session owner //------------------------------------------------------------------------ BOOL SessionManager::IsSessionOwner( const DWORD dwController ) const { return ( dwController == m_dwOwnerController ); } //------------------------------------------------------------------------ // Name: IsSessionOwner() // Desc: Retrieves current session owner //------------------------------------------------------------------------ BOOL SessionManager::IsSessionOwner( const XUID xuidOwner ) const { return ( xuidOwner == m_xuidOwner ); } //------------------------------------------------------------------------ // Name: IsSessionHost() // Desc: True if this SessionManager instance is the session host, // else false //------------------------------------------------------------------------ BOOL SessionManager::IsSessionHost( VOID ) const { return m_bIsHost; } //------------------------------------------------------------------------ // Name: MakeSessionHost() // Desc: Make this SessionManager instance the session host. //------------------------------------------------------------------------ VOID SessionManager::MakeSessionHost( VOID ) { m_bIsHost = TRUE; } //------------------------------------------------------------------------ // Name: GetSessionNonce() // Desc: Function to retrieve current session nonce //------------------------------------------------------------------------ ULONGLONG SessionManager::GetSessionNonce( VOID ) const { return m_qwSessionNonce; } //------------------------------------------------------------------------ // Name: SetSessionNonce() // Desc: Function to set the session nonce // Only non-hosts should ever call this method //------------------------------------------------------------------------ VOID SessionManager::SetSessionNonce( const ULONGLONG qwNonce ) { if( m_bIsHost ) { FatalError( "Only non-hosts should call this function!\n" ); } m_qwSessionNonce = qwNonce; DebugDumpSessionDetails(); } //------------------------------------------------------------------------ // Name: SetHostInAddr() // Desc: Sets the IN_ADDR of the session host //------------------------------------------------------------------------ VOID SessionManager::SetHostInAddr( const IN_ADDR& inaddr ) { m_HostInAddr = inaddr; } //------------------------------------------------------------------------ // Name: GetHostInAddr() // Desc: Returns the IN_ADDR of the session host //------------------------------------------------------------------------ IN_ADDR SessionManager::GetHostInAddr( VOID ) const { return m_HostInAddr; } //------------------------------------------------------------------------ // Name: GetSessionID() // Desc: Function to retrieve current session ID //------------------------------------------------------------------------ XNKID SessionManager::GetSessionID( VOID ) const { return m_SessionInfo.sessionID; } //------------------------------------------------------------------------ // Name: GetSessionIDAsInt() // Desc: Function to retrieve current session ID as an __int64 //------------------------------------------------------------------------ __int64 SessionManager::GetSessionIDAsInt( VOID ) const { // XNKID's are big-endian. Convert to little-endian if needed. #ifdef LIVE_ON_WINDOWS XNKID sessionID = m_SessionInfo.sessionID; for( BYTE i = 0; i < 4; ++i ) { BYTE temp = (BYTE)( *( (BYTE*)&sessionID + i ) ); //temp = sessionID[ i ] *( (BYTE*)&sessionID + i ) = (BYTE)( *( (BYTE*)&sessionID + 8 - i - 1 ) ); //sessionID[ i ] = sessionID[ 8 - i - 1 ] *( (BYTE*)&sessionID + 8 - i - 1 ) = temp; //sessionID[ 8 - i - 1 ] = temp } return *(const __int64*)&sessionID; #else return *(const __int64*)&m_SessionInfo.sessionID; #endif } //------------------------------------------------------------------------ // Name: GetMigratedSessionID() // Desc: Function to retrieve the session ID of the session while // it is being migrated. This method can only be called // when this session manager instance is actively migrating a session //------------------------------------------------------------------------ XNKID SessionManager::GetMigratedSessionID( VOID ) const { if( !( m_SessionState >= SessionStateMigrateHost && m_SessionState <= SessionStateMigratedHost ) ) { FatalError( "GetMigratedSessionID called in state %s!\n", GetSessionStateString() ); } return m_migratedSessionID; } //------------------------------------------------------------------------ // Name: SetSessionState() // Desc: Sets current session state //------------------------------------------------------------------------ VOID SessionManager::SetSessionState( const SessionState newState ) { m_SessionState = newState; } //------------------------------------------------------------------------ // Name: CheckSessionState() // Desc: Checks if session in the expected state //------------------------------------------------------------------------ BOOL SessionManager::CheckSessionState( const SessionState expectedState ) const { SessionState actual = GetSessionState(); if( actual != expectedState ) { FatalError( "SessionManager instance in invalid state. Expected: %d; Got: %d\n", expectedState, actual ); } return TRUE; } //------------------------------------------------------------------------ // Name: GetRegistrationResults() // Desc: Retrieves last results from registering this client for // arbitratrion //------------------------------------------------------------------------ const PXSESSION_REGISTRATION_RESULTS SessionManager::GetRegistrationResults() const { return (const PXSESSION_REGISTRATION_RESULTS)m_pRegistrationResults; } //------------------------------------------------------------------------ // Name: SwitchToState() // Desc: Changes to a new session state and performs initialization // for the new state //------------------------------------------------------------------------ VOID SessionManager::SwitchToState( SessionState newState ) { // Ignore transitions to the same state if( m_SessionState == newState ) { return; } // If we're in state SessionStateMigratedHost, force a switch to // the state we were in prior to migration if( m_SessionState == SessionStateMigratedHost ) { DebugSpew( "SessionManager %016I64X (instance %p): Detected to be in state SessionStateMigratedHost. " \ "Switching to correct pre-migration state\n", XNKIDToInt64( m_SessionInfo.sessionID ), this ); SwitchToPreHostMigrationState(); } assert( m_SessionState < _countof( g_astrSessionState ) ); DebugSpew( "SessionManager %016I64X (instance %p): Switching from session state %s to %s\n", XNKIDToInt64( m_SessionInfo.sessionID ), this, g_astrSessionState[m_SessionState], g_astrSessionState[newState] ); // Clean up from the previous state switch( m_SessionState ) { case SessionStateDeleted: //Reset(); // Clear out our slots and update our presence info m_Slots[ SLOTS_FILLEDPUBLIC ] = 0; m_Slots[ SLOTS_FILLEDPRIVATE ] = 0; m_Slots[ SLOTS_ZOMBIEPUBLIC ] = 0; m_Slots[ SLOTS_ZOMBIEPRIVATE ] = 0; if( m_pRegistrationResults ) { delete[] m_pRegistrationResults; m_pRegistrationResults = NULL; } break; case SessionStateMigratedHost: m_bIsMigratedSessionHost = FALSE; break; case SessionStateRegistering: case SessionStateInGame: case SessionStateNone: case SessionStateCreating: case SessionStateWaitingForRegistration: case SessionStateStarting: case SessionStateEnding: case SessionStateDeleting: default: break; } // Initialize the next state switch( newState ) { case SessionStateCreated: if( !IsSessionHost() ) { // Re-entering this state is a bad thing, since // that would wipe out the session nonce assert( m_SessionState != SessionStateCreated ); // XSessionCreate would have // returned a 0 session nonce, // so set our session nonce // to a random value that we'll // replace once we get the // true nonce from the session host int retVal = XNetRandom( (BYTE *)&m_qwSessionNonce, sizeof( m_qwSessionNonce ) ); if ( retVal ) { FatalError( "XNetRandom failed: %d\n", retVal ); } DebugDumpSessionDetails(); } break; case SessionStateMigratedHost: // Copy m_NewSessionInfo into m_SessionInfo // and zero out m_NewSessionInfo m_SessionInfo = m_NewSessionInfo; ZeroMemory( &m_NewSessionInfo, sizeof( XSESSION_INFO ) ); break; case SessionStateEnded: // If this is an arbitrated session, we might have slots occupied by zombies. Free up those slots // and zero out our zombie slot counts if( m_dwSessionFlags & XSESSION_CREATE_USES_ARBITRATION ) { m_Slots[ SLOTS_FILLEDPRIVATE ] -= m_Slots[ SLOTS_ZOMBIEPRIVATE ]; m_Slots[ SLOTS_FILLEDPRIVATE ] = max( m_Slots[ SLOTS_FILLEDPRIVATE ], 0 ); m_Slots[ SLOTS_FILLEDPUBLIC ] -= m_Slots[ SLOTS_ZOMBIEPUBLIC ]; m_Slots[ SLOTS_FILLEDPUBLIC ] = max( m_Slots[ SLOTS_FILLEDPUBLIC ], 0 ); m_Slots[ SLOTS_ZOMBIEPRIVATE ] = 0; m_Slots[ SLOTS_ZOMBIEPUBLIC ] = 0; } break; case SessionStateDeleted: if( ( m_hSession != INVALID_HANDLE_VALUE ) && ( m_hSession != NULL ) ) { XCloseHandle( m_hSession ); m_hSession = NULL; } break; case SessionStateNone: case SessionStateIdle: case SessionStateWaitingForRegistration: case SessionStateRegistered: case SessionStateInGame: default: break; } m_SessionState = newState; } //------------------------------------------------------------------------ // Name: NotifyOverlappedOperationCancelled() // Desc: Lets this instance know that the current overlapped operation // was cancelled. //------------------------------------------------------------------------ HRESULT SessionManager::NotifyOverlappedOperationCancelled( const XOVERLAPPED* const pXOverlapped ) { // // Only certain states can be rolled back to the previous state switch( m_SessionState ) { case SessionStateCreating: m_SessionState = SessionStateNone; break; case SessionStateRegistering: m_SessionState = SessionStateIdle; break; case SessionStateStarting: m_SessionState = HasSessionFlags( XSESSION_CREATE_USES_ARBITRATION ) ? SessionStateRegistered : SessionStateIdle; break; case SessionStateEnding: m_SessionState = SessionStateInGame; break; case SessionStateDeleting: m_SessionState = SessionStateEnded; break; } return S_OK; } //------------------------------------------------------------------------ // Name: SwitchToPreHostMigrationState() // Desc: Switches the current session state back to what it was // prior to host migration //------------------------------------------------------------------------ VOID SessionManager::SwitchToPreHostMigrationState() { // We can only transition to this state from SessionStateMigratedHost assert( m_SessionState == SessionStateMigratedHost ); // Zero out m_migratedSessionID ZeroMemory( &m_migratedSessionID, sizeof( XNKID ) ); // Return session state to what it was before migration started // and set m_migratedSessionState to a blank state m_SessionState = m_migratedSessionState; m_migratedSessionState = SessionStateNone; m_bIsMigratedSessionHost = FALSE; DebugDumpSessionDetails(); } //------------------------------------------------------------------------ // Name: HasSessionFlags() // Desc: Checks if passed-in flags are set for the current session //------------------------------------------------------------------------ BOOL SessionManager::HasSessionFlags( const DWORD dwFlags ) const { BOOL bHasFlags = FALSE; // What flags in m_dwSessionFlags and dwFlags are different? DWORD dwDiffFlags = m_dwSessionFlags ^ dwFlags; // If none of dwDiffFlags are in dwFlags, // we have a match if( ( dwDiffFlags & dwFlags ) == 0 ) { bHasFlags = TRUE; } return bHasFlags; } //------------------------------------------------------------------------ // Name: FlipSessionFlags() // Desc: XORs the state of the current session's // flags with that of the passed-in flags //------------------------------------------------------------------------ VOID SessionManager::FlipSessionFlags( const DWORD dwFlags ) { m_dwSessionFlags ^= dwFlags; DebugSpew( "FlipSessionFlags: New session flags: %d\n", m_dwSessionFlags ); } //------------------------------------------------------------------------ // Name: ClearSessionFlags() // Desc: Clear the passed-in flags for the // current session //------------------------------------------------------------------------ VOID SessionManager::ClearSessionFlags( const DWORD dwFlags ) { m_dwSessionFlags &= ~dwFlags; DebugSpew( "ClearSessionFlags: New session flags: %d\n", m_dwSessionFlags ); } //------------------------------------------------------------------------ // Name: SetSessionInfo() // Desc: Set session info data. This only be called outside of an // active session //------------------------------------------------------------------------ VOID SessionManager::SetSessionInfo( const XSESSION_INFO& session_info ) { SessionState actual = GetSessionState(); if( m_SessionState > SessionStateCreating && m_SessionState < SessionStateDelete ) { FatalError( "SessionManager instance in invalid state: %s\n", g_astrSessionState[actual] ); } m_SessionInfo = session_info; } //------------------------------------------------------------------------ // Name: SetNewSessionInfo() // Desc: Set session info data for the new session we will migrate this // session to. This only be called inside of an active session //------------------------------------------------------------------------ VOID SessionManager::SetNewSessionInfo( const XSESSION_INFO& session_info, const BOOL bIsNewSessionHost ) { SessionState actual = GetSessionState(); if( m_SessionState < SessionStateCreated || m_SessionState >= SessionStateDelete ) { FatalError( "SessionManager instance in invalid state: %d\n", actual ); } m_NewSessionInfo = session_info; m_bIsMigratedSessionHost = bIsNewSessionHost; // Cache current session ID for a possible host migration scenario.. memcpy( &m_migratedSessionID, &m_SessionInfo.sessionID, sizeof( XNKID ) ); } //------------------------------------------------------------------------ // Name: SetSessionFlags() // Desc: Set session flags. Optionally first clears all currently set // flags. This only be called outside of an active session //------------------------------------------------------------------------ VOID SessionManager::SetSessionFlags( const DWORD dwFlags, const BOOL fClearExisting ) { SessionState actual = GetSessionState(); if( m_SessionState > SessionStateCreating && m_SessionState < SessionStateDelete ) { FatalError( "SessionManager instance in invalid state: %s\n", g_astrSessionState[actual] ); } if( fClearExisting ) { m_dwSessionFlags = 0; } m_dwSessionFlags |= dwFlags; DebugSpew( "SetSessionFlags: New session flags: %d\n", m_dwSessionFlags ); } //------------------------------------------------------------------------ // Name: GetSessionFlags() // Desc: Returns current session flags //------------------------------------------------------------------------ DWORD SessionManager::GetSessionFlags() const { return m_dwSessionFlags; } //------------------------------------------------------------------------ // Name: GetSessionInfo() // Desc: Returns current XSESSION_INFO //------------------------------------------------------------------------ const XSESSION_INFO& SessionManager::GetSessionInfo() const { return m_SessionInfo; } //------------------------------------------------------------------------ // Name: GetMaxSlotCounts() // Desc: Returns current maximum slot counts //------------------------------------------------------------------------ VOID SessionManager::GetMaxSlotCounts( DWORD& dwMaxPublicSlots, DWORD& dwMaxPrivateSlots ) const { dwMaxPublicSlots = m_Slots[SLOTS_TOTALPUBLIC]; dwMaxPrivateSlots = m_Slots[SLOTS_TOTALPRIVATE]; // DebugValidateExpectedSlotCounts(); } //------------------------------------------------------------------------ // Name: GetFilledSlotCounts() // Desc: Returns current filled slot counts //------------------------------------------------------------------------ VOID SessionManager::GetFilledSlotCounts( DWORD& dwFilledPublicSlots, DWORD& dwFilledPrivateSlots ) const { dwFilledPublicSlots = m_Slots[SLOTS_FILLEDPUBLIC]; dwFilledPrivateSlots = m_Slots[SLOTS_FILLEDPRIVATE]; // DebugValidateExpectedSlotCounts(); } //------------------------------------------------------------------------ // Name: SetMaxSlotCounts() // Desc: Sets current maximum slot counts //------------------------------------------------------------------------ VOID SessionManager::SetMaxSlotCounts( const DWORD dwMaxPublicSlots, const DWORD dwMaxPrivateSlots ) { #ifdef _DEBUG DebugSpew( "SetMaxSlotCounts(%016I64X): Old: [%d, %d, %d, %d]\n", XNKIDToInt64( m_SessionInfo.sessionID ), m_Slots[SLOTS_TOTALPUBLIC], m_Slots[SLOTS_TOTALPRIVATE], m_Slots[SLOTS_FILLEDPUBLIC], m_Slots[SLOTS_FILLEDPRIVATE]); #endif m_Slots[SLOTS_TOTALPUBLIC] = dwMaxPublicSlots; m_Slots[SLOTS_TOTALPRIVATE] = dwMaxPrivateSlots; #ifdef _DEBUG DebugSpew( "SetMaxSlotCounts(%016I64X): New: [%d, %d, %d, %d]\n", XNKIDToInt64( m_SessionInfo.sessionID ), m_Slots[SLOTS_TOTALPUBLIC], m_Slots[SLOTS_TOTALPRIVATE], m_Slots[SLOTS_FILLEDPUBLIC], m_Slots[SLOTS_FILLEDPRIVATE]); #endif } //------------------------------------------------------------------------ // Name: SetFilledSlotCounts() // Desc: Sets current filled slot counts //------------------------------------------------------------------------ VOID SessionManager::SetFilledSlotCounts( const DWORD dwFilledPublicSlots, DWORD dwFilledPrivateSlots ) { #ifdef _DEBUG DebugSpew( "SetFilledSlotCounts(%016I64X): Old: [%d, %d, %d, %d]\n", XNKIDToInt64( m_SessionInfo.sessionID ), m_Slots[SLOTS_TOTALPUBLIC], m_Slots[SLOTS_TOTALPRIVATE], m_Slots[SLOTS_FILLEDPUBLIC], m_Slots[SLOTS_FILLEDPRIVATE]); #endif m_Slots[SLOTS_FILLEDPUBLIC] = dwFilledPublicSlots; m_Slots[SLOTS_FILLEDPRIVATE] = dwFilledPrivateSlots; #ifdef _DEBUG DebugSpew( "SetFilledSlotCounts(%016I64X): New: [%d, %d, %d, %d]\n", XNKIDToInt64( m_SessionInfo.sessionID ), m_Slots[SLOTS_TOTALPUBLIC], m_Slots[SLOTS_TOTALPRIVATE], m_Slots[SLOTS_FILLEDPUBLIC], m_Slots[SLOTS_FILLEDPRIVATE]); #endif } //------------------------------------------------------------------------ // Name: GetSessionError() // Desc: Returns session error string //------------------------------------------------------------------------ WCHAR* SessionManager::GetSessionError() const { return m_strSessionError; } //------------------------------------------------------------------------ // Name: SetSessionError() // Desc: Sets session error string //------------------------------------------------------------------------ VOID SessionManager::SetSessionError( WCHAR* error ) { m_strSessionError = error; } //-------------------------------------------------------------------------------------- // Name: StartQoSListener() // Desc: Turn on the Quality of Service Listener for the current session //-------------------------------------------------------------------------------------- VOID SessionManager::StartQoSListener( BYTE* data, const UINT dataLen, const DWORD bitsPerSec ) { DWORD flags = XNET_QOS_LISTEN_SET_DATA; if( bitsPerSec ) { flags |= XNET_QOS_LISTEN_SET_BITSPERSEC; } if( !m_bUsingQoS ) { flags |= XNET_QOS_LISTEN_ENABLE; } DWORD dwRet; dwRet = XNetQosListen( &( m_SessionInfo.sessionID ), data, dataLen, bitsPerSec, flags ); if( ERROR_SUCCESS != dwRet ) { FatalError( "Failed to start QoS listener, error 0x%08x\n", dwRet ); } m_bUsingQoS = TRUE; } //-------------------------------------------------------------------------------------- // Name: StopQoSListener() // Desc: Turn off the Quality of Service Listener for the current session //-------------------------------------------------------------------------------------- VOID SessionManager::StopQoSListener() { if( m_bUsingQoS ) { DWORD dwRet; dwRet = XNetQosListen( &( m_SessionInfo.sessionID ), NULL, 0, 0, XNET_QOS_LISTEN_RELEASE ); if( ERROR_SUCCESS != dwRet ) { DebugSpew( "Warning: Failed to stop QoS listener, error 0x%08x\n", dwRet ); } m_bUsingQoS = FALSE; } } //------------------------------------------------------------------------ // Name: CreateSession() // Desc: Creates a session //------------------------------------------------------------------------ HRESULT SessionManager::CreateSession( XOVERLAPPED* pXOverlapped ) { // Make sure our instance is in the right state SessionState actual = GetSessionState(); if( actual != SessionStateNone && actual != SessionStateDeleted ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } // Modify session flags if host if( m_bIsHost ) { m_dwSessionFlags |= XSESSION_CREATE_HOST; } else { // Turn off host bit m_dwSessionFlags &= ~XSESSION_CREATE_HOST; } // If we're just in a Matchmaking session, we can only specify the // XSESSION_CREATE_JOIN_IN_PROGRESS_DISABLED modifier if( !( m_dwSessionFlags & XSESSION_CREATE_USES_PRESENCE ) && ( m_dwSessionFlags & XSESSION_CREATE_USES_MATCHMAKING ) && ( m_dwSessionFlags & XSESSION_CREATE_MODIFIERS_MASK ) ) { // turn off all modifiers m_dwSessionFlags &= ~XSESSION_CREATE_MODIFIERS_MASK; // turn on XSESSION_CREATE_JOIN_IN_PROGRESS_DISABLED m_dwSessionFlags |= XSESSION_CREATE_JOIN_IN_PROGRESS_DISABLED; } // Call XSessionCreate DWORD ret = XSessionCreate( m_dwSessionFlags, m_dwOwnerController, m_Slots[SLOTS_TOTALPRIVATE], m_Slots[SLOTS_TOTALPUBLIC], &m_qwSessionNonce, &m_SessionInfo, pXOverlapped, &m_hSession ); if( pXOverlapped && ( ret == ERROR_IO_PENDING ) ) { SwitchToState( SessionStateCreating ); } else if( !pXOverlapped ) { SwitchToState( SessionStateCreated ); } return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: StartSession() // Desc: Starts the current session //------------------------------------------------------------------------ HRESULT SessionManager::StartSession( XOVERLAPPED* pXOverlapped ) { DWORD ret = XSessionStart( m_hSession, 0, pXOverlapped ); if( pXOverlapped && ( ret == ERROR_IO_PENDING ) ) { SwitchToState( SessionStateStarting ); } else if( !pXOverlapped ) { SwitchToState( SessionStateInGame ); } return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: EndSession() // Desc: Ends the current session //------------------------------------------------------------------------ HRESULT SessionManager::EndSession( XOVERLAPPED* pXOverlapped ) { DWORD ret = XSessionEnd( m_hSession, pXOverlapped ); if( pXOverlapped && ( ret == ERROR_IO_PENDING ) ) { SwitchToState( SessionStateEnding ); } else if( !pXOverlapped ) { SwitchToState( SessionStateEnded ); } return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: DeleteSession() // Desc: Deletes the current session //------------------------------------------------------------------------ HRESULT SessionManager::DeleteSession( XOVERLAPPED* pXOverlapped ) { // Make sure our instance is in the right state SessionState actual = GetSessionState(); if( actual < SessionStateCreated ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } SwitchToState( SessionStateDelete ); // Stop QoS listener if it's running StopQoSListener(); // Call XSessionDelete DWORD ret = XSessionDelete( m_hSession, pXOverlapped ); if( pXOverlapped && ( ret == ERROR_IO_PENDING ) ) { SwitchToState( SessionStateDeleting ); } else if( !pXOverlapped ) { SwitchToState( SessionStateDeleted ); } return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: MigrateSession() // Desc: Migrates the current session //------------------------------------------------------------------------ HRESULT SessionManager::MigrateSession( XOVERLAPPED* pXOverlapped ) { // Make sure our instance is in the right state SessionState actual = GetSessionState(); if( actual < SessionStateCreated || actual >= SessionStateDelete ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } m_migratedSessionState = m_SessionState; DWORD ret = XSessionMigrateHost( m_hSession, ( m_bIsMigratedSessionHost ) ? m_dwOwnerController : XUSER_INDEX_NONE, &m_NewSessionInfo, pXOverlapped ); if( pXOverlapped && ( ret == ERROR_IO_PENDING ) ) { SwitchToState( SessionStateMigratingHost ); } else if( !pXOverlapped ) { SwitchToState( SessionStateMigratedHost ); } return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: ModifySessionFlags() // Desc: Modifies session flags //------------------------------------------------------------------------ HRESULT SessionManager::ModifySessionFlags( const DWORD dwFlags, const BOOL bClearFlags, XOVERLAPPED* pXOverlapped ) { SessionState actual = GetSessionState(); if( m_SessionState <= SessionStateCreating || m_SessionState >= SessionStateDelete ) { FatalError( "SessionManager instance in invalid state: %s\n", g_astrSessionState[actual] ); } DWORD dwNewFlags = dwFlags; // If no flags in the modifiers mask are specified, do nothing if( ( dwNewFlags & XSESSION_CREATE_MODIFIERS_MASK ) == 0 ) { return ERROR_SUCCESS; } // Flags cannot be modified for arbitrated sessions if( m_dwSessionFlags & XSESSION_CREATE_USES_ARBITRATION ) { return ERROR_SUCCESS; } // Add host bit to dwFlags if host; otherwise remove if( m_bIsHost ) { dwNewFlags |= XSESSION_CREATE_HOST; } else { // Turn off host bit dwNewFlags &= ~XSESSION_CREATE_HOST; } // Apply allowable session modifier flags to our session flags if( bClearFlags ) { m_dwSessionFlags ^= dwNewFlags & MODIFY_FLAGS_ALLOWED; } else { m_dwSessionFlags |= dwNewFlags & MODIFY_FLAGS_ALLOWED; } // Re-insert host bit if host if( m_bIsHost ) { m_dwSessionFlags |= XSESSION_CREATE_HOST; } DebugSpew( "ProcessModifySessionFlagsMessage: New session flags: %d\n", m_dwSessionFlags ); DWORD ret = XSessionModify( m_hSession, m_dwSessionFlags, m_Slots[SLOTS_TOTALPUBLIC], m_Slots[SLOTS_TOTALPRIVATE], pXOverlapped ); return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: ModifySkill() // Desc: Modifies TrueSkill(TM) //------------------------------------------------------------------------ HRESULT SessionManager::ModifySkill( const DWORD dwNumXuids, const XUID* pXuids, XOVERLAPPED* pXOverlapped ) { SessionState actual = GetSessionState(); if( m_SessionState <= SessionStateCreating || m_SessionState >= SessionStateDelete ) { FatalError( "SessionManager instance in invalid state: %s\n", g_astrSessionState[actual] ); } DWORD ret = XSessionModifySkill( m_hSession, dwNumXuids, pXuids, pXOverlapped ); return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: RegisterArbitration() // Desc: Registers the current session for arbitration //------------------------------------------------------------------------ HRESULT SessionManager::RegisterArbitration( XOVERLAPPED* pXOverlapped ) { SessionState actual = GetSessionState(); if( actual < SessionStateCreated || actual >= SessionStateStarting ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } // Call once to determine size of results buffer DWORD cbRegistrationResults = 0; DWORD ret = XSessionArbitrationRegister( m_hSession, 0, m_qwSessionNonce, &cbRegistrationResults, NULL, NULL ); if( ( ret != ERROR_INSUFFICIENT_BUFFER ) || ( cbRegistrationResults == 0 ) ) { DebugSpew( "Failed on first call to XSessionArbitrationRegister, hr=0x%08x\n", ret ); return ERROR_FUNCTION_FAILED; } m_pRegistrationResults = (PXSESSION_REGISTRATION_RESULTS)new BYTE[cbRegistrationResults]; if( m_pRegistrationResults == NULL ) { DebugSpew( "Failed to allocate buffer.\n" ); return ERROR_FUNCTION_FAILED; } // Call second time to fill our results buffer ret = XSessionArbitrationRegister( m_hSession, 0, m_qwSessionNonce, &cbRegistrationResults, m_pRegistrationResults, pXOverlapped ); if( pXOverlapped && ( ret == ERROR_IO_PENDING ) ) { SwitchToState( SessionStateRegistering ); } else if( !pXOverlapped ) { SwitchToState( SessionStateRegistered ); } return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: AddLocalPlayers() // Desc: Add local players to the session //------------------------------------------------------------------------ HRESULT SessionManager::AddLocalPlayers( const DWORD dwUserCount, DWORD* pdwUserIndices, const BOOL* pfPrivateSlots, XOVERLAPPED* pXOverlapped ) { SessionState actual = GetSessionState(); if( actual < SessionStateCreating || actual >= SessionStateDelete ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } DWORD ret = ERROR_SUCCESS; // Do nothing if the session is already deleted if( m_SessionState == SessionStateDeleted ) { return HRESULT_FROM_WIN32( ret ); } for ( DWORD i = 0; i < dwUserCount; ++i ) { XUID xuid; XUserGetXUID( pdwUserIndices[i], &xuid ); DebugSpew( "Processing local user: index: %d; xuid: 0x%016I64X; bInvited: %d\n", pdwUserIndices[ i ], xuid, pfPrivateSlots[ i ] ); // If xuid is already in the session, don't re-add if( IsPlayerInSession( xuid ) ) { pdwUserIndices[ i ] = XUSER_INDEX_NONE; } } ret = XSessionJoinLocal( m_hSession, dwUserCount, pdwUserIndices, pfPrivateSlots, pXOverlapped ); // Update slot counts for ( DWORD i = 0; i < dwUserCount; ++i ) { m_Slots[ SLOTS_FILLEDPRIVATE ] += ( pfPrivateSlots[ i ] ) ? 1 : 0; m_Slots[ SLOTS_FILLEDPUBLIC ] += ( pfPrivateSlots[ i ] ) ? 0 : 1; } if( m_Slots[ SLOTS_FILLEDPRIVATE ] > m_Slots[ SLOTS_TOTALPRIVATE ] ) { DWORD diff = m_Slots[ SLOTS_FILLEDPRIVATE ] - m_Slots[ SLOTS_TOTALPRIVATE ]; m_Slots[ SLOTS_FILLEDPUBLIC ] += diff; assert( m_Slots[ SLOTS_FILLEDPUBLIC ] <= m_Slots[ SLOTS_TOTALPUBLIC ] ); if( m_Slots[ SLOTS_FILLEDPUBLIC ] > m_Slots[ SLOTS_TOTALPUBLIC ] ) { FatalError( "Too many slots filled!\n" ); } m_Slots[ SLOTS_FILLEDPRIVATE ] = m_Slots[ SLOTS_TOTALPRIVATE ]; } DebugDumpSessionDetails(); DebugValidateExpectedSlotCounts(); return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: AddRemotePlayers() // Desc: Adds remote players to the session //------------------------------------------------------------------------ HRESULT SessionManager::AddRemotePlayers( const DWORD dwXuidCount, XUID* pXuids, const BOOL* pfPrivateSlots, XOVERLAPPED* pXOverlapped ) { SessionState actual = GetSessionState(); if( actual < SessionStateCreating || actual >= SessionStateDelete ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } for ( DWORD i=0; i<dwXuidCount; ++i ) { DebugSpew( "AddRemotePlayers: 0x%016I64X; bInvited: %d\n", pXuids[ i ], pfPrivateSlots[ i ] ); } DWORD ret = ERROR_SUCCESS; // Do nothing if the session is already deleted if( m_SessionState == SessionStateDeleted ) { return HRESULT_FROM_WIN32( ret ); } for ( DWORD i = 0; i < dwXuidCount; ++i ) { DebugSpew( "Processing remote user: 0x%016I64X; bInvited: %d\n", pXuids[ i ], pfPrivateSlots[ i ] ); // If msg.m_pXuids[ i ] is already in the session, don't re-add if( IsPlayerInSession( pXuids[ i ] ) ) { pXuids[ i ] = INVALID_XUID; DebugSpew( "Remote user: 0x%016I64X already in the session!\n", pXuids[ i ] ); } } ret = XSessionJoinRemote( m_hSession, dwXuidCount, pXuids, pfPrivateSlots, pXOverlapped ); // Update slot counts for ( DWORD i = 0; i < dwXuidCount; ++i ) { m_Slots[ SLOTS_FILLEDPRIVATE ] += ( pfPrivateSlots[ i ] ) ? 1 : 0; m_Slots[ SLOTS_FILLEDPUBLIC ] += ( pfPrivateSlots[ i ] ) ? 0 : 1; } if( m_Slots[ SLOTS_FILLEDPRIVATE ] > m_Slots[ SLOTS_TOTALPRIVATE ] ) { DWORD diff = m_Slots[ SLOTS_FILLEDPRIVATE ] - m_Slots[ SLOTS_TOTALPRIVATE ]; m_Slots[ SLOTS_FILLEDPUBLIC ] += diff; assert( m_Slots[ SLOTS_FILLEDPUBLIC ] <= m_Slots[ SLOTS_TOTALPUBLIC ] ); if( m_Slots[ SLOTS_FILLEDPUBLIC ] > m_Slots[ SLOTS_TOTALPUBLIC ] ) { FatalError( "Too many slots filled!\n" ); } m_Slots[ SLOTS_FILLEDPRIVATE ] = m_Slots[ SLOTS_TOTALPRIVATE ]; } DebugDumpSessionDetails(); DebugValidateExpectedSlotCounts(); return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: RemoveLocalPlayers() // Desc: Add local players to the session //------------------------------------------------------------------------ HRESULT SessionManager::RemoveLocalPlayers( const DWORD dwUserCount, const DWORD* pdwUserIndices, const BOOL* pfPrivateSlots, XOVERLAPPED* pXOverlapped ) { SessionState actual = GetSessionState(); if( actual < SessionStateCreated || actual >= SessionStateDelete ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } DWORD ret = ERROR_SUCCESS; // Do nothing if the session is already deleted if( m_SessionState == SessionStateDeleted ) { return HRESULT_FROM_WIN32( ret ); } #ifdef _DEBUG for( DWORD i = 0; i < dwUserCount; ++i ) { XUID xuid; XUserGetXUID( i, &xuid ); DebugSpew( "%016I64X: ProcessRemoveLocalPlayerMessage: 0x%016I64X\n", GetSessionIDAsInt(), xuid ); } #endif ret = XSessionLeaveLocal( m_hSession, dwUserCount, pdwUserIndices, pXOverlapped ); // If the session is arbitrated and gameplay is happening, then the player will still be // kept in the session so stats can be reported, so we don't want to modify our slot counts const BOOL bPlayersKeptForStatsReporting = ( ( m_dwSessionFlags & XSESSION_CREATE_USES_ARBITRATION ) && ( m_SessionState == SessionStateInGame ) ); if( !bPlayersKeptForStatsReporting ) { for ( DWORD i = 0; i < dwUserCount; ++i ) { m_Slots[ SLOTS_FILLEDPRIVATE ] -= ( pfPrivateSlots[ i ] ) ? 1 : 0; m_Slots[ SLOTS_FILLEDPUBLIC ] -= ( pfPrivateSlots[ i ] ) ? 0 : 1; m_Slots[ SLOTS_FILLEDPRIVATE ] = max( m_Slots[ SLOTS_FILLEDPRIVATE ], 0 ); m_Slots[ SLOTS_FILLEDPUBLIC ] = max( m_Slots[ SLOTS_FILLEDPUBLIC ], 0 ); } } else { DebugSpew( "%016I64X: ProcessRemoveLocalPlayerMessage: Arbitrated session, so leaving players become zombies and not updating local slot counts\n", GetSessionIDAsInt() ); for ( DWORD i = 0; i < dwUserCount; ++i ) { m_Slots[ SLOTS_ZOMBIEPRIVATE ] += ( pfPrivateSlots[ i ] ) ? 1 : 0; m_Slots[ SLOTS_ZOMBIEPUBLIC ] += ( pfPrivateSlots[ i ] ) ? 0 : 1; } } DebugDumpSessionDetails(); DebugValidateExpectedSlotCounts(); return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: RemoveRemotePlayers() // Desc: Remove remote players to the session //------------------------------------------------------------------------ HRESULT SessionManager::RemoveRemotePlayers( const DWORD dwXuidCount, const XUID* pXuids, const BOOL* pfPrivateSlots, XOVERLAPPED* pXOverlapped ) { SessionState actual = GetSessionState(); if( actual < SessionStateCreated || actual >= SessionStateDelete ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } #ifdef _DEBUG for( DWORD i = 0; i < dwXuidCount; ++i ) { DebugSpew( "%016I64X: ProcessRemoveRemotePlayerMessage: 0x%016I64X\n", GetSessionIDAsInt(), pXuids[i] ); } #endif DWORD ret = XSessionLeaveRemote( m_hSession, dwXuidCount, pXuids, pXOverlapped ); { // If the session is arbitrated and gameplay is happening, then the player will still be // kept in the session so stats can be reported, so we don't want to modify our slot counts const BOOL bPlayersKeptForStatsReporting = ( ( m_dwSessionFlags & XSESSION_CREATE_USES_ARBITRATION ) && ( m_SessionState == SessionStateInGame ) ); if( !bPlayersKeptForStatsReporting ) { for ( DWORD i = 0; i < dwXuidCount; ++i ) { m_Slots[ SLOTS_FILLEDPRIVATE ] -= ( pfPrivateSlots[ i ] ) ? 1 : 0; m_Slots[ SLOTS_FILLEDPUBLIC ] -= ( pfPrivateSlots[ i ] ) ? 0 : 1; m_Slots[ SLOTS_FILLEDPRIVATE ] = max( m_Slots[ SLOTS_FILLEDPRIVATE ], 0 ); m_Slots[ SLOTS_FILLEDPUBLIC ] = max( m_Slots[ SLOTS_FILLEDPUBLIC ], 0 ); } } else { DebugSpew( "%016I64X: ProcessRemoveRemotePlayerMessage: Arbitrated session, so leaving players become zombies and not updating local slot counts\n", GetSessionIDAsInt() ); for ( DWORD i = 0; i < dwXuidCount; ++i ) { m_Slots[ SLOTS_ZOMBIEPRIVATE ] += ( pfPrivateSlots[ i ] ) ? 1 : 0; m_Slots[ SLOTS_ZOMBIEPUBLIC ] += ( pfPrivateSlots[ i ] ) ? 0 : 1; } } } DebugDumpSessionDetails(); DebugValidateExpectedSlotCounts(); return HRESULT_FROM_WIN32( ret ); } //------------------------------------------------------------------------ // Name: WriteStats() // Desc: Write stats for a player in the session //------------------------------------------------------------------------ HRESULT SessionManager::WriteStats( const XUID xuid, const DWORD dwNumViews, const XSESSION_VIEW_PROPERTIES *pViews, XOVERLAPPED* pXOverlapped ) { SessionState actual = GetSessionState(); if( actual < SessionStateInGame || actual >= SessionStateEnding ) { FatalError( "Wrong state: %s\n", g_astrSessionState[actual] ); } DebugSpew( "%016I64X: ProcessWriteStatsMessage: 0x%016I64X\n", GetSessionIDAsInt(), xuid ); DWORD ret = XSessionWriteStats( m_hSession, xuid, dwNumViews, pViews, pXOverlapped ); return HRESULT_FROM_WIN32( ret ); }

7b9abfaff982a7716f4e2d5ed654156829fa2f97

f47a5673793521f5e7efe2d0664b36d48b19ce0d

/libraries/AirSerial/AirSerial.cpp

8b602d213cb52af1c2a9ed793485a36cff1fc58f

no_license

Baseeball/lolosalarmclock

9b2b8aaa19724e2dc02de5475c49d4bf949721c5

0f33a86b3b3771bf19021374e78c0a9f1e471790

refs/heads/master

UTF-8

C++

cpp

/* AirSerial.cpp */ #include "AirSerial.h" #define STARTSIGNALLENGTH 2 #define BEGINOFPACKET ((char)B10101010) #define ENDOFPACKET ((char)B00000000) // // Constructor // AirSerial::AirSerial(HardwareSerial* _serial) { serial = _serial; clearpacket(); } // // Destructor // AirSerial::~AirSerial() { end(); } // // Public methods // // // initialize // void AirSerial::begin(long _speed) { speed = _speed; serial->begin(speed); clearpacket(); } // // de-initialize // void AirSerial::end() { } void AirSerial::beginpacket() { check1=1; check2=1; check3=1; check4=1; for(int i=0; i<=(speed/1200); i++) { serial->print((char)B11111111); serial->print((char)B11110000); serial->print((char)B11100001); serial->print((char)B11000011); serial->print((char)B10000111); serial->print((char)B11001100); serial->print((char)B10011001); serial->print((char)B10101010); }/**/ for(int i=0; i<STARTSIGNALLENGTH; i++) { serial->print(BEGINOFPACKET); } } void AirSerial::endpacket() { serial->print('$'); serial->print(check1); serial->print(check2); serial->print(check3); serial->print(check4); serial->print(ENDOFPACKET); } // // This is a home-made checksum, // it is not really good .... // void AirSerial::checksum(char b) { check1 ^= b+check4; if(check1==ENDOFPACKET) check1=1; check2 += check1^b; if(check2==ENDOFPACKET) check2=1; check3 = check3*b+check2; if(check3==ENDOFPACKET) check3=1; check4 = check4^(check3>>1); if(check4==ENDOFPACKET) check4=1; } void AirSerial::write(uint8_t b) { checksum(b); serial->Print::print(b); }; void AirSerial::receive() { if (!available && serial->available()) { if(nextbyte+1<BUFFERSIZE) { char receivedchar = (char)serial->read(); //Serial.print(receivedchar); //Serial.print(" s:"); //Serial.println(state); if(receivedchar==BEGINOFPACKET && state!=32) { state++; //Serial.println((int)state); } else { if(state>=2) { //Serial.print("!!!!!!!!!!!!!!!!1"); state = 32; } else if(state>0 && state!=32) { state=0; } //Serial.println((int)state); } if(state==32) { //Serial.print(receivedchar); buffer[nextbyte]=receivedchar; nextbyte++; if(receivedchar==ENDOFPACKET) { available=true; overflow=false; buffer[nextbyte-6]=0x00;// hide checksum; } } } else { available=true; overflow=true; buffer[BUFFERSIZE-1]=0x00; //has to be a null terminated string... } } } bool AirSerial::packetavailable() { return available; }; bool validpayload(unsigned char byte) { //Serial.println((int)byte); return (byte==9)||(byte==13)||(byte==11)||(byte==10)||(byte>=32 && byte<=126); } bool AirSerial::packetok() { for(int i=0; i<nextbyte-6; i++) { if(!validpayload(buffer[i])) return false; } check1=1; check2=1; check3=1; check4=1; //Serial.print("'"); for(int i=0; i<nextbyte-6; i++) { //Serial.print(buffer[i]); checksum(buffer[i]); } //Serial.print("'"); //Serial.println((int)xorcheck); //Serial.println((int)sumcheck); char packetcheck1 = buffer[nextbyte-5]; char packetcheck2 = buffer[nextbyte-4]; char packetcheck3 = buffer[nextbyte-3]; char packetcheck4 = buffer[nextbyte-2]; //Serial.println(packetxorcheck); //Serial.println(packetsumcheck); //Serial.println("packet checksum"); //Serial.println((int)packetxorcheck); //Serial.println((int)packetsumcheck); return (packetcheck1==check1)&&(packetcheck2==check2)&&(packetcheck3==check3)&&(packetcheck4==check4); } int AirSerial::packetlength() { return nextbyte; } bool AirSerial::packetoverflow() { return overflow; } char* AirSerial::getpacket() { return buffer; } void AirSerial::clearpacket() { state=0; nextbyte=0; available=false; overflow=false; check1=1; check2=1; check3=1; check4=1; }

d145711b461b4fd92852fb301f8cb889b4d81b93

28476e6f67b37670a87bfaed30fbeabaa5f773a2

/src/AutumnGen/test/Class.h

0e916df2d01548a8ba793491a9501dcc7f05014a

no_license

rdmenezes/autumnframework

d1aeb657cd470b67616dfcf0aacdb173ac1e96e1

d082d8dc12cc00edae5f132b7f5f6e0b6406fe1d

refs/heads/master

UTF-8

C++

h

class ClassA{ }; class ClassB{ }; class ClassA_1: public ClassA, ClassB{ };

0b8419c2aee1abe1c48378d373f520d776314826

5ac13fa1746046451f1989b5b8734f40d6445322

/minimangalore/Nebula2/code/UrbanExtreme/inc/properties/bak1/ueplayerinputproperty_ldw.h

a4d46de2499148e125ef9f5337e73c9844421545

no_license

moltenguy1/minimangalore

9f2edf7901e7392490cc22486a7cf13c1790008d

4d849672a6f25d8e441245d374b6bde4b59cbd48

refs/heads/master

UTF-8

C++

h

#ifndef PROPERTIES_UEPLAYERINPUTPRPERTY_H #define PROPERTIES_UEPLAYERINPUTPRPERTY_H #include "properties/inputproperty.h" #include "msg/ueplayerkey.h" namespace Properties { class Message::UePlayerKey; class UePlayerInputProperty : public InputProperty { public: DeclareRtti; DeclareFactory(UePlayerInputProperty); public: /// UePlayerInputProperty(); /// virtual ~UePlayerInputProperty(); /// virtual void OnBeginFrame(); protected: /// virtual void HandleInput(); /// void SendMove(const vector3& dir); void SendTurn(const float dir); void SendTurnTest(const float dir); void SendTurnTest2(const vector3& dir); void SendMoveDirection(const vector3& dir); void SendRotate(const float angle); protected: nTime moveGotoTime; }; RegisterFactory(UePlayerInputProperty); }; #endif

5305d10b677b338fc33abc67605eb38b8cea5559

2e65def61753098295cc8fda3684ddc6dc62b099

/Tooltip.cpp

d8610dd0f15f276f618719ca307a1f0ab89d63c2

no_license

JohnnyXiaoYang/wickedwidgets

3bafd6dab9fa75028a80c0a158b8563e15f4c6c6

523b3875647dcd2015de4db8979e28460a126db2

refs/heads/master

UTF-8

C++

cpp

// Tooltip.cpp: implementation of the CTooltip class. // ////////////////////////////////////////////////////////////////////// #include "stdafx.h" #include "Tooltip.h" #include <windows.h> ////////////////////////////////////////////////////////////////////// // Construction/Destruction ////////////////////////////////////////////////////////////////////// CTooltip::CTooltip() { m_hWnd = NULL; m_hwndParent = NULL; } CTooltip::~CTooltip() { } void CTooltip::NotifyTooltip(UINT uMsg, long lParam, long wParam) { // call during WM_MOUSEMOVE, WM_LBUTTONDOWN, WM_LBUTTONUP MSG msg; msg.lParam = lParam; msg.wParam = wParam; msg.message = uMsg; msg.hwnd = m_hwndParent; SendMessage(m_hWnd, TTM_RELAYEVENT, 0, (LPARAM) (LPMSG) &msg); } void CTooltip::CreateTooltip(POINT pt, TCHAR* pszTxt, HWND hwndParent) { TOOLINFO ti; HINSTANCE hInst = _Module.m_hInst; m_hWnd = CreateWindow(TOOLTIPS_CLASS, (LPSTR) NULL, TTS_ALWAYSTIP, CW_USEDEFAULT, CW_USEDEFAULT, CW_USEDEFAULT, CW_USEDEFAULT, NULL, (HMENU) NULL, hInst, NULL); if (m_hWnd == NULL) return; m_hwndParent = hwndParent; // ScreenToClient(hwndParent, &pt); ti.cbSize = sizeof(TOOLINFO); ti.uFlags = 0; ti.hwnd = m_hwndParent; ti.hinst = hInst; ti.uId = (UINT) 0; ti.lpszText = pszTxt; ti.rect.left = pt.x - 1; ti.rect.top = pt.y - 1; ti.rect.right = pt.x + 1; ti.rect.bottom = pt.y + 1; BOOL bResult = SendMessage(m_hWnd, TTM_ADDTOOL, 0, (LPARAM) (LPTOOLINFO) &ti); _ASSERT(bResult); }

0f9f024c12dace6a1a06f35a5776c36dc6a8d2e1

1bbd5854d4a2efff9ee040e3febe3f846ed3ecef

/src/scrview/capturer.cpp

0cf4bca3b347c5c768d1ed5b7079756808845ec3

no_license

amanuelg3/screenviewer

2b896452a05cb135eb7b9eb919424fe6c1ce8dd7

7fc4bb61060e785aa65922551f0e3ff8423eccb6

refs/heads/master

UTF-8

C++

cpp

#include "capturer.h" Capturer::Capturer(int fpm, QString format, int w, int h) : fpm(fpm), format(format), w(w), h(h) { if (this->fpm < 0) this->fpm = 0; screens = new QList<ScreenList>; timer = new QTimer(this); connect(timer, SIGNAL(timeout()), this, SLOT(work())); } void Capturer::work() { ScreenList *temp; temp = new ScreenList(); temp->screen = new Screenshot(format, w, h); temp->screen->newScreen(); temp->sent = false; screens->append(*temp); if (!screens->isEmpty()) { if (screens->first().sent) { delete screens->takeFirst().screen; } } } void Capturer::start() { if (this->running == false) { this->running = true; timer->start(int((fpm/60)*1000)); // start making screens, and putting them in screens list. } } void Capturer::stop() { this->running = false; timer->stop(); } QByteArray* Capturer::getScreen() { screens->first().sent = true; return screens->first().screen->getScreen(); } bool Capturer::hasScreen() { if (screens->isEmpty()) { // if list is empty. // qDebug() << "$$$$ empty list"; return false; } if (screens->first().sent) { // if first item from list is sent (not received yet, etc). // qDebug() << "$$$$ sent list"; return false; } return true; }

8313347ae3507a546963fb8d09ca489eacf4bf79

6e4f9952ef7a3a47330a707aa993247afde65597

/PROJECTS_ROOT/WireKeys/WP_asLINUX/WP_asLINUXHook/MyHook.cpp

fc050b423e9a458f3925c708a9ee5d8364a8db9e

no_license

meiercn/wiredplane-wintools

b35422570e2c4b486c3aa6e73200ea7035e9b232

134db644e4271079d631776cffcedc51b5456442

refs/heads/master

WINDOWS-1251

C++

cpp

///////////////////////////////////////////////////////////// // hooklib.c // серверная часть #define __GLOBAL_HOOK #include <windows.h> #include <stdio.h> #include <memory.h> #include "..\..\..\SmartWires\SystemUtils\Macros.h" #pragma data_seg("Shared") HHOOK g_hhook = NULL; int shMem[2]={0,0}; BOOL bActive=0; DWORD dwFlags=1; DWORD dwWasMoved=0; RECT rtLastDownPoint; long lHookActive=0; #pragma data_seg() #pragma comment(linker, "/section:Shared,rws") #define H_LA 0x001 #define H_LC 0x002 #define H_LW 0x004 #define H_LS 0x008 #define H_RA 0x010 #define H_RC 0x020 #define H_RW 0x040 #define H_RS 0x080 #define H_ANY 0x400 //-- #define H_RESTORE 0x0100 #define H_ROLLBACK 0x0200 #define H_RESTPROH 0x0400 HINSTANCE g_hinstDll = NULL; BOOL APIENTRY DllMain( HANDLE hModule, DWORD ul_reason_for_call, LPVOID lpReserved ) { BOOL bSwitchingOff=FALSE; switch (ul_reason_for_call) { case DLL_PROCESS_ATTACH: g_hinstDll = (HINSTANCE)hModule; bSwitchingOff=FALSE; break; case DLL_THREAD_ATTACH: break; case DLL_THREAD_DETACH: break; case DLL_PROCESS_DETACH: bSwitchingOff=TRUE; break; } return TRUE; } #include "../../WKPlugin.h" LRESULT WINAPI MsgHookProc( int code, WPARAM wParam, LPARAM lParam ) { if (WKUtils::isWKUpAndRunning() && g_hhook && bActive && code==HC_ACTION && lParam!=0){ SimpleTracker lock(lHookActive); LPMSG msg = (LPMSG)lParam; if(dwFlags&H_ROLLBACK) { if(msg && (msg->message == WM_LBUTTONDOWN || msg->message == WM_NCLBUTTONDOWN)){ dwWasMoved=0; HWND hFgw= ::GetForegroundWindow(); GetWindowRect(hFgw,&rtLastDownPoint); } if(msg && (msg->message == WM_RBUTTONDOWN || msg->message == WM_NCRBUTTONDOWN)){ if(dwWasMoved && GetAsyncKeyState(VK_LBUTTON)<0 && !(rtLastDownPoint.left==0 && rtLastDownPoint.top==0 && rtLastDownPoint.right==0 && rtLastDownPoint.bottom==0)){ dwWasMoved=0; HWND hFgw= ::GetForegroundWindow(); ::MoveWindow( hFgw, rtLastDownPoint.left, rtLastDownPoint.top, rtLastDownPoint.right-rtLastDownPoint.left, rtLastDownPoint.bottom-rtLastDownPoint.top, TRUE ); } } } if(msg && (msg->message == WM_MOUSEMOVE || msg->message == WM_NCMOUSEMOVE)){ int oldX= shMem[0]; int oldY= shMem[1]; shMem[0]= (int)(msg->pt.x); shMem[1]= (int)(msg->pt.y); if( (msg->wParam & MK_LBUTTON)!=0 ){ BOOL bOK=TRUE; if(dwFlags & H_ANY){ if((dwFlags & H_LA) || (dwFlags & H_RA)){ if(GetAsyncKeyState(VK_LMENU)>=0 && GetAsyncKeyState(VK_RMENU)>=0){ bOK=FALSE; } } if((dwFlags & H_LS) || (dwFlags & H_RS)){ if(GetAsyncKeyState(VK_LSHIFT)>=0 && GetAsyncKeyState(VK_RSHIFT)>=0){ bOK=FALSE; } } if((dwFlags & H_LC) || (dwFlags & H_RC)){ if(GetAsyncKeyState(VK_LCONTROL)>=0 && GetAsyncKeyState(VK_RCONTROL)>=0){ bOK=FALSE; } } if((dwFlags & H_LW) || (dwFlags & H_RW)){ if(GetAsyncKeyState(VK_LWIN)>=0 && GetAsyncKeyState(VK_RWIN)>=0){ bOK=FALSE; } } }else{ if((dwFlags & H_LA) && GetAsyncKeyState(VK_LMENU)>=0){ bOK=FALSE; } if((dwFlags & H_RA) && GetAsyncKeyState(VK_RMENU)>=0){ bOK=FALSE; } if((dwFlags & H_LS) && GetAsyncKeyState(VK_LSHIFT)>=0){ bOK=FALSE; } if((dwFlags & H_RS) && GetAsyncKeyState(VK_RSHIFT)>=0){ bOK=FALSE; } if((dwFlags & H_LC) && GetAsyncKeyState(VK_LCONTROL)>=0){ bOK=FALSE; } if((dwFlags & H_RC) && GetAsyncKeyState(VK_RCONTROL)>=0){ bOK=FALSE; } if((dwFlags & H_LW) && GetAsyncKeyState(VK_LWIN)>=0){ bOK=FALSE; } if((dwFlags & H_RW) && GetAsyncKeyState(VK_RWIN)>=0){ bOK=FALSE; } } if(bOK){ RECT rct; HWND hFgw= ::GetForegroundWindow(); if(dwFlags&H_RESTPROH){ if(::IsZoomed(hFgw)){ bOK=FALSE; } } if(bOK){// Двинулось! dwWasMoved=1; ::GetWindowRect( hFgw, &rct ); if(dwFlags&H_RESTORE){ if(::IsZoomed(hFgw)){ WINDOWPLACEMENT pl; memset(&pl,0,sizeof(WINDOWPLACEMENT)); pl.length=sizeof(WINDOWPLACEMENT); ::GetWindowPlacement(hFgw,&pl); pl.showCmd=SW_RESTORE; memcpy(&pl.rcNormalPosition,&pl.ptMaxPosition,sizeof(pl.rcNormalPosition)); ::SetWindowPlacement(hFgw,&pl); } } ::MoveWindow( hFgw, rct.left+msg->pt.x-oldX, rct.top+msg->pt.y-oldY, rct.right-rct.left, rct.bottom-rct.top, TRUE ); } } } } } return CallNextHookEx( g_hhook, code, wParam, lParam ); } BOOL WINAPI SetOptions(BOOL bEnable, DWORD dwInOutFlags) { bActive=bEnable; dwFlags=dwInOutFlags; return TRUE; } BOOL WINAPI InstallHook(BOOL bSet) { // Сбрасываем данные... rtLastDownPoint.left=rtLastDownPoint.right=rtLastDownPoint.top=rtLastDownPoint.bottom=0; // Работаем с хуком BOOL fOk=FALSE; if (bSet) { g_hhook = NULL; char szDLLPath[MAX_PATH]={0};GetModuleFileName(g_hinstDll,szDLLPath,sizeof(szDLLPath));HINSTANCE hDLL=LoadLibrary(szDLLPath); g_hhook = SetWindowsHookEx(WH_GETMESSAGE, MsgHookProc, hDLL, 0); fOk = (g_hhook != NULL); if(g_hhook==NULL){ //FLOG3("SetWindowsHookEx failed! File=%s, line=%lu, err=%08X",__FILE__,__LINE__,GetLastError()); } }else if(g_hhook!=NULL){ BOOL bNoNeedToWait=FALSE; fOk=SmartUnhookWindowsHookEx(g_hhook,&bNoNeedToWait); g_hhook=NULL; if(!bNoNeedToWait){ long lCount=0; while(lHookActive>0){ lCount++; Sleep(20); if(lCount>200){ //FLOG3("Hook wait failed! File=%s, line=%lu",__FILE__,__LINE__,0); break; } } } } return fOk; }

c96df5533f5683bbf30b743c3f19b95fe6faf88b

3182b05c41f13237825f1ee59d7a0eba09632cd5

/add/Others/LockFreeChunker.cpp

6ebad3a48ea3ea41db017bd3ff6f7f395d2f7e8f

no_license

adhistac/ee-client-2-0

856e8e6ce84bfba32ddd8b790115956a763eec96

d225fc835fa13cb51c3e0655cb025eba24a8cdac

refs/heads/master

UTF-8

C++

cpp

//----------------------------------------------------------------------------- // Element Engine // //----------------------------------------------------------------------------- #include "LockFreeChunker.h" #include <assert.h> //---------------------------------------------------------------------------- namespace WL { DataChunker::DataChunker(S32 size) { chunkSize = size; curBlock = new DataBlock(size); curBlock->next = 0; curBlock->curIndex = 0; } DataChunker::~DataChunker() { freeBlocks(); } void *DataChunker::alloc(S32 size) { assert(size <= chunkSize); if(!curBlock || size + curBlock->curIndex > chunkSize) { DataBlock *temp = new DataBlock(chunkSize); temp->next = curBlock; temp->curIndex = 0; curBlock = temp; } void *ret = curBlock->data + curBlock->curIndex; curBlock->curIndex += (size + 3) & ~3; // dword align return ret; } DataChunker::DataBlock::DataBlock(S32 size) { data = new U8[size]; } DataChunker::DataBlock::~DataBlock() { delete[] data; } void DataChunker::freeBlocks() { while(curBlock) { DataBlock *temp = curBlock->next; delete curBlock; curBlock = temp; } } }

5fca4b04bb6308cd91994e35c3ab97d3ffd51a2a

36bf908bb8423598bda91bd63c4bcbc02db67a9d

/Library/CId3Lib.cpp

3a6a132d337026b02b55f496b4786c0b4a1cd4d4

no_license

code4bones/crawlpaper

edbae18a8b099814a1eed5453607a2d66142b496

f218be1947a9791b2438b438362bc66c0a505f99

refs/heads/master

UTF-8

C++

cpp

/* CId3Lib.cpp Classe d'interfaccia con la libreria id3lib (http://www.id3lib.org/) per info/tags sui files .mp3 Luca Piergentili, 21/06/03 [email protected] */ #include "env.h" #include "pragma.h" #include "macro.h" #include "strings.h" #include <string.h> #include "window.h" #include "win32api.h" #include "mmaudio.h" #include "CId3v1Tag.h" #include "CId3Lib.h" #include "traceexpr.h" //#define _TRACE_FLAG _TRFLAG_TRACEOUTPUT //#define _TRACE_FLAG _TRFLAG_NOTRACE #define _TRACE_FLAG _TRFLAG_NOTRACE #define _TRACE_FLAG_INFO _TRFLAG_NOTRACE #define _TRACE_FLAG_WARN _TRFLAG_NOTRACE #define _TRACE_FLAG_ERR _TRFLAG_NOTRACE #if (defined(_DEBUG) && defined(_WINDOWS)) && (defined(_AFX) || defined(_AFXDLL)) #ifdef PRAGMA_MESSAGE_VERBOSE #pragma message("\t\t\t"__FILE__"("STR(__LINE__)"): using DEBUG_NEW macro") #endif #define new DEBUG_NEW #undef THIS_FILE static char THIS_FILE[] = __FILE__; #endif /* CId3Lib() */ CId3Lib::CId3Lib(LPCSTR lpcszFileName /*= NULL*/) { memset(m_szYear,'\0',sizeof(m_szYear)); if(lpcszFileName) Link(lpcszFileName); } /* Link() */ BOOL CId3Lib::Link(LPCSTR lpcszFileName) { BOOL bRet = FALSE; if(::FileExist(lpcszFileName) && striright(lpcszFileName,MP3_EXTENSION)==0) bRet = CId3v1Tag::Link(lpcszFileName); return(bRet); }

06d83868d7028e5cecf042a31b1eaab25ef462da

c02cb25416f1f32b1264792c256bc8e9ddb36463

/CShatter.cpp

000b4466cfd39ed3f6948e480334da0f6bd34b55

no_license

tronster/node

230b60095202c9e8c7459c570d1d6b1689730786

ea14fc32bbbadf24549f693b3cd52b7423fc4365

refs/heads/master

UTF-8

C++

cpp

#pragma warning(disable:4786) #include <stdio.h> // Header File For Standard Input/Output #include <stdlib.h> // Header has rand() #include "CShatter.h" #include "loaders3d.h" // Object and texture loaders header using namespace geoGL; using namespace std; #define BREAKSTART 0 // Time before tiles start breaking up #define BREAKTIME 10000 /******************************** Non-members *********************************/ // Random floating point number 0-1 static inline float frand01() { return rand() / static_cast<float>(RAND_MAX); } // Random floating point number -1 and 1 static inline float frand11() { return (rand()/ static_cast<float>(RAND_MAX)) * 2 - 1; } // Generic min/max routines template <class T> static inline T TMAX(T T1, T T2) { return (T1>T2 ? T1 : T2); } template <class T> static inline T TMIN(T T1, T T2) { return (T1<T2 ? T1 : T2); } // Compute animation factor 0..1 static float calcFactor(unsigned int nElapsedTime, unsigned int nStartTime, unsigned int nDuration) { if (nElapsedTime<nStartTime) return 0; if (nElapsedTime>nStartTime+nDuration) return 1; return static_cast<float>(nElapsedTime-nStartTime) / nDuration; } /*********************************** CShatter ***********************************/ CShatter::CShatter(CEnvInfo *pEnvInfo) : m_oEnvInfo(*pEnvInfo) { eShatterType = eSHATTER_TUNNEL; szSourceFile = NULL; fRotation = 0; bClearDepth = false; } void CShatter::setShatterOptions(char *szSetName, float fSetRotation, int eSetShatterType, bool bSetClear) { eShatterType = eSetShatterType; szSourceFile = szSetName; fRotation = fSetRotation; bClearDepth = bSetClear; } CShatter::~CShatter() { unInit(); } bool CShatter::start() { if (!szSourceFile) SnarfScreenTiles(); // Grab the screen at start if not coming from a file initGLstuff(); // Initialize opengl settings // Setup perspective matrix glMatrixMode(GL_PROJECTION); glLoadIdentity(); gluPerspective(45.0f, 4.0f/3.0f, 0.2f,270.0f); // force 4/3 aspect ratio even if the window is stretched // Start time nTimeStart = m_oEnvInfo.getMusicTime(); return true; } bool CShatter::stop() { light0.off(); return true; } bool CShatter::init() { initObjects(); // Initialize objects, textures, camera... if (szSourceFile) SnarfScreenTiles(); // Load the screen at init if coming from a file return true; } bool CShatter::unInit() { /* ???wHG CRASHING??? // Deallocate the background tiles, objects creating it, and the source image objCube.clear(); objCubePos.clear(); objCubeSpeed.clear(); tileBG.clear(); imageBG.destroy(); */ return true; } // // Create objects, load texture, setup video parameters // bool CShatter::initGLstuff() // All Setup For OpenGL Goes Here { // OpenGL setup glEnable(GL_DEPTH_TEST); // Enables Depth Testing glEnable(GL_CULL_FACE); // glEnable(GL_NORMALIZE); glShadeModel(GL_SMOOTH); // Enable Smooth Shading glDepthFunc(GL_LEQUAL); // Allows blends to be drawn glEnable(GL_LIGHTING); // Light setup for (int i=0; i<8; i++) glDisable(GL_LIGHT0+i); Light3D::setSceneAmbient(fRGBA(0,0,0,0)); light0.setLight(1.0f,1.0f,1.0f,1); light0.position(0.0f,0.0f,35.0f); light0.on(); return true; } bool CShatter::initObjects() { // Camera setup cam.position(0,0,27); return true; } bool CShatter::renderFrame() { glFinish(); if (bClearDepth) glClear(GL_DEPTH_BUFFER_BIT); // Setup camera glMatrixMode(GL_MODELVIEW); glLoadIdentity(); cam.execute(); // Setup light light0.executeLight(); // Do this stuff 'cuz Tronster's routines change it glEnable(GL_CULL_FACE); // Why is this off? glColor3f(1,1,1); // Get rid of existing colormaterial settings glDisable(GL_COLOR_MATERIAL); // This messes me up 'cuz I use glMaterial() glDisable(GL_BLEND); // Sparkles leave blending on glEnable(GL_LIGHTING); // Sparkles turn this off too // Draw the tiles glPushMatrix(); glScalef(1.45f,1.45f,1); for (int nObj=0; nObj<tileBG.getNumTiles(); nObj++) objCube[nObj].execute(); glPopMatrix(); glEnd(); glFlush(); return true; } bool CShatter::advanceFrame() { // Grab elapsed time nElapsedTime = m_oEnvInfo.getMusicTime() - nTimeStart; // Breakup motions int nObj; // This code is inconsistent: // For eSHATTER_BACKWARD the "absolute" time model is used. // For others, the "incremental" time model is used. // Using absolute time is needed here because deviation in position is unnacceptable if (nElapsedTime>BREAKSTART && nElapsedTime<=BREAKSTART+BREAKTIME) { if (eShatterType == eSHATTER_BACKWARD) { float fFactor = calcFactor(nElapsedTime,BREAKSTART,BREAKTIME); glRotatef((1-fFactor)*360,0,0,1); for (nObj=0; nObj<tileBG.getNumTiles(); nObj++) { objCube[nObj].position.z = objCubePos[nObj].z * (1-fFactor); objCube[nObj].direction = fVector3D(0,45,0) * (1-fFactor); //???WHG 45 should come from setShade... } } else // !eSHATTER_BACKWARD { for (nObj=0; nObj<tileBG.getNumTiles(); nObj++) { objCube[nObj].position += objCubeSpeed[nObj] * m_oEnvInfo.fFrameFactor; objCube[nObj].direction+= fVector3D(0,0,fRotation * m_oEnvInfo.fFrameFactor); } } } return true; } // Snarfs the screen as a 640x480x24 bit Cimage void CShatter::SnarfScreenImage() { int nWidth, nHeight; // Screen dimensions md::Cimage imageLarge; // Image at current screen resolution md::Cimage &imageSmall = imageBG; // Image at 640x480 for tiling nWidth = m_oEnvInfo.nWinWidth; nHeight= m_oEnvInfo.nWinHeight; imageLarge.create(nWidth,nHeight,3); imageSmall.create(640,512,3); // 640x512 fits with a 64x64 tile size // Grab the full scree into an image glColor3f(1,1,1); glReadPixels(0,0, nWidth,nHeight, GL_RGB,GL_UNSIGNED_BYTE, imageLarge.data); // Now scale it to 640x480 gluScaleImage(GL_RGB,nWidth,nHeight,GL_UNSIGNED_BYTE, imageLarge.data, 640,480,GL_UNSIGNED_BYTE,imageSmall.data); } // Snarf the image and place it on tiles void CShatter::SnarfScreenTiles() { // Texture setup if (szSourceFile == NULL) { // METHOD 1: This will snarf the image from the screen. // It is very slow and causes the music to skip SnarfScreenImage(); } else { // METHOD 2: Grab the image from mediaduke if (!m_oEnvInfo.oMedia.read(szSourceFile,imageBG)) { char message[100]; sprintf(message,"Unable to load shatter image %s",szSourceFile); throw message; } } tileBG.setImage(&imageBG); tileBG.setTileSize(64); tileBG.createTiles(); imageBG.destroy(); // Don't need this anymore // Create cubes for background objCube.refnew (tileBG.getNumTiles()); objCubeSpeed.refnew(tileBG.getNumTiles()); objCubePos.refnew (tileBG.getNumTiles()); int nTile=0; int numX = tileBG.getTilesX(); int numY = tileBG.getTilesY(); for (int x=0; x<numX; x++) for (int y=0; y<numY; y++) { objCubePos[nTile] = fVector3D(-numX + x*2,-numY + y*2,0); switch(eShatterType) { case eSHATTER_RANDOM: objCubeSpeed[nTile] = fVector3D(0,0, frand01() * 0.1f + .05f); break; case eSHATTER_BACKWARD: objCubePos[nTile] += fVector3D(0,0,frand01() * 70 + 25); break; case eSHATTER_TUNNEL: objCubeSpeed[nTile] = fVector3D(0,0, (0.5f * (fabs(1.0f * numX/2 - x) + fabs(1.0f * numY/2 - y))) * 0.1f + .05f); break; default: throw "CShatter: Somebody gave me a crazy value!"; } if (eShatterType == eSHATTER_TUNNEL) { if (x==numX/2 && y==numY/2) { objCubeSpeed[nTile] = fVector3D(-0.06f,-0.06f,-0.06f); } if (x==numX/2+1 && y==numY/2) { objCubeSpeed[nTile] = fVector3D(+0.06f,-0.06f,-0.06f); } if (x==numX/2 && y==numY/2+1) { objCubeSpeed[nTile] = fVector3D(-0.06f,+0.06f,-0.06f); } if (x==numX/2+1 && y==numY/2+1) { objCubeSpeed[nTile] = fVector3D(+0.06f,+0.06f,-0.06f); } } objCube[nTile] = Load3SO("data.md/cube1tex.3so",NULL,false); objCube[nTile].objects[0].nTextureID = tileBG.textures[nTile]; objCube[nTile].position = objCubePos[nTile]; nTile++; } }

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fe122f81ca7d6dff899945987f69305ada995cd7

/DB/dbAx/CardFile/AxVariableSet.hpp

1d544656c5414bbdbc74305c07e2c09fd74234a4

no_license

myeverytime/chtdependstoreroom

ddb9f4f98a6a403521aaf403d0b5f2dc5213f346

64a4d1e2d32abffaab0376f6377e10448b3c5bc3

refs/heads/master

UTF-8

C++

hpp

/************************************************************************** File: AxVariableSet.hpp Date: 11/19/2007 By: Data Management Systems (www.dmsic.com) DESCRIPTION The following source code was generated using the AxGen utility and is intended to be used in conjunction with the dbAx library. This class facilitates the exchange of data with the ADO data source from which it was derived. Table: ENGR1-FS\WBF_Vault\Variable Include this file in your project. DISCLAIMER This source code is provided AS-IS with no warranty as to its suitability or usefulness in any application in which it may be used. **************************************************************************/ #pragma once #include <AxLib.h> using namespace dbAx; class CAxVariableSet : public CAxRecordset { public: CAxVariableSet() { _SetDefaults(); } ~CAxVariableSet() { } int m_iVariableID; CString m_szVariableName; int m_iVariableType; BOOL m_bIsDeleted; BOOL m_bFlagUnique; BOOL m_bFlagMandatory; //Set default values of class members void _SetDefaults() { m_iVariableID = 0; m_szVariableName = _T(""); m_iVariableType = 0; m_bIsDeleted = FALSE; m_bFlagUnique = FALSE; m_bFlagMandatory = FALSE; }; //Exchange field values with data provider void DoFieldExchange(BOOL bSave = FALSE) { FX_Integer (bSave, _T("VariableID"), m_iVariableID); FX_NVarChar (bSave, _T("VariableName"), m_szVariableName); FX_Integer (bSave, _T("VariableType"), m_iVariableType); FX_Bool (bSave, _T("IsDeleted"), m_bIsDeleted); FX_Bool (bSave, _T("FlagUnique"), m_bFlagUnique); FX_Bool (bSave, _T("FlagMandatory"), m_bFlagMandatory); }; };

a06412b9eae2898a62956889a765cbaf2f7c3a71

6c8c4728e608a4badd88de181910a294be56953a

/RexLogicModule/EntityComponent/EC_OpenSimAvatar.cpp

4e3f2ccaeef22425bafc98fa3e014137b7d4570d

permissive

caocao/naali

29c544e121703221fe9c90b5c20b3480442875ef

67c5aa85fa357f7aae9869215f840af4b0e58897

refs/heads/master

UTF-8

C++

cpp

// For conditions of distribution and use, see copyright notice in license.txt #include "StableHeaders.h" #include "ModuleInterface.h" #include "EntityComponent/EC_OpenSimAvatar.h" namespace RexLogic { EC_OpenSimAvatar::EC_OpenSimAvatar(Foundation::ModuleInterface* module) : Foundation::ComponentInterface(module->GetFramework()), controlflags(0), yaw(0) { state_ = Stand; } EC_OpenSimAvatar::~EC_OpenSimAvatar() { } void EC_OpenSimAvatar::SetAppearanceAddress(const std::string &address, bool overrideappearance) { if(overrideappearance) avatar_override_address_ = address; else { avatar_address_ = address; avatar_override_address_ = std::string(); } } const std::string& EC_OpenSimAvatar::GetAppearanceAddress() const { if(avatar_override_address_.length() > 0) return avatar_override_address_; else return avatar_address_; } void EC_OpenSimAvatar::SetState(State state) { state_ = state; } EC_OpenSimAvatar::State EC_OpenSimAvatar::GetState() const { return state_; } }

11c5f1196cfc1115800fe24b1dfe64594fb65d13

fc5bb350fbdf6c401e67eca6bdf2072d8ea4c7fb

/Box2D/Dynamics/b2WorldCallbacks.h

5aeb201476d9130d8fb55c542aead2827d018982

no_license

explo/wck

70b90298f8e1ff7487eb26b24c1d331ed3559552

5c503312140f7ff645fcd503023ae9da7735cafc

refs/heads/master

UTF-8

C++

h

/* * Copyright (c) 2006-2009 Erin Catto http://www.gphysics.com * * This software is provided 'as-is', without any express or implied * warranty. In no event will the authors be held liable for any damages * arising from the use of this software. * Permission is granted to anyone to use this software for any purpose, * including commercial applications, and to alter it and redistribute it * freely, subject to the following restrictions: * 1. The origin of this software must not be misrepresented; you must not * claim that you wrote the original software. If you use this software * in a product, an acknowledgment in the product documentation would be * appreciated but is not required. * 2. Altered source versions must be plainly marked as such, and must not be * misrepresented as being the original software. * 3. This notice may not be removed or altered from any source distribution. */ #ifndef B2_WORLD_CALLBACKS_H #define B2_WORLD_CALLBACKS_H #include <Box2D/Common/b2Settings.h> struct b2Vec2; struct b2Transform; class b2Fixture; class b2Body; class b2Joint; class b2Contact; struct b2ContactPoint; struct b2ContactResult; struct b2Manifold; /// Joints and fixtures are destroyed when their associated /// body is destroyed. Implement this listener so that you /// may nullify references to these joints and shapes. class b2DestructionListener { public: virtual ~b2DestructionListener() {} /// Called when any joint is about to be destroyed due /// to the destruction of one of its attached bodies. virtual void SayGoodbye(b2Joint* joint) = 0; /// Called when any fixture is about to be destroyed due /// to the destruction of its parent body. virtual void SayGoodbye(b2Fixture* fixture) = 0; }; /// Implement this class to provide collision filtering. In other words, you can implement /// this class if you want finer control over contact creation. class b2ContactFilter { public: virtual ~b2ContactFilter() {} /// Return true if contact calculations should be performed between these two shapes. /// @warning for performance reasons this is only called when the AABBs begin to overlap. virtual bool ShouldCollide(b2Fixture* fixtureA, b2Fixture* fixtureB); /// Return true if the given shape should be considered for ray intersection virtual bool RayCollide(void* userData, b2Fixture* fixture); }; /// Contact impulses for reporting. Impulses are used instead of forces because /// sub-step forces may approach infinity for rigid body collisions. These /// match up one-to-one with the contact points in b2Manifold. struct b2ContactImpulse { float32 normalImpulses[b2_maxManifoldPoints]; float32 tangentImpulses[b2_maxManifoldPoints]; }; /// Implement this class to get contact information. You can use these results for /// things like sounds and game logic. You can also get contact results by /// traversing the contact lists after the time step. However, you might miss /// some contacts because continuous physics leads to sub-stepping. /// Additionally you may receive multiple callbacks for the same contact in a /// single time step. /// You should strive to make your callbacks efficient because there may be /// many callbacks per time step. /// @warning You cannot create/destroy Box2D entities inside these callbacks. class b2ContactListener { public: virtual ~b2ContactListener() {} /// Called when two fixtures begin to touch. virtual void BeginContact(b2Contact* contact) { B2_NOT_USED(contact); } /// Called when two fixtures cease to touch. virtual void EndContact(b2Contact* contact) { B2_NOT_USED(contact); } /// This is called after a contact is updated. This allows you to inspect a /// contact before it goes to the solver. If you are careful, you can modify the /// contact manifold (e.g. disable contact). /// A copy of the old manifold is provided so that you can detect changes. /// Note: this is called only for awake bodies. /// Note: this is called even when the number of contact points is zero. /// Note: this is not called for sensors. /// Note: if you set the number of contact points to zero, you will not /// get an EndContact callback. However, you may get a BeginContact callback /// the next step. virtual void PreSolve(b2Contact* contact, const b2Manifold* oldManifold) { B2_NOT_USED(contact); B2_NOT_USED(oldManifold); } /// This lets you inspect a contact after the solver is finished. This is useful /// for inspecting impulses. /// Note: the contact manifold does not include time of impact impulses, which can be /// arbitrarily large if the sub-step is small. Hence the impulse is provided explicitly /// in a separate data structure. /// Note: this is only called for contacts that are touching, solid, and awake. virtual void PostSolve(b2Contact* contact, const b2ContactImpulse* impulse) { B2_NOT_USED(contact); B2_NOT_USED(impulse); } }; /// Callback class for AABB queries. /// See b2World::Query class b2QueryCallback { public: virtual ~b2QueryCallback() {} /// Called for each fixture found in the query AABB. /// @return false to terminate the query. virtual bool ReportFixture(b2Fixture* fixture) = 0; }; /// Callback class for ray casts. /// See b2World::RayCast class b2RayCastCallback { public: virtual ~b2RayCastCallback() {} /// Called for each fixture found in the query. You control how the ray proceeds /// by returning a float that indicates the fractional length of the ray. By returning /// 0, you set the ray length to zero. By returning the current fraction, you proceed /// to find the closest point. By returning 1, you continue with the original ray /// clipping. /// @param fixture the fixture hit by the ray /// @param point the point of initial intersection /// @param normal the normal vector at the point of intersection /// @return 0 to terminate, fraction to clip the ray for /// closest hit, 1 to continue virtual float32 ReportFixture( b2Fixture* fixture, const b2Vec2& point, const b2Vec2& normal, float32 fraction) = 0; }; /// Color for debug drawing. Each value has the range [0,1]. struct b2Color { b2Color() {} b2Color(float32 r, float32 g, float32 b) : r(r), g(g), b(b) {} void Set(float32 ri, float32 gi, float32 bi) { r = ri; g = gi; b = bi; } float32 r, g, b; }; /// Implement and register this class with a b2World to provide debug drawing of physics /// entities in your game. class b2DebugDraw { public: b2DebugDraw(); virtual ~b2DebugDraw() {} enum { e_shapeBit = 0x0001, ///< draw shapes e_jointBit = 0x0002, ///< draw joint connections e_aabbBit = 0x0004, ///< draw axis aligned bounding boxes e_pairBit = 0x0008, ///< draw broad-phase pairs e_centerOfMassBit = 0x0010, ///< draw center of mass frame }; /// Set the drawing flags. void SetFlags(uint32 flags); /// Get the drawing flags. uint32 GetFlags() const; /// Append flags to the current flags. void AppendFlags(uint32 flags); /// Clear flags from the current flags. void ClearFlags(uint32 flags); /// Draw a closed polygon provided in CCW order. virtual void DrawPolygon(const b2Vec2* vertices, int32 vertexCount, const b2Color& color) = 0; /// Draw a solid closed polygon provided in CCW order. virtual void DrawSolidPolygon(const b2Vec2* vertices, int32 vertexCount, const b2Color& color) = 0; /// Draw a circle. virtual void DrawCircle(const b2Vec2& center, float32 radius, const b2Color& color) = 0; /// Draw a solid circle. virtual void DrawSolidCircle(const b2Vec2& center, float32 radius, const b2Vec2& axis, const b2Color& color) = 0; /// Draw a line segment. virtual void DrawSegment(const b2Vec2& p1, const b2Vec2& p2, const b2Color& color) = 0; /// Draw a transform. Choose your own length scale. /// @param xf a transform. virtual void DrawTransform(const b2Transform& xf) = 0; public: uint32 m_drawFlags; }; #endif

d8a1bcd767d95042dae5dfeb9a85c88f23f37597

105cc69f4207a288be06fd7af7633787c3f3efb5

/HovercraftUniverse/Utils/PlayerMapImpl.h

9d18757650d7afe1e6bb38002089f5f93f08d57c

no_license

allenjacksonmaxplayio/uhasseltaacgua

330a6f2751e1d6675d1cf484ea2db0a923c9cdd0

ad54e9aa3ad841b8fc30682bd281c790a997478d

refs/heads/master

UTF-8

C++

h

namespace HovUni { template<typename Key, typename Player, bool Unique> PlayerMap<Key, Player, Unique>::PlayerMap() : mOwnPlayer(0) { } template<typename Key, typename Player, bool Unique> PlayerMap<Key, Player, Unique>::~PlayerMap() { } template<typename Key, typename Player, bool Unique> void PlayerMap<Key, Player, Unique>::addPlayer(const Key& key, Player* player, bool ownPlayer) { if (Unique) { removePlayerByKey(key); } // Insert the player at the back mPlayers.push_back(std::pair<Key, Player*>(key, player)); // Set own player if (ownPlayer) { mOwnPlayer = player; } } template<typename Key, typename Player, bool Unique> void PlayerMap<Key, Player, Unique>::removePlayerByKey(const Key& key) { list_type::iterator it = find(key); removePlayerByIterator(it); } template<typename Key, typename Player, bool Unique> typename PlayerMap<Key, Player, Unique>::list_type::iterator PlayerMap<Key, Player, Unique>::removePlayerByIterator( typename list_type::iterator it) { // Delete the player delete it->second; // Remove from the list return mPlayers.erase(it); } template<typename Key, typename Player, bool Unique> Player* PlayerMap<Key, Player, Unique>::getPlayer(const Key& key) const { list_type::const_iterator it = find(key); Player* ret = 0; if (it != mPlayers.end()) { ret = it->second; } return ret; } template<typename Key, typename Player, bool Unique> typename PlayerMap<Key, Player, Unique>::list_type::iterator PlayerMap<Key, Player, Unique>::find(const Key& key) { for (list_type::iterator it = mPlayers.begin(); it != mPlayers.end(); ++it) { if (it->first == key) { return it; } } return mPlayers.end(); } template<typename Key, typename Player, bool Unique> typename PlayerMap<Key, Player, Unique>::list_type::const_iterator PlayerMap<Key, Player, Unique>::find(const Key& key) const { for (list_type::const_iterator it = mPlayers.begin(); it != mPlayers.end(); ++it) { if (it->first == key) { return it; } } return mPlayers.end(); } template<typename Key, typename Player, bool Unique> typename PlayerMap<Key, Player, Unique>::list_type::iterator PlayerMap<Key, Player, Unique>::begin() { return mPlayers.begin(); } template<typename Key, typename Player, bool Unique> typename PlayerMap<Key, Player, Unique>::list_type::const_iterator PlayerMap<Key, Player, Unique>::begin() const { return mPlayers.begin(); } template<typename Key, typename Player, bool Unique> typename PlayerMap<Key, Player, Unique>::list_type::iterator PlayerMap<Key, Player, Unique>::end() { return mPlayers.end(); } template<typename Key, typename Player, bool Unique> typename PlayerMap<Key, Player, Unique>::list_type::const_iterator PlayerMap<Key, Player, Unique>::end() const { return mPlayers.end(); } }

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/guceCORE/include/CVFSHandleToDataStream.h

7735102fdc036430cccf012e449e8cbf43bd4433

no_license

LiberatorUSA/GUCE

a2d193e78d91657ccc4eab50fab06de31bc38021

a4d6aa5421f8799cedc7c9f7dc496df4327ac37f

refs/heads/master

UTF-8

C++

h

/* * guceCORE: GUCE module providing tie-in functionality between systems * Copyright (C) 2002 - 2008. Dinand Vanvelzen * * This library is free software; you can redistribute it and/or * modify it under the terms of the GNU Lesser General Public * License as published by the Free Software Foundation; either * version 2.1 of the License, or (at your option) any later version. * * This library is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU * Lesser General Public License for more details. * * You should have received a copy of the GNU Lesser General Public * License along with this library; if not, write to the Free Software * Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA */ #ifndef GUCE_CORE_CVFSHANDLETODATASTREAM_H #define GUCE_CORE_CVFSHANDLETODATASTREAM_H /*-------------------------------------------------------------------------// // // // INCLUDES // // // //-------------------------------------------------------------------------*/ #ifndef GUCE_CORE_CIOACCESSTODATASTREAM_H #include "CIOAccessToDataStream.h" /* CIOAccess to an Ogre DataStream adapter */ #define GUCE_CORE_CIOACCESSTODATASTREAM_H #endif /* GUCE_CORE_CIOACCESSTODATASTREAM_H ? */ /*-------------------------------------------------------------------------// // // // NAMESPACE // // // //-------------------------------------------------------------------------*/ namespace GUCEF { namespace VFS { class CVFSHandle; } } /*-------------------------------------------------------------------------*/ namespace GUCE { namespace CORE { /*-------------------------------------------------------------------------// // // // CLASSES // // // //-------------------------------------------------------------------------*/ /** * Allows Ogre to use gucefVFS handles. * The handled resource will be unloaded when the stream object is destroyed. */ class GUCE_CORE_EXPORT_CPP CVFSHandleToDataStream : public CIOAccessToDataStream { public: typedef GUCEF::VFS::CVFS::CVFSHandlePtr CVFSHandlePtr; /** * Constructs an Ogre DataStream capable of using an * gucefVFS handle as input. */ CVFSHandleToDataStream( CVFSHandlePtr& vfshandle , bool freeonclose = false ); CVFSHandleToDataStream( const CVFSHandleToDataStream& src ); /** * Unloads the resource pointed to by the file handle * given upon construction. */ virtual ~CVFSHandleToDataStream(); virtual void close( void ); private: CVFSHandlePtr m_fh; bool m_freeonclose; }; /*-------------------------------------------------------------------------// // // // NAMESPACE // // // //-------------------------------------------------------------------------*/ } /* namespace CORE ? */ } /* namespace GUCE ? */ /*-------------------------------------------------------------------------*/ #endif /* GUCE_CORE_CVFSHANDLETODATASTREAM_H ? */ /*-------------------------------------------------------------------------// // // // Info & Changes // // // //-------------------------------------------------------------------------// - 12-02-2005 : - Initial implementation -----------------------------------------------------------------------------*/

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c94135316a6706e7a1131e810222c12910cb8495

/MarbleMadness/PantallaPausa.h

2551d48667495f2793556586403c1b394bfa10ce

no_license

lcianelli/compgraf-marble-madness

05d2e8f23adf034723dd3d1267e7cdf6350cf5e7

f3e79763b43a31095ffeff49f440c24614db045b

refs/heads/master

UTF-8

C++

h

#pragma once #ifndef PANTALLA_PAUSA_H #define PANTALLA_PAUSA_H #include "Juego.h" #include "EstadoVisual.h" #include "Nivel.h" #include "HUD.h" #include "BotonGUI.h" #include "MenuGUI.h" #include "ManejadorTextura.h" using namespace mmgui; class PantallaPausa : public EstadoVisual { private: bool mouseDown; SDL_Surface* s; BotonGUI* resumeBtn; BotonGUI* opcionesBtn; BotonGUI* salirBtn; BotonGUI* reiniciarBtn; MenuGUI* menuPausa; protected: Nivel* nivelActual; HUD* hud; void dibujar(); void actualizar(int tiempo); void procesarEventos(); void handleKeyDown(SDL_keysym* keysym); void handleMouseDown(const SDL_MouseButtonEvent &ev); void handleMouseMoved(const SDL_MouseMotionEvent &ev); void handleMouseUp(const SDL_MouseButtonEvent &ev); public: inline void setNivel(Nivel* nivel) { this->nivelActual = nivel; } inline void setHud(HUD* hud) { this->hud = hud;} void inicializar(); void cambiarNivel(); void resumir(); PantallaPausa(void); ~PantallaPausa(void); }; #endif PANTALLA_PAUSA_H;

d9eb9c97de6a2164c658afc3f4065b783ab70022

1493997bb11718d3c18c6632b6dd010535f742f5

/direct_ui/UIlib/UIContainer.cpp

5711edf31b8ebc1001f791d210d0f63688df9e50

no_license

kovrov/scrap

cd0cf2c98a62d5af6e4206a2cab7bb8e4560b168

b0f38d95dd4acd89c832188265dece4d91383bbb

refs/heads/master

UTF-8

C++

cpp

#include "StdAfx.h" #include "UIContainer.h" ///////////////////////////////////////////////////////////////////////////////////// // // CContainerUI::CContainerUI() : m_hwndScroll(NULL), m_iPadding(0), m_iScrollPos(0), m_bAutoDestroy(true), m_bAllowScrollbars(false) { m_cxyFixed.cx = m_cxyFixed.cy = 0; ::ZeroMemory(&m_rcInset, sizeof(m_rcInset)); } CContainerUI::~CContainerUI() { RemoveAll(); } LPCTSTR CContainerUI::GetClass() const { return _T("ContainerUI"); } LPVOID CContainerUI::GetInterface(LPCTSTR pstrName) { if( _tcscmp(pstrName, _T("Container")) == 0 ) return static_cast<IContainerUI*>(this); return CControlUI::GetInterface(pstrName); } CControlUI* CContainerUI::GetItem(int iIndex) const { if( iIndex < 0 || iIndex >= m_items.GetSize() ) return NULL; return static_cast<CControlUI*>(m_items[iIndex]); } int CContainerUI::GetCount() const { return m_items.GetSize(); } bool CContainerUI::Add(CControlUI* pControl) { if( m_pManager != NULL ) m_pManager->InitControls(pControl, this); if( m_pManager != NULL ) m_pManager->UpdateLayout(); return m_items.Add(pControl); } bool CContainerUI::Remove(CControlUI* pControl) { for( int it = 0; m_bAutoDestroy && it < m_items.GetSize(); it++ ) { if( static_cast<CControlUI*>(m_items[it]) == pControl ) { if( m_pManager != NULL ) m_pManager->UpdateLayout(); delete pControl; return m_items.Remove(it); } } return false; } void CContainerUI::RemoveAll() { for( int it = 0; m_bAutoDestroy && it < m_items.GetSize(); it++ ) delete static_cast<CControlUI*>(m_items[it]); m_items.Empty(); m_iScrollPos = 0; if( m_pManager != NULL ) m_pManager->UpdateLayout(); } void CContainerUI::SetAutoDestroy(bool bAuto) { m_bAutoDestroy = bAuto; } void CContainerUI::SetInset(SIZE szInset) { m_rcInset.left = m_rcInset.right = szInset.cx; m_rcInset.top = m_rcInset.bottom = szInset.cy; } void CContainerUI::SetInset(RECT rcInset) { m_rcInset = rcInset; } void CContainerUI::SetPadding(int iPadding) { m_iPadding = iPadding; } void CContainerUI::SetWidth(int cx) { m_cxyFixed.cx = cx; } void CContainerUI::SetHeight(int cy) { m_cxyFixed.cy = cy; } void CContainerUI::SetVisible(bool bVisible) { // Hide possible scrollbar control if( m_hwndScroll != NULL ) ::ShowScrollBar(m_hwndScroll, SB_CTL, bVisible); // Hide children as well for( int it = 0; it < m_items.GetSize(); it++ ) { static_cast<CControlUI*>(m_items[it])->SetVisible(bVisible); } CControlUI::SetVisible(bVisible); } void CContainerUI::Event(TEventUI& event) { if( m_hwndScroll != NULL ) { if( event.Type == UIEVENT_VSCROLL ) { switch( LOWORD(event.wParam) ) { case SB_THUMBPOSITION: case SB_THUMBTRACK: { SCROLLINFO si = { 0 }; si.cbSize = sizeof(SCROLLINFO); si.fMask = SIF_TRACKPOS; ::GetScrollInfo(m_hwndScroll, SB_CTL, &si); SetScrollPos(si.nTrackPos); } break; case SB_LINEUP: SetScrollPos(GetScrollPos() - 5); break; case SB_LINEDOWN: SetScrollPos(GetScrollPos() + 5); break; case SB_PAGEUP: SetScrollPos(GetScrollPos() - GetScrollPage()); break; case SB_PAGEDOWN: SetScrollPos(GetScrollPos() + GetScrollPage()); break; } } if( event.Type == UIEVENT_KEYDOWN ) { switch( event.chKey ) { case VK_DOWN: SetScrollPos(GetScrollPos() + 5); return; case VK_UP: SetScrollPos(GetScrollPos() - 5); return; case VK_NEXT: SetScrollPos(GetScrollPos() + GetScrollPage()); return; case VK_PRIOR: SetScrollPos(GetScrollPos() - GetScrollPage()); return; case VK_HOME: SetScrollPos(0); return; case VK_END: SetScrollPos(9999); return; } } } CControlUI::Event(event); } int CContainerUI::GetScrollPos() const { return m_iScrollPos; } int CContainerUI::GetScrollPage() const { // TODO: Determine this dynamically return 40; } SIZE CContainerUI::GetScrollRange() const { if( m_hwndScroll == NULL ) return CSize(); int cx = 0, cy = 0; ::GetScrollRange(m_hwndScroll, SB_CTL, &cx, &cy); return CSize(cx, cy); } void CContainerUI::SetScrollPos(int iScrollPos) { if( m_hwndScroll == NULL ) return; int iRange1 = 0, iRange2 = 0; ::GetScrollRange(m_hwndScroll, SB_CTL, &iRange1, &iRange2); iScrollPos = CLAMP(iScrollPos, iRange1, iRange2); ::SetScrollPos(m_hwndScroll, SB_CTL, iScrollPos, TRUE); m_iScrollPos = ::GetScrollPos(m_hwndScroll, SB_CTL); // Reposition children to the new viewport. SetPos(m_rcItem); Invalidate(); } void CContainerUI::EnableScrollBar(bool bEnable) { if( m_bAllowScrollbars == bEnable ) return; m_iScrollPos = 0; m_bAllowScrollbars = bEnable; } int CContainerUI::FindSelectable(int iIndex, bool bForward /*= true*/) const { // NOTE: This is actually a helper-function for the list/combo/ect controls // that allow them to find the next enabled/available selectable item if( GetCount() == 0 ) return -1; iIndex = CLAMP(iIndex, 0, GetCount() - 1); if( bForward ) { for( int i = iIndex; i < GetCount(); i++ ) { if( GetItem(i)->GetInterface(_T("ListItem")) != NULL && GetItem(i)->IsVisible() && GetItem(i)->IsEnabled() ) return i; } return -1; } else { for( int i = iIndex; i >= 0; --i ) { if( GetItem(i)->GetInterface(_T("ListItem")) != NULL && GetItem(i)->IsVisible() && GetItem(i)->IsEnabled() ) return i; } return FindSelectable(0, true); } } void CContainerUI::SetPos(RECT rc) { CControlUI::SetPos(rc); if( m_items.IsEmpty() ) return; rc.left += m_rcInset.left; rc.top += m_rcInset.top; rc.right -= m_rcInset.right; rc.bottom -= m_rcInset.bottom; // We'll position the first child in the entire client area. // Do not leave a container empty. ASSERT(m_items.GetSize()==1); static_cast<CControlUI*>(m_items[0])->SetPos(rc); } SIZE CContainerUI::EstimateSize(SIZE /*szAvailable*/) { return m_cxyFixed; } void CContainerUI::SetAttribute(LPCTSTR pstrName, LPCTSTR pstrValue) { if( _tcscmp(pstrName, _T("inset")) == 0 ) SetInset(CSize(_ttoi(pstrValue), _ttoi(pstrValue))); else if( _tcscmp(pstrName, _T("padding")) == 0 ) SetPadding(_ttoi(pstrValue)); else if( _tcscmp(pstrName, _T("width")) == 0 ) SetWidth(_ttoi(pstrValue)); else if( _tcscmp(pstrName, _T("height")) == 0 ) SetHeight(_ttoi(pstrValue)); else if( _tcscmp(pstrName, _T("scrollbar")) == 0 ) EnableScrollBar(_tcscmp(pstrValue, _T("true")) == 0); else CControlUI::SetAttribute(pstrName, pstrValue); } void CContainerUI::SetManager(CPaintManagerUI* pManager, CControlUI* pParent) { for( int it = 0; it < m_items.GetSize(); it++ ) { static_cast<CControlUI*>(m_items[it])->SetManager(pManager, this); } CControlUI::SetManager(pManager, pParent); } CControlUI* CContainerUI::FindControl(FINDCONTROLPROC Proc, LPVOID pData, UINT uFlags) { // Check if this guy is valid if( (uFlags & UIFIND_VISIBLE) != 0 && !IsVisible() ) return NULL; if( (uFlags & UIFIND_ENABLED) != 0 && !IsEnabled() ) return NULL; if( (uFlags & UIFIND_HITTEST) != 0 && !::PtInRect(&m_rcItem, *(static_cast<LPPOINT>(pData))) ) return NULL; if( (uFlags & UIFIND_ME_FIRST) != 0 ) { CControlUI* pControl = CControlUI::FindControl(Proc, pData, uFlags); if( pControl != NULL ) return pControl; } for( int it = 0; it != m_items.GetSize(); it++ ) { CControlUI* pControl = static_cast<CControlUI*>(m_items[it])->FindControl(Proc, pData, uFlags); if( pControl != NULL ) return pControl; } return CControlUI::FindControl(Proc, pData, uFlags); } void CContainerUI::DoPaint(HDC hDC, const RECT& rcPaint) { RECT rcTemp = { 0 }; if( !::IntersectRect(&rcTemp, &rcPaint, &m_rcItem) ) return; CRenderClip clip; CBlueRenderEngineUI::GenerateClip(hDC, m_rcItem, clip); for( int it = 0; it < m_items.GetSize(); it++ ) { CControlUI* pControl = static_cast<CControlUI*>(m_items[it]); if( !pControl->IsVisible() ) continue; if( !::IntersectRect(&rcTemp, &rcPaint, &pControl->GetPos()) ) continue; if( !::IntersectRect(&rcTemp, &m_rcItem, &pControl->GetPos()) ) continue; pControl->DoPaint(hDC, rcPaint); } } void CContainerUI::ProcessScrollbar(RECT rc, int cyRequired) { // Need the scrollbar control, but it's been created already? if( cyRequired > rc.bottom - rc.top && m_hwndScroll == NULL && m_bAllowScrollbars ) { m_hwndScroll = ::CreateWindowEx(0, WC_SCROLLBAR, NULL, WS_CHILD | SBS_VERT, 0, 0, 0, 0, m_pManager->GetPaintWindow(), NULL, m_pManager->GetResourceInstance(), NULL); ASSERT(::IsWindow(m_hwndScroll)); ::SetProp(m_hwndScroll, "WndX", static_cast<HANDLE>(this)); ::SetScrollPos(m_hwndScroll, SB_CTL, 0, TRUE); ::ShowWindow(m_hwndScroll, SW_SHOWNOACTIVATE); SetPos(m_rcItem); return; } // No scrollbar required if( m_hwndScroll == NULL ) return; // Move it into place int cxScroll = m_pManager->GetSystemMetrics().cxvscroll; ::MoveWindow(m_hwndScroll, rc.right, rc.top, cxScroll, rc.bottom - rc.top, TRUE); // Scroll not needed anymore? int cyScroll = cyRequired - (rc.bottom - rc.top); if( cyScroll < 0 ) { if( m_iScrollPos != 0 ) SetScrollPos(0); cyScroll = 0; } // Scroll range changed? int cyOld1, cyOld2; ::GetScrollRange(m_hwndScroll, SB_CTL, &cyOld1, &cyOld2); if( cyOld2 != cyScroll ) { ::SetScrollRange(m_hwndScroll, SB_CTL, 0, cyScroll, FALSE); ::EnableScrollBar(m_hwndScroll, SB_CTL, cyScroll == 0 ? ESB_DISABLE_BOTH : ESB_ENABLE_BOTH); } } ///////////////////////////////////////////////////////////////////////////////////// // // CCanvasUI::CCanvasUI() : m_hBitmap(NULL), m_iOrientation(HTBOTTOMRIGHT) { } CCanvasUI::~CCanvasUI() { if( m_hBitmap != NULL ) ::DeleteObject(m_hBitmap); } LPCTSTR CCanvasUI::GetClass() const { return _T("CanvasUI"); } bool CCanvasUI::SetWatermark(UINT iBitmapRes, int iOrientation) { return SetWatermark(MAKEINTRESOURCE(iBitmapRes), iOrientation); } bool CCanvasUI::SetWatermark(LPCTSTR pstrBitmap, int iOrientation) { if( m_hBitmap != NULL ) ::DeleteObject(m_hBitmap); m_hBitmap = (HBITMAP) ::LoadImage(m_pManager->GetResourceInstance(), pstrBitmap, IMAGE_BITMAP, 0, 0, LR_CREATEDIBSECTION); ASSERT(m_hBitmap!=NULL); if( m_hBitmap == NULL ) return false; ::GetObject(m_hBitmap, sizeof(BITMAP), &m_BitmapInfo); m_iOrientation = iOrientation; Invalidate(); return true; } void CCanvasUI::DoPaint(HDC hDC, const RECT& rcPaint) { // Fill background RECT rcFill = { 0 }; if( ::IntersectRect(&rcFill, &rcPaint, &m_rcItem) ) { CBlueRenderEngineUI::DoFillRect(hDC, m_pManager, rcFill, m_clrBack); } // Paint watermark bitmap if( m_hBitmap != NULL ) { RECT rcBitmap = { 0 }; switch( m_iOrientation ) { case HTTOPRIGHT: ::SetRect(&rcBitmap, m_rcItem.right - m_BitmapInfo.bmWidth, m_rcItem.top, m_rcItem.right, m_rcItem.top + m_BitmapInfo.bmHeight); break; case HTBOTTOMRIGHT: ::SetRect(&rcBitmap, m_rcItem.right - m_BitmapInfo.bmWidth, m_rcItem.bottom - m_BitmapInfo.bmHeight, m_rcItem.right, m_rcItem.bottom); break; default: ::SetRect(&rcBitmap, m_rcItem.right - m_BitmapInfo.bmWidth, m_rcItem.bottom - m_BitmapInfo.bmHeight, m_rcItem.right, m_rcItem.bottom); break; } RECT rcTemp = { 0 }; if( ::IntersectRect(&rcTemp, &rcPaint, &rcBitmap) ) { CRenderClip clip; CBlueRenderEngineUI::GenerateClip(hDC, m_rcItem, clip); CBlueRenderEngineUI::DoPaintBitmap(hDC, m_pManager, m_hBitmap, rcBitmap); } } CContainerUI::DoPaint(hDC, rcPaint); } void CCanvasUI::SetAttribute(LPCTSTR pstrName, LPCTSTR pstrValue) { if( _tcscmp(pstrName, _T("watermark")) == 0 ) SetWatermark(pstrValue); else CContainerUI::SetAttribute(pstrName, pstrValue); } ///////////////////////////////////////////////////////////////////////////////////// // // CWindowCanvasUI::CWindowCanvasUI() { SetInset(CSize(10, 10)); m_clrBack = m_pManager->GetThemeColor(UICOLOR_WINDOW_BACKGROUND); } LPCTSTR CWindowCanvasUI::GetClass() const { return _T("WindowCanvasUI"); } ///////////////////////////////////////////////////////////////////////////////////// // // CControlCanvasUI::CControlCanvasUI() { SetInset(CSize(0, 0)); m_clrBack = m_pManager->GetThemeColor(UICOLOR_CONTROL_BACKGROUND_NORMAL); } LPCTSTR CControlCanvasUI::GetClass() const { return _T("ControlCanvasUI"); } ///////////////////////////////////////////////////////////////////////////////////// // // CWhiteCanvasUI::CWhiteCanvasUI() { SetInset(CSize(0, 0)); m_clrBack = m_pManager->GetThemeColor(UICOLOR_STANDARD_WHITE); } LPCTSTR CWhiteCanvasUI::GetClass() const { return _T("WhiteCanvasUI"); } ///////////////////////////////////////////////////////////////////////////////////// // // CDialogCanvasUI::CDialogCanvasUI() { SetInset(CSize(10, 10)); m_clrBack = m_pManager->GetThemeColor(UICOLOR_DIALOG_BACKGROUND); } LPCTSTR CDialogCanvasUI::GetClass() const { return _T("DialogCanvasUI"); } ///////////////////////////////////////////////////////////////////////////////////// // // CTabFolderCanvasUI::CTabFolderCanvasUI() { SetInset(CSize(0, 0)); COLORREF clrColor1; m_pManager->GetThemeColorPair(UICOLOR_TAB_FOLDER_NORMAL, clrColor1, m_clrBack); } LPCTSTR CTabFolderCanvasUI::GetClass() const { return _T("TabFolderCanvasUI"); } ///////////////////////////////////////////////////////////////////////////////////// // // CVerticalLayoutUI::CVerticalLayoutUI() : m_cyNeeded(0) { } LPCTSTR CVerticalLayoutUI::GetClass() const { return _T("VertialLayoutUI"); } void CVerticalLayoutUI::SetPos(RECT rc) { m_rcItem = rc; // Adjust for inset rc.left += m_rcInset.left; rc.top += m_rcInset.top; rc.right -= m_rcInset.right; rc.bottom -= m_rcInset.bottom; if( m_hwndScroll != NULL ) rc.right -= m_pManager->GetSystemMetrics().cxvscroll; // Determine the minimum size SIZE szAvailable = { rc.right - rc.left, rc.bottom - rc.top }; int nAdjustables = 0; int cyFixed = 0; for( int it1 = 0; it1 < m_items.GetSize(); it1++ ) { CControlUI* pControl = static_cast<CControlUI*>(m_items[it1]); if( !pControl->IsVisible() ) continue; SIZE sz = pControl->EstimateSize(szAvailable); if( sz.cy == 0 ) nAdjustables++; cyFixed += sz.cy + m_iPadding; } // Place elements int cyNeeded = 0; int cyExpand = 0; if( nAdjustables > 0 ) cyExpand = MAX(0, (szAvailable.cy - cyFixed) / nAdjustables); // Position the elements SIZE szRemaining = szAvailable; int iPosY = rc.top - m_iScrollPos; int iAdjustable = 0; for( int it2 = 0; it2 < m_items.GetSize(); it2++ ) { CControlUI* pControl = static_cast<CControlUI*>(m_items[it2]); if( !pControl->IsVisible() ) continue; SIZE sz = pControl->EstimateSize(szRemaining); if( sz.cy == 0 ) { iAdjustable++; sz.cy = cyExpand; // Distribute remaining to last element (usually round-off left-overs) if( iAdjustable == nAdjustables ) sz.cy += MAX(0, szAvailable.cy - (cyExpand * nAdjustables) - cyFixed); } RECT rcCtrl = { rc.left, iPosY, rc.right, iPosY + sz.cy }; pControl->SetPos(rcCtrl); iPosY += sz.cy + m_iPadding; cyNeeded += sz.cy + m_iPadding; szRemaining.cy -= sz.cy + m_iPadding; } // Handle overflow with scrollbars ProcessScrollbar(rc, cyNeeded); } ///////////////////////////////////////////////////////////////////////////////////// // // CHorizontalLayoutUI::CHorizontalLayoutUI() { } LPCTSTR CHorizontalLayoutUI::GetClass() const { return _T("HorizontalLayoutUI"); } void CHorizontalLayoutUI::SetPos(RECT rc) { m_rcItem = rc; // Adjust for inset rc.left += m_rcInset.left; rc.top += m_rcInset.top; rc.right -= m_rcInset.right; rc.bottom -= m_rcInset.bottom; // Determine the width of elements that are sizeable SIZE szAvailable = { rc.right - rc.left, rc.bottom - rc.top }; int nAdjustables = 0; int cxFixed = 0; for( int it1 = 0; it1 < m_items.GetSize(); it1++ ) { CControlUI* pControl = static_cast<CControlUI*>(m_items[it1]); if( !pControl->IsVisible() ) continue; SIZE sz = pControl->EstimateSize(szAvailable); if( sz.cx == 0 ) nAdjustables++; cxFixed += sz.cx + m_iPadding; } int cxExpand = 0; if( nAdjustables > 0 ) cxExpand = MAX(0, (szAvailable.cx - cxFixed) / nAdjustables); // Position the elements SIZE szRemaining = szAvailable; int iPosX = rc.left; int iAdjustable = 0; for( int it2 = 0; it2 < m_items.GetSize(); it2++ ) { CControlUI* pControl = static_cast<CControlUI*>(m_items[it2]); if( !pControl->IsVisible() ) continue; SIZE sz = pControl->EstimateSize(szRemaining); if( sz.cx == 0 ) { iAdjustable++; sz.cx = cxExpand; if( iAdjustable == nAdjustables ) sz.cx += MAX(0, szAvailable.cx - (cxExpand * nAdjustables) - cxFixed); } RECT rcCtrl = { iPosX, rc.top, iPosX + sz.cx, rc.bottom }; pControl->SetPos(rcCtrl); iPosX += sz.cx + m_iPadding; szRemaining.cx -= sz.cx + m_iPadding; } } ///////////////////////////////////////////////////////////////////////////////////// // // CTileLayoutUI::CTileLayoutUI() : m_nColumns(2), m_cyNeeded(0) { SetPadding(10); SetInset(CSize(10, 10)); } LPCTSTR CTileLayoutUI::GetClass() const { return _T("TileLayoutUI"); } void CTileLayoutUI::SetColumns(int nCols) { if( nCols <= 0 ) return; m_nColumns = nCols; UpdateLayout(); } void CTileLayoutUI::SetPos(RECT rc) { m_rcItem = rc; // Adjust for inset rc.left += m_rcInset.left; rc.top += m_rcInset.top; rc.right -= m_rcInset.right; rc.bottom -= m_rcInset.bottom; if( m_hwndScroll != NULL ) rc.right -= m_pManager->GetSystemMetrics().cxvscroll; // Position the elements int cxWidth = (rc.right - rc.left) / m_nColumns; int cyHeight = 0; int iCount = 0; POINT ptTile = { rc.left, rc.top - m_iScrollPos }; for( int it1 = 0; it1 < m_items.GetSize(); it1++ ) { CControlUI* pControl = static_cast<CControlUI*>(m_items[it1]); if( !pControl->IsVisible() ) continue; // Determine size RECT rcTile = { ptTile.x, ptTile.y, ptTile.x + cxWidth, ptTile.y }; // Adjust with element padding if( (iCount % m_nColumns) == 0 ) rcTile.right -= m_iPadding / 2; else if( (iCount % m_nColumns) == m_nColumns - 1 ) rcTile.left += m_iPadding / 2; else ::InflateRect(&rcTile, -(m_iPadding / 2), 0); // If this panel expands vertically if( m_cxyFixed.cy == 0) { SIZE szAvailable = { rcTile.right - rcTile.left, 9999 }; int iIndex = iCount; for( int it2 = it1; it2 < m_items.GetSize(); it2++ ) { SIZE szTile = static_cast<CControlUI*>(m_items[it2])->EstimateSize(szAvailable); cyHeight = MAX(cyHeight, szTile.cy); if( (++iIndex % m_nColumns) == 0) break; } } // Set position rcTile.bottom = rcTile.top + cyHeight; pControl->SetPos(rcTile); // Move along... if( (++iCount % m_nColumns) == 0 ) { ptTile.x = rc.left; ptTile.y += cyHeight + m_iPadding; cyHeight = 0; } else { ptTile.x += cxWidth; } m_cyNeeded = rcTile.bottom - (rc.top - m_iScrollPos); } // Process the scrollbar ProcessScrollbar(rc, m_cyNeeded); } ///////////////////////////////////////////////////////////////////////////////////// // // CDialogLayoutUI::CDialogLayoutUI() : m_bFirstResize(true), m_aModes(sizeof(STRETCHMODE)) { ::ZeroMemory(&m_rcDialog, sizeof(m_rcDialog)); } LPCTSTR CDialogLayoutUI::GetClass() const { return _T("DialogLayoutUI"); } LPVOID CDialogLayoutUI::GetInterface(LPCTSTR pstrName) { if( _tcscmp(pstrName, _T("DialogLayout")) == 0 ) return this; return CContainerUI::GetInterface(pstrName); } void CDialogLayoutUI::SetStretchMode(CControlUI* pControl, UINT uMode) { STRETCHMODE mode; mode.pControl = pControl; mode.uMode = uMode; mode.rcItem = pControl->GetPos(); m_aModes.Add(&mode); } SIZE CDialogLayoutUI::EstimateSize(SIZE szAvailable) { RecalcArea(); return CSize(m_rcDialog.right - m_rcDialog.left, m_rcDialog.bottom - m_rcDialog.top); } void CDialogLayoutUI::SetPos(RECT rc) { m_rcItem = rc; RecalcArea(); // Do Scrollbar ProcessScrollbar(rc, m_rcDialog.bottom - m_rcDialog.top); if( m_hwndScroll != NULL ) rc.right -= m_pManager->GetSystemMetrics().cxvscroll; // Determine how "scaled" the dialog is compared to the original size int cxDiff = (rc.right - rc.left) - (m_rcDialog.right - m_rcDialog.left); int cyDiff = (rc.bottom - rc.top) - (m_rcDialog.bottom - m_rcDialog.top); if( cxDiff < 0 ) cxDiff = 0; if( cyDiff < 0 ) cyDiff = 0; // Stretch each control // Controls are coupled in "groups", which determine a scaling factor. // A "line" indicator is used to apply the same scaling to a new group of controls. int nCount, cxStretch, cyStretch, cxMove, cyMove; for( int i = 0; i < m_aModes.GetSize(); i++ ) { STRETCHMODE* pItem = static_cast<STRETCHMODE*>(m_aModes[i]); if( i == 0 || (pItem->uMode & UISTRETCH_NEWGROUP) != 0 ) { nCount = 0; for( int j = i + 1; j < m_aModes.GetSize(); j++ ) { STRETCHMODE* pNext = static_cast<STRETCHMODE*>(m_aModes[j]); if( (pNext->uMode & (UISTRETCH_NEWGROUP | UISTRETCH_NEWLINE)) != 0 ) break; if( (pNext->uMode & (UISTRETCH_SIZE_X | UISTRETCH_SIZE_Y)) != 0 ) nCount++; } if( nCount == 0 ) nCount = 1; cxStretch = cxDiff / nCount; cyStretch = cyDiff / nCount; cxMove = 0; cyMove = 0; } if( (pItem->uMode & UISTRETCH_NEWLINE) != 0 ) { cxMove = 0; cyMove = 0; } RECT rcPos = pItem->rcItem; ::OffsetRect(&rcPos, rc.left, rc.top - m_iScrollPos); if( (pItem->uMode & UISTRETCH_MOVE_X) != 0 ) ::OffsetRect(&rcPos, cxMove, 0); if( (pItem->uMode & UISTRETCH_MOVE_Y) != 0 ) ::OffsetRect(&rcPos, 0, cyMove); if( (pItem->uMode & UISTRETCH_SIZE_X) != 0 ) rcPos.right += cxStretch; if( (pItem->uMode & UISTRETCH_SIZE_Y) != 0 ) rcPos.bottom += cyStretch; if( (pItem->uMode & (UISTRETCH_SIZE_X | UISTRETCH_SIZE_Y)) != 0 ) { cxMove += cxStretch; cyMove += cyStretch; } pItem->pControl->SetPos(rcPos); } } void CDialogLayoutUI::RecalcArea() { if( !m_bFirstResize ) return; // Add the remaining control to the list // Controls that have specific stretching needs will define them in the XML resource // and by calling SetStretchMode(). Other controls needs to be added as well now... for( int it = 0; it < m_items.GetSize(); it++ ) { CControlUI* pControl = static_cast<CControlUI*>(m_items[it]); bool bFound = false; for( int i = 0; !bFound && i < m_aModes.GetSize(); i++ ) { if( static_cast<STRETCHMODE*>(m_aModes[i])->pControl == pControl ) bFound = true; } if( !bFound ) { STRETCHMODE mode; mode.pControl = pControl; mode.uMode = UISTRETCH_NEWGROUP; mode.rcItem = pControl->GetPos(); m_aModes.Add(&mode); } } // Figure out the actual size of the dialog so we can add proper scrollbars later CRect rcDialog(9999, 9999, 0,0); for( int i = 0; i < m_items.GetSize(); i++ ) { const RECT& rcPos = static_cast<CControlUI*>(m_items[i])->GetPos(); rcDialog.Join(rcPos); } for( int j = 0; j < m_aModes.GetSize(); j++ ) { RECT& rcPos = static_cast<STRETCHMODE*>(m_aModes[j])->rcItem; ::OffsetRect(&rcPos, -rcDialog.left, -rcDialog.top); } m_rcDialog = rcDialog; // We're done with initialization m_bFirstResize = false; }

3538f1a587668eb7b6df8b224337eff845558d3d

14298a990afb4c8619eea10988f9c0854ec49d29

/PowerBill四川电信专用版本/ibill_source/OpenDialogFrm.cpp

4161bd4ba88e9a804e04cdc4452a7f4fd31c73ba

no_license

sridhar19091986/xmlconvertsql

066344074e932e919a69b818d0038f3d612e6f17

bbb5bbaecbb011420d701005e13efcd2265aa80e

refs/heads/master

GB18030

C++

cpp

//--------------------------------------------------------------------------- #include <vcl.h> #pragma hdrstop #include "OpenDialogFrm.h" #include "public.h" //--------------------------------------------------------------------------- #pragma package(smart_init) #pragma link "RzCmboBx" #pragma link "RzShellCtrls" #pragma link "RzGroupBar" #pragma link "RzPanel" #pragma link "RzListVw" #pragma link "RzButton" #pragma link "dcOutPanel" #pragma link "RzTreeVw" #pragma link "dcOutPanel" #pragma link "RzRadChk" #pragma resource "*.dfm" TfrmOpenDialog *frmOpenDialog; //--------------------------------------------------------------------------- __fastcall TfrmOpenDialog::TfrmOpenDialog(TComponent* Owner) : TForm(Owner) { //Files = new TStringList; PathName = ""; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::btnCancelClick(TObject *Sender) { ModalResult = mrCancel; } //--------------------------------------------------------------------------- bool __fastcall TfrmOpenDialog::Execute() { //Files->Clear(); return ShowModal() == mrOk; } void __fastcall TfrmOpenDialog::btnOpenClick(TObject *Sender) { if(lvFiles->SelCount == 0) return; if(cbxFileFormat->ItemIndex < 0) { MessageBox(Handle,"请指定当前将要打开的文件的格式!","提示",MB_OK | MB_ICONWARNING); cbxFileFormat->SetFocus(); return; } PathName = lvFiles->Folder->PathName; if(PathName.SubString(PathName.Length(),1) != "\\") PathName += "\\"; /* TListItem * Item; TItemStates States = TItemStates() << isSelected; PathName = lvFiles->Folder->PathName; if(PathName.SubString(PathName.Length(),1) != "\\") PathName += "\\"; Item = lvFiles->GetNextItem(NULL,sdAll,States); Screen->Cursor = crHourGlass; //Files->Clear(); //unsigned int FileSize; //HANDLE hFile; //AnsiString FileName; while(Item != NULL) { FileName = PathName + Item->Caption; hFile = CreateFile(FileName.c_str(),GENERIC_READ,0,NULL,OPEN_EXISTING,FILE_ATTRIBUTE_NORMAL,NULL); if(hFile == INVALID_HANDLE_VALUE) { if(DirectoryExists(FileName)) //如果是文件夹 { continue; } else { MessageBox(Handle,("不能获取文件 " + FileName + " 的大小").c_str(),"警告",MB_OK | MB_ICONWARNING); FileSize = -1; } } else { FileSize = GetFileSize(hFile,NULL); CloseHandle(hFile); } Files->AddObject(FileName,(TObject *)FileSize); Item = lvFiles->GetNextItem(Item,sdAll,States); } Screen->Cursor = crDefault; if(Files->Count == 0) return; */ ModalResult = mrOk; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::cbxFolderChange(TObject *Sender) { lvFiles->Folder->PathName = cbxFolder->SelectedFolder->PathName; tvFolder->SelectedPathName = cbxFolder->SelectedFolder->PathName; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::lvFilesFolderChanged(TObject *Sender) { cbxFolder->SelectedFolder->PathName = lvFiles->Folder->PathName; tvFolder->SelectedPathName = lvFiles->Folder->PathName; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::ToolButton1Click(TObject *Sender) { lvFiles->GoUp(1); } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::menuIconClick(TObject *Sender) { lvFiles->ViewStyle = vsIcon; menuIcon->Checked = true; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::menuSmallClick(TObject *Sender) { lvFiles->ViewStyle = vsSmallIcon; menuSmall->Checked = true; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::menuListClick(TObject *Sender) { lvFiles->ViewStyle = vsList; menuList->Checked = true; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::menuDetailClick(TObject *Sender) { lvFiles->ViewStyle = vsReport; menuDetail->Checked = true; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::FormDestroy(TObject *Sender) { //delete Files; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::lvFilesDblClickOpen(TObject *Sender, bool &Handled) { btnOpenClick(NULL); Handled = true; } //--------------------------------------------------------------------------- void __fastcall TfrmOpenDialog::tvFolderChange(TObject *Sender, TTreeNode *Node) { cbxFolder->SelectedFolder->PathName = tvFolder->SelectedPathName; lvFiles->Folder->PathName = tvFolder->SelectedPathName; } //--------------------------------------------------------------------------- bool __fastcall TfrmOpenDialog::FormHelp(WORD Command, int Data, bool &CallHelp) { if(Command != HELP_CONTEXTPOPUP) { CallHelp = false; return true; } WinHelp(Handle,(HelpFilePath + "opendialog.hlp").c_str(),HELP_CONTEXTPOPUP,Data); CallHelp = false; return true; } //---------------------------------------------------------------------------

f1e907bc884bd3b47a1ce88de0932a7b1c4b8cfb

482345b63717a46b45763fb07c6c0c645c7af418

/Longitud cadena de texto.cpp

1e51239d0300c50b0d2de4dd5215d8dd53f73ad3

no_license

camilonova/Varios-C

4a2131643a6019c36f0c3854edad9b0b98730436

2b9c9860d96e169701f87d6c50a7209016c43041

refs/heads/master

UTF-8

C++

cpp

/*Programa que determina la longitud de una cadena de texto, utilizando las funciones de la libreria string.h*/ #include <stdio.h> #include <string.h> main() { char string[80]; printf("\nIntroduzca una cadena de texto:"); gets(string); printf("\n\nLa cadena \" %s \" tiene %d caracteres\n\n", string, strlen(string)); return 0; }

04b9933ad7d5f1f3295fb7573960f97fd236e858

dec876ce09f7fb2e9cd2d80e66d98bbb02f6ff6e

/Classes/Ponto.cpp

c40f61b839955f09d93cac8abae8cd90776437f4

no_license

fleith/BestPoint

5b0b5804ebfad7de5722a82b253ec66419177e1b

5df9af3ee68c0d967716af0e0a5e89e69c905a44

refs/heads/master

UTF-8

C++

cpp

/* * Ponto.cpp * * Created on: Jul 3, 2008 * Author: alvaro */ #include "Ponto.h" //////////////////////////////////////////////////////////////////////////////// Ponto::~Ponto() { } //////////////////////////////////////////////////////////////////////////////// Ponto::Ponto(Cromossomo& cromossomo):posicaoX(cromossomo.PosicaoX()), posicaoY(cromossomo.PosicaoY()) { } //////////////////////////////////////////////////////////////////////////////// Ponto::Ponto(double posX, double posY):posicaoX(posX),posicaoY(posY) { } //////////////////////////////////////////////////////////////////////////////// double Ponto::PosicaoX() { return posicaoX; } //////////////////////////////////////////////////////////////////////////////// double Ponto::PosicaoY() { return posicaoY; } ////////////////////////////////////////////////////////////////////////////////

9d1b140d5fecd62e67fd5ceb4a335adaf1377b9b

fbd2deaa66c52fc8c38baa90dd8f662aabf1f0dd

/totalFirePower/ta demo/code/Bitmap.h

b5eebf3813e53b120b04d47ec51bd867ab45bc68

no_license

arlukin/dev

ea4f62f3a2f95e1bd451fb446409ab33e5c0d6e1

b71fa9e9d8953e33f25c2ae7e5b3c8e0defd18e0

refs/heads/master

UTF-8

C++

h

// Bitmap.h: interface for the CBitmap class. // ////////////////////////////////////////////////////////////////////// #if !defined(AFX_BITMAP_H__BBA7EEE5_879F_4ABE_A878_51FE098C3A0D__INCLUDED_) #define AFX_BITMAP_H__BBA7EEE5_879F_4ABE_A878_51FE098C3A0D__INCLUDED_ #if _MSC_VER > 1000 #pragma once #endif // _MSC_VER > 1000 #include <string> using std::string; class CBitmap { public: void LoadJPG(string filename); void LoadBMP(string filename); void Save(string filename); CBitmap(unsigned char* data,int xsize,int ysize); void Load(string filename); CBitmap(string filename); CBitmap(); virtual ~CBitmap(); unsigned char* mem; int xsize; int ysize; }; #endif // !defined(AFX_BITMAP_H__BBA7EEE5_879F_4ABE_A878_51FE098C3A0D__INCLUDED_)

84befaf6691a5e0b34bc8803c48f1b88beaafca9

01fadae9f2a6d3f19bc843841a7faa9c40fc4a20

/CG/code_CG/EX04_03.CPP

d861d8ffee0d00ac8df1a45a29793407e7952378

no_license

passzenith/passzenithproject

9999da29ac8df269c41d280137113e1e2638542d

67dd08f4c3a046889319170a89b45478bfd662d2

refs/heads/master

UTF-8

C++

cpp

#include <GL/glut.h> void init (void) { glClearColor (1.0, 1.0, 1.0, 0.0); glColor3f (0.0, 0.0, 1.0); glLineWidth(4.0); glMatrixMode (GL_PROJECTION); glLoadIdentity (); gluOrtho2D (0.0, 400.0, 0.0, 300.0); } void myDisplay (void) { int p0 [ ] = {50, 200}; int p1 [ ] = {100, 50}; int p2 [ ] = {300, 100}; int p3 [ ] = {350, 250}; int p4 [ ] = {200, 150}; glClear (GL_COLOR_BUFFER_BIT); // For function GL_LINES. glBegin (GL_LINES); // 2 line from p0-p1 and p2-p3. glVertex2iv (p0); glVertex2iv (p1); glVertex2iv (p2); glVertex2iv (p3); glVertex2iv (p4); glEnd ( ); // For function GL_LINE_STRIP. /* glBegin (GL_LINE_STRIP); // 4 line from p0-p1, p1-p2, p2-p3, p3-p4. glVertex2iv (p0); glVertex2iv (p1); glVertex2iv (p2); glVertex2iv (p3); glVertex2iv (p4); glEnd ( ); */ // For function GL_LINE_LOOP. /* glBegin (GL_LINE_LOOP); // 5 line from p0-p1, p1-p2, p2-p3, p3-p4 and p4-p0. glVertex2iv (p0); glVertex2iv (p1); glVertex2iv (p2); glVertex2iv (p3); glVertex2iv (p4); glEnd ( ); */ glFlush ( ); } int main (int argc, char** argv) { glutInit (&argc, argv); glutInitDisplayMode (GLUT_SINGLE | GLUT_RGB); glutInitWindowPosition (50, 100); glutInitWindowSize (400, 300); glutCreateWindow ("Draw lines with OpenGL Program"); init ( ); glutDisplayFunc (myDisplay); glutMainLoop ( ); return 0; }

e511a39e7ae96890f5284f93a117f82686ccb02b

d752d83f8bd72d9b280a8c70e28e56e502ef096f

/FugueDLL/Language Extensions/DLLAccess.cpp

62ce981dbdcf8c32f93f6d06b8a8cfda030c5465

no_license

apoch/epoch-language.old

f87b4512ec6bb5591bc1610e21210e0ed6a82104

b09701714d556442202fccb92405e6886064f4af

refs/heads/master

UTF-8

C++

cpp

// // The Epoch Language Project // FUGUE Virtual Machine // // Wrapper logic for accessing language extension libraries // #include "pch.h" #include "Language Extensions/DLLAccess.h" #include "Language Extensions/ExtensionCatalog.h" #include "Traverser/TraversalInterface.h" #include "Virtual Machine/Core Entities/Block.h" #include "Virtual Machine/Core Entities/Operation.h" #include "Virtual Machine/Core Entities/Program.h" #include "Virtual Machine/Core Entities/Scopes/ScopeDescription.h" #include "Virtual Machine/Core Entities/Scopes/ActivatedScope.h" #include "Virtual Machine/Core Entities/Variables/ArrayVariable.h" #include "Marshalling/DLLPool.h" #include "Utility/Strings.h" using namespace Extensions; // // Construct the access wrapper and initialize the DLL bindings // ExtensionDLLAccess::ExtensionDLLAccess(const std::wstring& dllname, VM::Program& program, bool startsession) : SessionHandle(0), DLLName(dllname), ExtensionValid(false), DLLHandle(NULL) { // Load the DLL DLLHandle = Marshalling::TheDLLPool.OpenDLL(dllname); if(!DLLHandle) throw Exception("A language extension DLL was requested, but the DLL was either not found or reported some error during initialization"); // Obtain interface into DLL DoInitialize = reinterpret_cast<InitializePtr>(::GetProcAddress(DLLHandle, "Initialize")); DoRegistration = reinterpret_cast<RegistrationPtr>(::GetProcAddress(DLLHandle, "Register")); DoLoadSource = reinterpret_cast<LoadSourceBlockPtr>(::GetProcAddress(DLLHandle, "LoadSourceBlock")); DoExecuteSource = reinterpret_cast<ExecuteSourceBlockPtr>(::GetProcAddress(DLLHandle, "ExecuteSourceBlock")); DoExecuteControl = reinterpret_cast<ExecuteControlPtr>(::GetProcAddress(DLLHandle, "ExecuteControl")); DoPrepare = reinterpret_cast<PreparePtr>(::GetProcAddress(DLLHandle, "CommitCompilation")); DoStartSession = reinterpret_cast<StartCompileSessionPtr>(::GetProcAddress(DLLHandle, "StartNewProgramCompilation")); DoFillSerializationBuffer = reinterpret_cast<FillSerializationBufferPtr>(::GetProcAddress(DLLHandle, "FillSerializationBuffer")); DoFreeSerializationBuffer = reinterpret_cast<FreeSerializationBufferPtr>(::GetProcAddress(DLLHandle, "FreeSerializationBuffer")); DoLoadDataBuffer = reinterpret_cast<LoadDataBufferPtr>(::GetProcAddress(DLLHandle, "LoadDataBuffer")); DoPrepareBlock = reinterpret_cast<PrepareBlockPtr>(::GetProcAddress(DLLHandle, "PrepareBlock")); DoClearEverything = reinterpret_cast<ClearEverythingPtr>(::GetProcAddress(DLLHandle, "ClearEverything")); // Validate interface to be sure if(!DoInitialize || !DoRegistration || !DoLoadSource || !DoExecuteSource || !DoExecuteControl || !DoPrepare || !DoStartSession || !DoFillSerializationBuffer || !DoFreeSerializationBuffer || !DoLoadDataBuffer || !DoPrepareBlock || !DoClearEverything) { throw Exception("One or more Epoch service functions could not be loaded from the requested language extension DLL"); } ExtensionValid = DoInitialize(); if(startsession) SessionHandle = DoStartSession(reinterpret_cast<HandleType>(&program)); else SessionHandle = 0; } // // Create a block of code in the language extension, given a block of raw Epoch code // CodeBlockHandle ExtensionDLLAccess::LoadSourceBlock(const std::wstring& keyword, OriginalCodeHandle handle) { return DoLoadSource(SessionHandle, handle, keyword.c_str()); } // // Invoke the code generated for the specified language extension code block // void ExtensionDLLAccess::ExecuteSourceBlock(CodeBlockHandle handle, HandleType activatedscopehandle) { return DoExecuteSource(handle, activatedscopehandle); } void ExtensionDLLAccess::ExecuteSourceBlock(CodeBlockHandle handle, HandleType activatedscopehandle, const std::vector<Traverser::Payload>& payloads) { if(payloads.empty()) return DoExecuteControl(handle, activatedscopehandle, 0, NULL); else return DoExecuteControl(handle, activatedscopehandle, payloads.size(), &payloads[0]); } namespace { // // Callback: register an extension keyword for this language extension // // The language extension invokes this callback for each keyword it wishes // to add to the language. When one of these keywords is encountered, the // subsequent code block is converted by the extension library. // void __stdcall RegistrationCallback(ExtensionLibraryHandle token, const wchar_t* keyword) { RegisterExtensionKeyword(keyword, token); } void __stdcall ControlRegistrationCallback(ExtensionLibraryHandle token, const wchar_t* keyword, size_t numparams, ExtensionControlParamInfo* params) { RegisterExtensionControl(keyword, token, numparams, params); } class BindTraversal { public: BindTraversal(Traverser::Interface* traversal, HandleType sessionhandle) : Traversal(traversal), SessionHandle(sessionhandle) { } public: void EnterBlock(const VM::Block& block) { ActiveScopes.push(block.GetBoundScope()); Traversal->NodeEntryCallback(SessionHandle); } void ExitBlock(const VM::Block& block) { Traversal->NodeExitCallback(SessionHandle); ActiveScopes.pop(); } void TraverseNode(const std::wstring& token, const Traverser::Payload& payload) { Traversal->NodeTraversalCallback(SessionHandle, token.c_str(), &payload); } void TraverseFunction(const std::wstring& funcname, VM::Function* targetfunction) { Traversal->FunctionTraversalCallback(SessionHandle, funcname.c_str()); targetfunction->GetReturns().TraverseExternal(*this); targetfunction->GetParams().TraverseExternal(*this); targetfunction->GetCodeBlock()->TraverseExternal(*this); } void RegisterScope(const VM::ScopeDescription* description, bool isghost) { ActiveScopes.push(description); std::vector<Traverser::ScopeContents> contents; for(std::vector<std::wstring>::const_iterator iter = description->GetMemberOrder().begin(); iter != description->GetMemberOrder().end(); ++iter) { Traverser::ScopeContents content; content.Identifier = iter->c_str(); content.Type = description->GetVariableType(*iter); if(content.Type == VM::EpochVariableType_Array) { content.ContainedType = description->GetArrayType(*iter); content.ContainedSize = 0; } contents.push_back(content); } Traversal->ScopeTraversalCallback(SessionHandle, ActiveScopes.size() == 1, isghost, contents.size(), contents.size() ? &(contents[0]) : NULL); std::set<const VM::ScopeDescription*> ghostscopes = description->GetAllGhostScopes(); for(std::set<const VM::ScopeDescription*>::const_iterator iter = ghostscopes.begin(); iter != ghostscopes.end(); ++iter) RegisterScope(*iter, true); ActiveScopes.pop(); } const VM::ScopeDescription* GetCurrentScope() const { if(ActiveScopes.empty()) return NULL; return ActiveScopes.top(); } private: Traverser::Interface* Traversal; HandleType SessionHandle; std::stack<const VM::ScopeDescription*> ActiveScopes; }; // // Callback: traverse a block of code, invoking the given traverser interface as needed // // This function traverses the entire specified block of Epoch code, passing // information to the language extension for each operation in the block. // void __stdcall TraversalCallback(OriginalCodeHandle handle, Traverser::Interface* traversal, HandleType sessionhandle) { BindTraversal boundtraverser(traversal, sessionhandle); VM::Block* originalcode = reinterpret_cast<VM::Block*>(handle); // This is safe since we issued the handle to begin with! VM::ScopeDescription* parentscope = originalcode->GetBoundScope()->ParentScope; while(parentscope) { boundtraverser.RegisterScope(parentscope, false); parentscope = parentscope->ParentScope; } originalcode->TraverseExternal(boundtraverser); } void __stdcall TraverseFunctionCallback(const wchar_t* functionname, Traverser::Interface* traversal, HandleType session, HandleType program) { VM::Program* theprogram = reinterpret_cast<VM::Program*>(program); VM::Function* targetfunction = dynamic_cast<VM::Function*>(theprogram->GetGlobalScope().GetFunction(functionname)); if(!targetfunction) throw Exception("Could not find the requested function"); BindTraversal boundtraverser(traversal, session); boundtraverser.TraverseFunction(functionname, targetfunction); } // // Convert a traverser payload wrapper structure to a VM RValue wrapper // VM::RValuePtr PayloadToRValue(const Traverser::Payload& payload) { // TODO - support additional types switch(payload.Type) { case VM::EpochVariableType_Integer: return VM::RValuePtr(new VM::IntegerRValue(payload.Int32Value)); case VM::EpochVariableType_Integer16: return VM::RValuePtr(new VM::Integer16RValue(payload.Int16Value)); case VM::EpochVariableType_Real: return VM::RValuePtr(new VM::RealRValue(payload.FloatValue)); case VM::EpochVariableType_String: return VM::RValuePtr(new VM::StringRValue(payload.StringValue)); case VM::EpochVariableType_Array: return VM::RValuePtr(new VM::ArrayRValue(payload.ParameterType, payload.ParameterCount, payload.PointerValue)); } throw Exception("Unsupported type, cannot convert language extension data into a VM-friendly format"); } // // Callback: the language extension wishes to set the value of an Epoch variable // void __stdcall MarshalCallbackWrite(HandleType handle, const wchar_t* identifier, Traverser::Payload* payload) { VM::ActivatedScope* activatedscope = reinterpret_cast<VM::ActivatedScope*>(handle); // This is safe since we issued the handle to begin with! VM::EpochVariableTypeID desttype = activatedscope->GetVariableType(identifier); activatedscope->SetVariableValue(identifier, PayloadToRValue(*payload)); } // // Callback: the language extension wishes to retrieve the value of an Epoch variable // void __stdcall MarshalCallbackRead(HandleType activatedscopehandle, const wchar_t* identifier, Traverser::Payload* payload) { VM::ActivatedScope* activatedscope = reinterpret_cast<VM::ActivatedScope*>(activatedscopehandle); // This is safe since we issued the handle to begin with! payload->Type = activatedscope->GetVariableType(identifier); // TODO - support additional types switch(payload->Type) { case VM::EpochVariableType_Integer: payload->SetValue(activatedscope->GetVariableValue(identifier)->CastTo<VM::IntegerRValue>().GetValue()); break; case VM::EpochVariableType_Integer16: payload->SetValue(activatedscope->GetVariableValue(identifier)->CastTo<VM::Integer16RValue>().GetValue()); break; case VM::EpochVariableType_Real: payload->SetValue(activatedscope->GetVariableValue(identifier)->CastTo<VM::RealRValue>().GetValue()); break; case VM::EpochVariableType_String: payload->SetValue(activatedscope->GetVariableValue(identifier)->CastTo<VM::StringRValue>().GetValue().c_str()); break; case VM::EpochVariableType_Array: { HandleType handle = activatedscope->GetVariableValue(identifier)->CastTo<VM::ArrayRValue>().GetHandle(); size_t elementcount = activatedscope->GetVariableValue(identifier)->CastTo<VM::ArrayRValue>().GetElementCount(); payload->SetValue(VM::ArrayVariable::GetArrayStorage(handle)); payload->ParameterCount = elementcount; } break; default: throw Exception("Unsupported type, cannot pass a variable of this type through a language extension library"); } } // // Callback: register that an error occurred during some operation in the language extension library // // This function allows us to respond appropriately to errors in the extension library, // without needing to worry about throwing actual exceptions across DLL boundaries. // void __stdcall ErrorCallback(const wchar_t* errormessage) { throw std::exception(narrow(errormessage).c_str()); } } // // Request the library extension to register the keywords it wishes to add to the language // // Note that we also take this to inform the library of where to find callback // functionality for compiling and otherwise handling Epoch code. // void ExtensionDLLAccess::RegisterExtensionKeywords(ExtensionLibraryHandle token) { Extensions::ExtensionInterface eif; eif.Register = RegistrationCallback; eif.RegisterControl = ControlRegistrationCallback; eif.Traverse = TraversalCallback; eif.TraverseFunction = TraverseFunctionCallback; eif.MarshalRead = MarshalCallbackRead; eif.MarshalWrite = MarshalCallbackWrite; eif.Error = ErrorCallback; DoRegistration(&eif, token); } // // Request the library extension to do anything it needs to do in order to begin program execution // void ExtensionDLLAccess::PrepareForExecution() { DoPrepare(SessionHandle); } void ExtensionDLLAccess::FillSerializationBuffer(wchar_t*& buffer, size_t& buffersize) { DoFillSerializationBuffer(&buffer, &buffersize); } void ExtensionDLLAccess::FreeSerializationBuffer(wchar_t* buffer) { DoFreeSerializationBuffer(buffer); } void ExtensionDLLAccess::LoadDataBuffer(const std::string& buffer) { DoLoadDataBuffer(buffer.data(), buffer.size()); } void ExtensionDLLAccess::PrepareCodeBlock(CodeBlockHandle handle) { DoPrepareBlock(handle); } void ExtensionDLLAccess::ClearEverything() { DoClearEverything(); }

6b40e1256efd3970db440fcc08d867cf983a2de0

f7d5fcb47d370751163d253ac0d705d52bd3c5d5

/tags/trunk/Sources/source/hapticgraphclasses/DragObjectHandler.h

0f81095684d320935e56c504af98d62233935922

no_license

BackupTheBerlios/phantom-graphs-svn

b830eadf54c49ccecf2653e798e3a82af7e0e78d

6a585ecde8432394c732a72e4860e136d68cc4b4

refs/heads/master

ISO-8859-1

C++

h

//******************************************************************************* /// @file DragObjectHandler.h /// @author Katharina Greiner, Matr.-Nr. 943471 /// @date Erstellt am 15.12.2005 /// @date Letzte Änderung 15.12.2005 //******************************************************************************* // Änderungen: #ifndef _DRAGOBJECTHANDLER_H_ #define _DRAGOBJECTHANDLER_H_ // Haptic Library includes #include <HL/hl.h> #include <HDU/hduMatrix.h> #include "HapticAction.h" #include "HapticObject.h" //............................................................................... /// @author Katharina Greiner, Matr.-Nr. 943471 /// /// @brief Eine Eventhandlerklasse die es ermöglicht, haptische Objekte mit dem /// Phantom zu bewegen /// /// Der Eventhandler reagiert auf die folgende Events: /// - der vordere Phantom-Button wird gedrückt, wenn ein Objekt mit dem /// Phantom berührt wird /// - das Phantom wird mit gedrücktem Button bewegt /// - der vordere Phantom-Button wird losgelassen /// Wirkung: Solange der Button gedrückt gehalten wird, folgt das /// registrierte Objekt der Bewegung des Phantom /// @todo Objekte lassen sich noch nicht nach hinten (in neg. z-Richtung) verschieben. //............................................................................... class DragObjectHandler : public IHapticAction { protected: //....................................................................... /// @brief Das Objekt, dem der Eventhandler zugeordnet ist. Wird NICHT /// vom EventHandler freigegeben! //....................................................................... HapticObject * m_pDragObj; //....................................................................... /// @brief Position des Proxy beim letzten Aufruf des Draghandlers. /// Dient zur Berechnung des Vektors um den das Objekt verschoben werden soll. //....................................................................... hduVector3Dd m_LastProxyPos; //....................................................................... /// @brief (HLAPI-Callbackfunktion) Started das Draggen des Objekts /// @param event Gibt an, auf welches HLAPI-Event hin die Callback- /// Funktion aufgerufen werden soll, hier HL_EVENT_1BUTTONDOWN. /// @param shapeID Die ShapeID des Objekts, das bewegt werden soll. /// @param thread Gibt an, in welchem HLAPI-Thread das Event behandelt /// werden soll, in diesem Fall HL_CLIENT_THREAD. /// @param cache HLAPI-State Schnappschuss in dem Moment, in dem das Event feuert. /// @param pHandlerObject Pointer auf das DragObjectHandler-Objekt, das /// das Event verarbeiten soll. //....................................................................... static void HLCALLBACK OnButtonDown(HLenum event, HLuint shapeID, HLenum thread, HLcache *cache, void *pHandlerObject); //....................................................................... /// @brief (HLAPI-Callbackfunktion) Beendet das Draggen des Objekts. /// @param event Gibt an, auf welches HLAPI-Event hin die Callback- /// Funktion aufgerufen werden soll, hier HL_EVENT_1BUTTONUP. /// @param shapeID Hier soll HL_OBJECT_ANY angegeben werden. /// @param thread Gibt an, in welchem HLAPI-Thread das Event behandelt /// werden soll, in diesem Fall HL_CLIENT_THREAD. /// @param cache HLAPI-State Schnappschuss in dem Moment, in dem das Event feuert. /// @param unused Wird von dieser Funktion nicht benötigt. //....................................................................... static void HLCALLBACK OnButtonUp(HLenum event, HLuint shapeID, HLenum thread, HLcache *cache, void *unused); //....................................................................... /// @brief (HLAPI-Callbackfunktion) Steuert das Draggen des Objekts. /// @param event Gibt an, auf welches HLAPI-Event hin die Callback- /// Funktion aufgerufen werden soll, hier HL_EVENT_MOTION. /// @param shapeID Hier soll HL_OBJECT_ANY angegeben werden. /// @param thread Gibt an, in welchem HLAPI-Thread das Event behandelt /// werden soll, in diesem Fall HL_CLIENT_THREAD. /// @param cache HLAPI-State Schnappschuss in dem Moment, in dem das Event feuert. /// @param pHandlerObject Pointer auf das DragObjectHandler-Objekt, das /// das Event verarbeiten soll. //....................................................................... static void HLCALLBACK OnDrag(HLenum event, HLuint shapeID, HLenum thread, HLcache *cache, void *pHandlerObject); public: //....................................................................... /// @brief Konstruktor, initialisiert das Eventhandler-Objekt mit dem /// zugehörigen haptischen Objekt. /// @param pObj Pointer auf das haptische Objekt für das der Eventhandler /// zuständig sein soll. Wird NICHT vom EventHandler freigegeben! //....................................................................... DragObjectHandler(HapticObject * pObj); //....................................................................... /// @brief Nimmt die Proxy-Position beim Starten des Drag-Vorgangs auf. /// @param pCache HLAPI-State Schnappschuss in dem Moment, in dem das Event feuert. //....................................................................... void initAction(HLcache * pCache); //....................................................................... /// @brief Veranlasst das haptische Objekt, sich mit dem Proxy zu bewegen. /// @param pCache HLAPI-State Schnappschuss in dem Moment, in dem das Event feuert. //....................................................................... void handleDrag(HLcache * pCache); //======================================================================= // Von IHapticAction geerbte Methoden //======================================================================= //....................................................................... /// @brief Registriert die Aktion für eine Shape bei HLAPI. /// @param shapeID ID der Shape, für die die Aktion registriert werden soll. //....................................................................... virtual void registerAction( HLuint shapeID ); //....................................................................... /// @brief Meldet die Aktion für eine Shape bei HLAPI ab. /// @param shapeID ID der Shape, für die die Aktion registriert wurde. //....................................................................... virtual void unregisterAction( HLuint shapeID ); //======================================================================= }; #endif // _DRAGOBJECTHANDLER_H_

6adfa1dd0b6b1baa1d7d33ec4d0b458d8a7e6a7b

5504cdea188dd5ceec6ab38863ef4b4f72c70b21

/pcsxrr/plugins/cdrTAScdrom/plg_defs.cpp

fa82768d4413746187978aa5436f58edab10077d

no_license

mauzus/pcsxrr

959051bed227f96045a9bba8971ba5dffc24ad33

1b4c66d6a2938da55761280617d288f3c65870d7

refs/heads/master

UTF-8

C++

cpp

// Plugin Defs #include "Locals.h" // Dialog includes: #include <windowsx.h> #include <commctrl.h> #include "resource.h" typedef struct { DWORD cbSize; DWORD dwMajorVersion; // Major version DWORD dwMinorVersion; // Minor version DWORD dwBuildNumber; // Build number DWORD dwPlatformID; // DLLVER_PLATFORM_* } DLLVERSIONINFO_COMCTL32; #define MAX_TOOLTIP_TEXT_LEN 1024 // max tooltip multi-line text len static void dummy_ReadCfg(CFG_DATA *cfg) { cfg_InitDefaultValue(cfg); } static void dummy_WriteCfg(const CFG_DATA *cfg) { } // Plugin specific functions: void (*fn_ReadCfg)(CFG_DATA *cfg) = dummy_ReadCfg; void (*fn_WriteCfg)(const CFG_DATA *cfg) = dummy_WriteCfg; // Misc data: static HWND hwndTT = NULL; // tooltip control window static HWND hwndSliderTT = NULL; // tooltip control for slider static char *tt_text_long = NULL; // tooltip buffer for multi-line text static int comctl32_version = 400; // comctl32.dll version (see comctl32_GetVersion()) // Plugin Config / About dialog callbacks: BOOL CALLBACK ConfigDialogProc(HWND hwnd, UINT msg, WPARAM wPar, LPARAM lPar); BOOL CALLBACK AboutDialogProc(HWND hwnd, UINT msg, WPARAM wPar, LPARAM lPar); // Default configuration data: static const CFG_DATA default_cfg_data = { { 0xFF, 0xFF, 0xFF, '\0', }, // drive_id.haid/target/lun/drive_letter = Auto InterfaceType_Auto, // interface_type = Auto ReadMode_Auto, // read_mode = Auto 0, // cdrom_speed = Default 0, // cdrom_spindown = Default CacheLevel_ReadAsync, // cache_level = Enabled w/ multi-sector read & prefetch 75, // cache_asynctrig = Async read triggered at 75% of cache buffer TRUE, // track_fsys = Enable ISO9660 tracking SubQMode_Auto, // subq_mode = Auto FALSE, // use_subfile = Use Subchannel file if present }; // Tooltips for 'Config' dialog: static struct { int ctrl_id; char *text_short; // single-line text (for comctl32 versions < 4.70, w/o multi-line support) char *text_long; // multi-line text (for comctl32 versions >= 4.70): if NULL, use single-line test } configdialog_tooltips[] = { { IDC_COMBO_DRIVE, "Select the CD-ROM drive you want to use", " Autodetect = Choose the first CD-ROM with a PSX disk inside (recommended)\n" }, { IDC_COMBO_INTERFACE, "Select the method to be used for access the CD-ROM drive", "Supported modes for Win95/98/Me:\n" " Autodetect = Choose the best mode automatically (recommended)\n" " ASPI = Uses the SCSI ASPI driver, if it's installed\n" " MSCDEX = Uses the native MSCDEX driver (not recommended)\n" "Supported modes for WinNT/2K/XP:\n" " Autodetect = Choose the best mode automatically (recommended)\n" " IOCTL/SCSI = Uses the native SCSI IOCTL interface\n" " ASPI = Uses the SCSI ASPI driver, if it's installed\n" " IOCTL/RAW = Uses the native RAW IOCTL interface (not recommended)" }, { IDC_COMBO_READMODE, "Select the command to be used for RAW sectors reading from the CD-ROM drive", "Supported modes for ASPI and IOCTL/SCSI:\n" " Autodetect = Choose the best mode automatically (recommended)\n" " SCSI_BE = Supported by the most common and newer CD-ROM/DVD drives (best mode)\n" " SCSI_28 = Supported by some older CD-ROM drives or with SCSI interface\n" " SCSI/D8 = Non-standard mode, only for some PLEXTOR/TEAC models (not recommended)\n" " SCSI/D4 = Non-standard mode, only for some NEC/SONY models (not recommended)\n" "For MSCDEX and IOCTL/RAW, the only supported mode is RAW" }, { IDC_COMBO_CDSPEED, "Limit the CD-ROM drive speed (if supported from drive)", "Available options:\n" " Default = don't change drive speed (recommended)\n" " 2X...16X = set 2X...16X speed\n" " MAX = use MAX drive speed", }, { IDC_COMBO_CDSPINDOWN, "Change the CD-ROM spindown time (if supported from drive)", "Available options:\n" " Default = don't change spindown time (recommended)\n" " 30sec...16min = Stop CD after 30sec...16min of inactivity", }, { IDC_COMBO_CACHELEVEL, "Select if the readed data can be cached / prefetched", "Available options:\n" " 0 - Disabled (no caching) = Always access CD-ROM drive for reading (slowest)\n" " 1 - Enabled, read one sector at time = Read/cache one sector at time (slow)\n" " 2 - Enabled, prefetch multiple sectors = Read/cache multiple sectors a time (fast)\n" " 3 - Enabled, prefetch with async reads = Add 'intelligent' asynchronous reads (fastest, recommended)", }, { IDC_SLIDER_ASYNCTRIG, "Select the delay before starting async reads (% of last cache block readed)", "It's recommended to leave the default value (75%), or at least to keep the slider inside the 'green' zone\n" "Note: This option needs to be changed ONLY if there are noticeable delays during Movies && Sounds playback", }, { IDC_CHECK_TRACKISOFS, "Track the CD-ROM files location/size (better read prediction, recommended)", "When enabled, remember the exact files properties, improving read performance", }, { IDC_COMBO_SUBREADMODE, "Select the command to be used for Subchannel reading from the CD-ROM drive", "Supported modes for ASPI and IOCTL/SCSI:\n" " Autodetect = Choose the best mode automatically (recommended)\n" " SCSI_nn+16 = Same as 'Sector Read' modes, reads 16 bytes for Q Subchannel data\n" " SCSI_nn+96 = Same as 'Sector Read' modes, reads 96 bytes for P-W Subchannel data\n" " SCSI_42/RAW = Non-standard mode, supported but completely unreliable (not recommended)\n" " Disabled = Don't read any subchannel data from the CD-ROM drive\n" "Note: Subchannel reading is NOT supported from some CD-ROM drives !!!", }, { IDC_CHECK_USESUBFILE, "Use Subchannel SBI / M3S file if present", "When enabled, read subchannel data from SBI / M3S file instead from CD-ROM drive\n" "The SBI / M3S files require a specific name convention described as follow:\n" " NNNN_NNN.NN.SBI / NNNN_NNN.NN.M3S (as example: SLES_123.45.SBI)\n" "where NNNN_NN.NN is the exact name of the file SLES*, SCES* or SLUS* on the CD\n" "Note: This option is needed ONLY if CD-ROM does not support Subchannel reading", }, { IDOK, "Save the current configuration", NULL, }, { IDCANCEL, "Exit without saving the configuration", NULL, }, }; //------------------------------------------------------------------------------ // Support functions: //------------------------------------------------------------------------------ const char *if_type_name(eInterfaceType if_type) { switch (if_type) { case InterfaceType_Auto: return "Autodetect..."; case InterfaceType_Aspi: return "ASPI"; case InterfaceType_NtSpti: return "IOCTL/SCSI"; case InterfaceType_NtRaw: return "IOCTL/RAW"; case InterfaceType_Mscdex: return "MSCDEX"; default: return "???"; } } const char *rd_mode_name(eReadMode rmode) { switch (rmode) { case ReadMode_Auto: return "Autodetect..."; case ReadMode_Raw: return "RAW"; case ReadMode_Scsi_28: return "SCSI_28 (READ_10)"; case ReadMode_Scsi_BE: return "SCSI_BE (READ_CD)"; case ReadMode_Scsi_D4: return "SCSI_D4 (CUSTOM)"; case ReadMode_Scsi_D8: return "SCSI_D8 (CUSTOM)"; default: return "???"; } } const char *cd_speed_name(int speed) { switch (speed) { case 0: return "Default"; case 2: return "2 X"; case 4: return "4 X"; case 6: return "6 X"; case 8: return "8 X"; case 12: return "12 X"; case 16: return "16 X"; case 0xFFFF: return "MAX"; default: return "???"; } } const char *cd_spindown_name(int timer) { switch (timer) { case INACTIVITY_TIMER_VENDOR_SPECIFIC: return "Default"; // 0 = Default case INACTIVITY_TIMER_125MS:return "125 msec"; case INACTIVITY_TIMER_250MS:return "250 msec"; case INACTIVITY_TIMER_500MS:return "500 msec"; case INACTIVITY_TIMER_1S: return "1 sec"; case INACTIVITY_TIMER_2S: return "2 sec"; case INACTIVITY_TIMER_4S: return "4 sec"; case INACTIVITY_TIMER_8S: return "8 sec"; case INACTIVITY_TIMER_16S: return "16 sec"; case INACTIVITY_TIMER_32S: return "32 sec"; case INACTIVITY_TIMER_1MIN: return "1 min"; case INACTIVITY_TIMER_2MIN: return "2 min"; case INACTIVITY_TIMER_4MIN: return "4 min"; case INACTIVITY_TIMER_8MIN: return "8 min"; case INACTIVITY_TIMER_16MIN:return "16 min"; case INACTIVITY_TIMER_32MIN:return "32 min"; default: return "???"; } } const char *subq_mode_name(eSubQMode subQmode) { switch (subQmode) { case SubQMode_Auto: return "Autodetect..."; case MAKE_SUBQMODE(ReadMode_Scsi_28, SubQMode_Read_Q): return "SCSI_28+16"; case MAKE_SUBQMODE(ReadMode_Scsi_28, SubQMode_Read_PW): return "SCSI_28+96"; case MAKE_SUBQMODE(ReadMode_Scsi_BE, SubQMode_Read_Q): return "SCSI_BE+16"; case MAKE_SUBQMODE(ReadMode_Scsi_BE, SubQMode_Read_PW): return "SCSI_BE+96"; case MAKE_SUBQMODE(ReadMode_Scsi_D8, SubQMode_Read_Q): return "SCSI_D8+16"; case MAKE_SUBQMODE(ReadMode_Scsi_D8, SubQMode_Read_PW): return "SCSI_D8+96"; case MAKE_SUBQMODE(ReadMode_Raw, SubQMode_SubQ): return "SCSI_42/RAW"; case SubQMode_Disabled: return "Disabled"; default: return "???"; } } const char *cache_level_name(eCacheLevel cache_level) { switch (cache_level) { case CacheLevel_Disabled: return "0 - Disabled (no caching)"; case CacheLevel_ReadOne: return "1 - Enabled, read one sector at time"; case CacheLevel_ReadMulti: return "2 - Enabled, prefetch multiple sectors"; case CacheLevel_ReadAsync: return "3 - Enabled, prefetch with async reads (recommended)"; default: return "???"; } } const char *about_line_text(int nline) { switch (nline) { case 0: return "A 'smart' CD-ROM plugin for use with any"; case 1: return "FPSE or PSEmu compatible PSX emulator"; case 2: return "FREE for any non-commercial use"; case 3: return "(C) 2002-2009 by SaPu"; default: return NULL; // end of 'About' text !!! } } //------------------------------------------------------------------------------ // Generic plugin functions: //------------------------------------------------------------------------------ void cfg_InitDefaultValue(CFG_DATA *cfg) { memcpy(cfg, &default_cfg_data, sizeof(*cfg)); } void cfg_SetReadWriteCfgFn(void (*readCfgFn)(CFG_DATA *), void (*writeCfgFn)(const CFG_DATA *)) { fn_ReadCfg = readCfgFn; fn_WriteCfg = writeCfgFn; } static void comctl32_GetVersion(void) { HINSTANCE hDll; HRESULT (CALLBACK* pDllGetVersion)(DLLVERSIONINFO_COMCTL32 *); DLLVERSIONINFO_COMCTL32 dvi; if ((hDll = LoadLibrary("comctl32.dll")) != NULL) { memset(&dvi, 0, sizeof(dvi)); dvi.cbSize = sizeof(dvi); if ((pDllGetVersion = (HRESULT (CALLBACK *)(DLLVERSIONINFO_COMCTL32 *))GetProcAddress(hDll, "DllGetVersion")) != NULL && (*pDllGetVersion)(&dvi) >= 0) comctl32_version = dvi.dwMajorVersion * 100 + dvi.dwMinorVersion; FreeLibrary(hDll); } } //------------------------------------------------------------------------------ // Plugin configuration dialog: //------------------------------------------------------------------------------ void config_Dialog(HWND hwnd) { InitCommonControls(); // ensure that the common control DLL is loaded DialogBox(hInstance, MAKEINTRESOURCE(IDD_DIALOG_CONFIG), hwnd, (DLGPROC)ConfigDialogProc); } static void ConfigDialog_SetDriveId(HWND hwnd, const SCSIADDR *cur_drive_id) { HWND hdlg; int idx, cur; char buf[256]; hdlg = GetDlgItem(hwnd, IDC_COMBO_DRIVE); ComboBox_ResetContent(hdlg); ComboBox_AddString(hdlg, "Autodetect..."); for (idx = 0, cur = 0; idx < num_found_drives; idx++) { SCSIADDR addr = found_drives[idx]; char *p = buf; if (addr.drive_letter) p += sprintf(p, "%c:", addr.drive_letter); if (addr.haid != 0xFF && addr.target != 0xFF && addr.lun != 0xFF) p += sprintf(p, " [%d:%d:%d]", addr.haid, addr.target, addr.lun); if (*drive_info[idx].VendorId) { p += sprintf(p, " %.8s", drive_info[idx].VendorId); while (*(p - 1) == ' ') p--; } if (*drive_info[idx].ProductId) { p += sprintf(p, " %.16s", drive_info[idx].ProductId); while (*(p - 1) == ' ') p--; } /*if (*drive_info[idx].VendorSpecific) { p += sprintf(p, " V%.20s", drive_info[idx].VendorSpecific); while (*(p - 1) == ' ') p--; }*/ *p = '\0'; ComboBox_AddString(hdlg, buf); if (SCSIADDR_EQ(*cur_drive_id, found_drives[idx])) cur = idx + 1; // idx(0) == Autodetect... } ComboBox_SetCurSel(hdlg, cur); } static void ConfigDialog_GetDriveId(HWND hwnd, SCSIADDR *addr) { int idx = ComboBox_GetCurSel(GetDlgItem(hwnd, IDC_COMBO_DRIVE)); *addr = (idx > 0 && idx <= num_found_drives) ? // idx(0) == Autodetect... found_drives[idx - 1] : default_cfg_data.drive_id; } static void ConfigDialog_SetIfType(HWND hwnd, eInterfaceType cur_if_type) { HWND hdlg; int idx, cur, num_if_types; const eInterfaceType *if_types; hdlg = GetDlgItem(hwnd, IDC_COMBO_INTERFACE); ComboBox_ResetContent(hdlg); ComboBox_AddString(hdlg, "Autodetect..."); num_if_types = get_if_types_auto(&if_types, FALSE); for (idx = 0, cur = 0; idx < num_if_types; idx++) { ComboBox_AddString(hdlg, if_type_name(if_types[idx])); if (cur_if_type == if_types[idx]) cur = idx + 1; // idx(0) == Autodetect... } ComboBox_SetCurSel(hdlg, cur); } static void ConfigDialog_GetIfType(HWND hwnd, eInterfaceType *if_type) { const eInterfaceType *if_types; int num_if_types = get_if_types_auto(&if_types, FALSE); int idx = ComboBox_GetCurSel(GetDlgItem(hwnd, IDC_COMBO_INTERFACE)); *if_type = (idx > 0 && idx <= num_if_types) ? // idx(0) == Autodetect... if_types[idx - 1] : default_cfg_data.interface_type; } static eInterfaceType last_if_type_for_RdMode_combo = InterfaceType_Auto; static void ConfigDialog_SetRdMode(HWND hwnd, eReadMode cur_rd_mode) { HWND hdlg; int idx, cur, num_rd_modes; const eReadMode *rd_modes; hdlg = GetDlgItem(hwnd, IDC_COMBO_READMODE); ComboBox_ResetContent(hdlg); // read 'if_type' & save the value for the *_GetReadMode() call ConfigDialog_GetIfType(hwnd, &last_if_type_for_RdMode_combo); num_rd_modes = get_rd_modes_auto(&rd_modes, last_if_type_for_RdMode_combo); for (idx = 0, cur = 0; idx < num_rd_modes; idx++) { ComboBox_AddString(hdlg, rd_mode_name(rd_modes[idx])); if (cur_rd_mode == rd_modes[idx]) cur = idx; } ComboBox_Enable(hdlg, (num_rd_modes <= 1) ? FALSE : TRUE); ComboBox_SetCurSel(hdlg, cur); } static void ConfigDialog_GetRdMode(HWND hwnd, eReadMode *rd_mode) { int idx, num_rd_modes; const eReadMode *rd_modes; // Note: The 'rd_mode' value is 'if_type' dependent, so we can need ... // ... to use the value saved from the previous *_SetRdMode() call !!! num_rd_modes = get_rd_modes_auto(&rd_modes, last_if_type_for_RdMode_combo); // Note: if no choices availables (RAW only), don't need to write the ... // ... rd_mode value (don't override the last working SCSI read mode). if (num_rd_modes <= 1) return; idx = ComboBox_GetCurSel(GetDlgItem(hwnd, IDC_COMBO_READMODE)); *rd_mode = (idx >= 0 && idx < num_rd_modes) ? rd_modes[idx] : default_cfg_data.read_mode; } static void ConfigDialog_UpdateRdMode(HWND hwnd, eReadMode *rd_mode) { ConfigDialog_GetRdMode(hwnd, rd_mode); ConfigDialog_SetRdMode(hwnd, *rd_mode); } static eInterfaceType last_if_type_for_CdSpeed_combo = InterfaceType_Auto; static void ConfigDialog_SetCdSpeed(HWND hwnd, int cur_cd_speed) { HWND hdlg; int idx, cur, num_cd_speeds; const int *cd_speeds; hdlg = GetDlgItem(hwnd, IDC_COMBO_CDSPEED); ComboBox_ResetContent(hdlg); // read 'if_type' & save the value for the *_GetCdSpeed() call ConfigDialog_GetIfType(hwnd, &last_if_type_for_CdSpeed_combo); num_cd_speeds = get_cd_speeds_auto(&cd_speeds, last_if_type_for_CdSpeed_combo); for (idx = 0, cur = 0; idx < num_cd_speeds; idx++) { ComboBox_AddString(hdlg, cd_speed_name(cd_speeds[idx])); if (cur_cd_speed == cd_speeds[idx]) cur = idx; } ComboBox_Enable(hdlg, (num_cd_speeds <= 1) ? FALSE : TRUE); ComboBox_SetCurSel(hdlg, cur); } static void ConfigDialog_GetCdSpeed(HWND hwnd, int *cd_speed) { int idx, num_cd_speeds; const int *cd_speeds; // Note: The 'cd_speed' value is 'if_type' dependent, so we can need ... // ... to use the value saved from the previous *_SetCdSpeed() call !!! num_cd_speeds = get_cd_speeds_auto(&cd_speeds, last_if_type_for_CdSpeed_combo); // Note: if no choices availables (RAW only), don't need to write the ... // ... cd_speed value (don't override the last working SCSI cdrom speed). if (num_cd_speeds <= 1) return; idx = ComboBox_GetCurSel(GetDlgItem(hwnd, IDC_COMBO_CDSPEED)); *cd_speed = (idx >= 0 && idx < num_cd_speeds) ? cd_speeds[idx] : default_cfg_data.cdrom_speed; } static void ConfigDialog_UpdateCdSpeed(HWND hwnd, int *cd_speed) { ConfigDialog_GetCdSpeed(hwnd, cd_speed); ConfigDialog_SetCdSpeed(hwnd, *cd_speed); } static eInterfaceType last_if_type_for_CdSpindown_combo = InterfaceType_Auto; static void ConfigDialog_SetCdSpindown(HWND hwnd, int cur_cd_spindown) { HWND hdlg; int idx, cur, num_cd_spindowns; const int *cd_spindowns; hdlg = GetDlgItem(hwnd, IDC_COMBO_CDSPINDOWN); ComboBox_ResetContent(hdlg); // read 'if_type' & save the value for the *_GetCdSpindown() call ConfigDialog_GetIfType(hwnd, &last_if_type_for_CdSpindown_combo); num_cd_spindowns = get_cd_spindowns_auto(&cd_spindowns, last_if_type_for_CdSpindown_combo); for (idx = 0, cur = 0; idx < num_cd_spindowns; idx++) { ComboBox_AddString(hdlg, cd_spindown_name(cd_spindowns[idx])); if (cur_cd_spindown == cd_spindowns[idx]) cur = idx; } ComboBox_Enable(hdlg, (num_cd_spindowns <= 1) ? FALSE : TRUE); ComboBox_SetCurSel(hdlg, cur); } static void ConfigDialog_GetCdSpindown(HWND hwnd, int *cd_spindown) { int idx, num_cd_spindowns; const int *cd_spindowns; // Note: The 'cd_spindown' value is 'if_type' dependent, so we can need ... // ... to use the value saved from the previous *_SetCdSpindown() call !!! num_cd_spindowns = get_cd_spindowns_auto(&cd_spindowns, last_if_type_for_CdSpindown_combo); // Note: if no choices availables (RAW only), don't need to write the ... // ... cd_spindown value (don't override the last working SCSI cdrom spindown). if (num_cd_spindowns <= 1) return; idx = ComboBox_GetCurSel(GetDlgItem(hwnd, IDC_COMBO_CDSPINDOWN)); *cd_spindown = (idx >= 0 && idx < num_cd_spindowns) ? cd_spindowns[idx] : default_cfg_data.cdrom_spindown; } static void ConfigDialog_UpdateCdSpindown(HWND hwnd, int *cd_spindown) { ConfigDialog_GetCdSpindown(hwnd, cd_spindown); ConfigDialog_SetCdSpindown(hwnd, *cd_spindown); } static void ConfigDialog_SetCacheLevel(HWND hwnd, eCacheLevel cur_cache_level) { HWND hdlg; int idx, cur; hdlg = GetDlgItem(hwnd, IDC_COMBO_CACHELEVEL); ComboBox_ResetContent(hdlg); for (idx = (int)CacheLevel_Disabled, cur = (int)default_cfg_data.cache_level; idx <= (int)CacheLevel_ReadAsync; idx++) { ComboBox_AddString(hdlg, cache_level_name((eCacheLevel)idx)); if ((int)cur_cache_level == idx) cur = idx; } ComboBox_SetCurSel(hdlg, cur); } static void ConfigDialog_GetCacheLevel(HWND hwnd, eCacheLevel *cache_level) { int idx = ComboBox_GetCurSel(GetDlgItem(hwnd, IDC_COMBO_CACHELEVEL)); *cache_level = (idx >= (int)CacheLevel_Disabled && idx <= (int)CacheLevel_ReadAsync) ? (eCacheLevel)idx : default_cfg_data.cache_level; } static void ConfigDialog_SetAsyncTrig(HWND hwnd, int cur_cache_asynctrig) { HWND hdlg; eCacheLevel tmp_cache_level; hdlg = GetDlgItem(hwnd, IDC_SLIDER_ASYNCTRIG); SendMessage(hdlg, TBM_SETRANGE, 0, MAKELONG(25, 75)); SendMessage(hdlg, TBM_SETTICFREQ, (75-25)/3, 0); SendMessage(hdlg, TBM_SETPOS, TRUE, (LPARAM)cur_cache_asynctrig); if (comctl32_version >= 470) { SendMessage(hdlg, TBM_SETTIPSIDE, TBTS_BOTTOM, 0); hwndSliderTT = (HWND)SendMessage(hdlg, TBM_GETTOOLTIPS, 0, 0); } ConfigDialog_GetCacheLevel(hwnd, &tmp_cache_level); EnableWindow(hdlg, (tmp_cache_level < CacheLevel_ReadAsync) ? FALSE : TRUE); } static void ConfigDialog_GetAsyncTrig(HWND hwnd, int *cache_asynctrig) { *cache_asynctrig = SendMessage(GetDlgItem(hwnd, IDC_SLIDER_ASYNCTRIG), TBM_GETPOS, 0, 0); } static void ConfigDialog_UpdateAsyncTrig(HWND hwnd, int *cache_asynctrig) { ConfigDialog_GetAsyncTrig(hwnd, cache_asynctrig); ConfigDialog_SetAsyncTrig(hwnd, *cache_asynctrig); } static void ConfigDialog_SetTrackIsoFs(HWND hwnd, BOOL cur_track_fsys) { HWND hdlg; eCacheLevel tmp_cache_level; hdlg = GetDlgItem(hwnd, IDC_CHECK_TRACKISOFS); Button_SetCheck(hdlg, (cur_track_fsys) ? BST_CHECKED : BST_UNCHECKED); ConfigDialog_GetCacheLevel(hwnd, &tmp_cache_level); Button_Enable(hdlg, (tmp_cache_level < CacheLevel_ReadMulti) ? FALSE : TRUE); } static void ConfigDialog_GetTrackIsoFs(HWND hwnd, BOOL *track_fsys) { *track_fsys = (Button_GetCheck(GetDlgItem(hwnd, IDC_CHECK_TRACKISOFS)) == BST_CHECKED) ? TRUE : FALSE; } static void ConfigDialog_UpdateTrackIsoFs(HWND hwnd, BOOL *track_fsys) { ConfigDialog_GetTrackIsoFs(hwnd, track_fsys); ConfigDialog_SetTrackIsoFs(hwnd, *track_fsys); } static eInterfaceType last_if_type_for_SubQMode_combo = InterfaceType_Auto; static void ConfigDialog_SetSubQMode(HWND hwnd, eSubQMode cur_subq_mode) { HWND hdlg; int idx, cur, num_subq_modes; const eSubQMode *subq_modes; hdlg = GetDlgItem(hwnd, IDC_COMBO_SUBREADMODE); ComboBox_ResetContent(hdlg); // read 'if_type' & save the value for the *_GetSubQMode() call ConfigDialog_GetIfType(hwnd, &last_if_type_for_SubQMode_combo); num_subq_modes = get_subq_modes_auto(&subq_modes, last_if_type_for_SubQMode_combo); for (idx = 0, cur = 0; idx < num_subq_modes; idx++) { ComboBox_AddString(hdlg, subq_mode_name(subq_modes[idx])); if (cur_subq_mode == subq_modes[idx]) cur = idx; } ComboBox_Enable(hdlg, (num_subq_modes <= 1) ? FALSE : TRUE); ComboBox_SetCurSel(hdlg, cur); } static void ConfigDialog_GetSubQMode(HWND hwnd, eSubQMode *subq_mode) { int idx, num_subq_modes; const eSubQMode *subq_modes; // Note: The 'subq_mode' value is 'if_type' dependent, so we can need ... // ... to use the value saved from the previous *_SetSubQMode() call !!! num_subq_modes = get_subq_modes_auto(&subq_modes, last_if_type_for_SubQMode_combo); // Note: if no choices availables (RAW only), don't need to write the ... // ... subq_mode value (don't override the last working SCSI subchannel mode). if (num_subq_modes <= 1) return; idx = ComboBox_GetCurSel(GetDlgItem(hwnd, IDC_COMBO_SUBREADMODE)); *subq_mode = (idx >= 0 && idx < num_subq_modes) ? subq_modes[idx] : default_cfg_data.subq_mode; } static void ConfigDialog_UpdateSubQMode(HWND hwnd, eSubQMode *subq_mode) { ConfigDialog_GetSubQMode(hwnd, subq_mode); ConfigDialog_SetSubQMode(hwnd, *subq_mode); } static void ConfigDialog_SetUseSubFile(HWND hwnd, BOOL cur_use_subfile) { Button_SetCheck(GetDlgItem(hwnd, IDC_CHECK_USESUBFILE), (cur_use_subfile) ? BST_CHECKED : BST_UNCHECKED); } static void ConfigDialog_GetUseSubFile(HWND hwnd, BOOL *use_subfile) { *use_subfile = (Button_GetCheck(GetDlgItem(hwnd, IDC_CHECK_USESUBFILE)) == BST_CHECKED) ? TRUE : FALSE; } static void ConfigDialog_InstallToolTips(HWND hwnd) { TOOLINFO ti; int idx; if ((hwndTT = CreateWindowEx(0, TOOLTIPS_CLASS, (LPSTR) NULL, TTS_ALWAYSTIP, CW_USEDEFAULT, CW_USEDEFAULT, CW_USEDEFAULT, CW_USEDEFAULT, hwnd, (HMENU) NULL, hInstance, NULL)) == NULL) return; tt_text_long = (char *)HeapAlloc(hProcessHeap, 0, MAX_TOOLTIP_TEXT_LEN + 1); SetWindowPos(hwndTT, HWND_TOPMOST, 0, 0, 0, 0, SWP_NOACTIVATE | SWP_NOMOVE | SWP_NOREDRAW | SWP_NOSIZE); for (idx = 0; idx < (sizeof(configdialog_tooltips) / sizeof(configdialog_tooltips[0])); idx++) { ZeroMemory(&ti, sizeof(TOOLINFO)); ti.cbSize = sizeof(TOOLINFO); ti.uFlags = TTF_IDISHWND | TTF_SUBCLASS | TTF_TRANSPARENT; ti.hwnd = hwnd; ti.uId = (UINT)GetDlgItem(hwnd, configdialog_tooltips[idx].ctrl_id); ti.lpszText = LPSTR_TEXTCALLBACK; SendMessage(hwndTT, TTM_ADDTOOL, 0, (LPARAM) (LPTOOLINFO) &ti); } SendMessage(hwndTT, TTM_SETDELAYTIME, TTDT_AUTOPOP, MAKELONG(30*1000,0)); SendMessage(hwndTT, TTM_ACTIVATE, TRUE, 0); } static void ConfigDialog_ToolTipsSetTextCallback(LPNMHDR lPar) { LPTOOLTIPTEXT lpttt; int idCtrl, idx; lpttt = (LPTOOLTIPTEXT)lPar; idCtrl = GetDlgCtrlID((HWND)lPar->idFrom); if (lPar->hwndFrom == hwndTT) { for (idx = 0; idx < (sizeof(configdialog_tooltips) / sizeof(configdialog_tooltips[0])); idx++) { if (idCtrl != configdialog_tooltips[idx].ctrl_id) continue; if (comctl32_version >= 470 && configdialog_tooltips[idx].text_long != NULL) { int len = sprintf(tt_text_long, "%s\n%s", configdialog_tooltips[idx].text_short, configdialog_tooltips[idx].text_long); #ifdef DEBUG if (len >= MAX_TOOLTIP_TEXT_LEN) __asm int 3 #endif//DEBUG SendMessage(lPar->hwndFrom, TTM_SETMAXTIPWIDTH, 0, MAX_TOOLTIP_TEXT_LEN); lpttt->lpszText = tt_text_long; } else lpttt->lpszText = configdialog_tooltips[idx].text_short; break; } } else if (lPar->hwndFrom == hwndSliderTT) { if (idCtrl == IDC_SLIDER_ASYNCTRIG) sprintf(lpttt->szText , "%d%%", (int)SendMessage((HWND)lPar->idFrom, TBM_GETPOS, 0, 0)); } } static void ConfigDialog_RemoveToolTips(void) { if (hwndTT != NULL) { SendMessage(hwndTT, TTM_ACTIVATE, FALSE, 0); DestroyWindow(hwndTT); HeapFree(hProcessHeap, 0, tt_text_long); tt_text_long = NULL; } hwndTT = NULL; } BOOL CALLBACK ConfigDialogProc(HWND hwnd, UINT msg, WPARAM wPar, LPARAM lPar) { static CFG_DATA config_data; static HWND hwndTT = NULL; switch (msg) { case WM_INITDIALOG: comctl32_GetVersion(); // read the common control DLL version fn_ReadCfg(&config_data); if (!num_found_drives && scan_AvailDrives()) setup_IfType(InterfaceType_Auto); // always reset I/F type to Auto !!! ConfigDialog_SetDriveId(hwnd, &config_data.drive_id); ConfigDialog_SetIfType(hwnd, config_data.interface_type); ConfigDialog_SetRdMode(hwnd, config_data.read_mode); ConfigDialog_SetCdSpeed(hwnd, config_data.cdrom_speed); ConfigDialog_SetCdSpindown(hwnd, config_data.cdrom_spindown); ConfigDialog_SetCacheLevel(hwnd, config_data.cache_level); ConfigDialog_SetAsyncTrig(hwnd, config_data.cache_asynctrig); ConfigDialog_SetTrackIsoFs(hwnd, config_data.track_fsys); ConfigDialog_SetSubQMode(hwnd, config_data.subq_mode); ConfigDialog_SetUseSubFile(hwnd, config_data.use_subfile); ConfigDialog_InstallToolTips(hwnd); return TRUE; case WM_DESTROY: EndDialog(hwnd,0); return TRUE; case WM_NOTIFY: if (((LPNMHDR)lPar)->code == TTN_NEEDTEXT) ConfigDialog_ToolTipsSetTextCallback((LPNMHDR)lPar); break; //return FALSE; case WM_COMMAND: switch (LOWORD(wPar)) { case IDC_COMBO_INTERFACE: // track the 'if_type' combo changes to replace the previous ... // ... avail read modes with the only 'if_type allowed' ones if (HIWORD(wPar) == CBN_SELCHANGE) { ConfigDialog_UpdateRdMode(hwnd, &config_data.read_mode); ConfigDialog_UpdateCdSpeed(hwnd, &config_data.cdrom_speed); ConfigDialog_UpdateCdSpindown(hwnd, &config_data.cdrom_spindown); ConfigDialog_UpdateSubQMode(hwnd, &config_data.subq_mode); } break; case IDC_COMBO_CACHELEVEL: if (HIWORD(wPar) == CBN_SELCHANGE) { ConfigDialog_UpdateTrackIsoFs(hwnd, &config_data.track_fsys); ConfigDialog_UpdateAsyncTrig(hwnd, &config_data.cache_asynctrig); } break; // case IDC_BUTTON_TESTMODE: // { int __todo__testmode_button_; } // return TRUE; case IDOK: ConfigDialog_GetDriveId(hwnd, &config_data.drive_id); ConfigDialog_GetIfType(hwnd, &config_data.interface_type); ConfigDialog_GetRdMode(hwnd, &config_data.read_mode); ConfigDialog_GetCdSpeed(hwnd, &config_data.cdrom_speed); ConfigDialog_GetCdSpindown(hwnd, &config_data.cdrom_spindown); ConfigDialog_GetCacheLevel(hwnd, &config_data.cache_level); ConfigDialog_GetAsyncTrig(hwnd, &config_data.cache_asynctrig); ConfigDialog_GetTrackIsoFs(hwnd, &config_data.track_fsys); ConfigDialog_GetSubQMode(hwnd, &config_data.subq_mode); ConfigDialog_GetTrackIsoFs(hwnd, &config_data.track_fsys); ConfigDialog_GetUseSubFile(hwnd, &config_data.use_subfile); fn_WriteCfg(&config_data); case IDCANCEL: ConfigDialog_RemoveToolTips(); EndDialog(hwnd,0); return TRUE; } break; } return FALSE; } //------------------------------------------------------------------------------ // Plugin about dialog: //------------------------------------------------------------------------------ void about_Dialog(HWND hwnd) { DialogBox(hInstance, MAKEINTRESOURCE(IDD_DIALOG_ABOUT), hwnd, (DLGPROC)AboutDialogProc); } static void AboutDialog_SetStaticText(HWND hwnd) { static int about_static_ctrl_id[] = { IDC_STATIC_ABOUT_0, IDC_STATIC_ABOUT_1, IDC_STATIC_ABOUT_2, IDC_STATIC_ABOUT_3, }; int idx; Static_SetText(GetDlgItem(hwnd, IDC_STATIC_PLGNAME), PLUGIN_NAME); for (idx = 0; idx < (sizeof(about_static_ctrl_id) / sizeof(about_static_ctrl_id[0])); idx++) Static_SetText(GetDlgItem(hwnd, about_static_ctrl_id[idx]), about_line_text(idx)); } BOOL CALLBACK AboutDialogProc(HWND hwnd, UINT msg, WPARAM wPar, LPARAM lPar) { switch (msg) { case WM_INITDIALOG: AboutDialog_SetStaticText(hwnd); return TRUE; case WM_DESTROY: EndDialog(hwnd,0); return TRUE; case WM_COMMAND: switch (wPar) { case IDOK: case IDCANCEL: EndDialog(hwnd,0); return TRUE; } } return FALSE; }

21cb70ceb6bcccb51fbf0b2454d1ab53cf08c8ed

aa96d2feea77cd3279120ca5a09c0407a2fbace6

/src/Renderer.h

bdc8a439b2b15fa66b27e424cbe822531acbeef1

no_license

uri/2404-mega-project

3287daf53e2bc15aebb4a3f88e4014f7b6c60054

3ce747c9486ace6c02c80ff7df98bf85fd5ac578

refs/heads/master

UTF-8

C++

h

/////////////////////////////////////////////////////////////////////////// // --------------------------------------------------------------------- // // // // Developers: David Krutsko, Uri Gorelik // // Filename: Renderer.h // // // // --------------------------------------------------------------------- // /////////////////////////////////////////////////////////////////////////// //-----------------------------------------------------------------------// // Preambles // //-----------------------------------------------------------------------// #ifndef RENDERER_H #define RENDERER_H //-----------------------------------------------------------------------// // Classes // //-----------------------------------------------------------------------// class Player; /////////////////////////////////////////////////////////////////////////// /// <summary> Responsible for outputting everything to the screen. </summary> class Renderer { public: // Renderer static void draw (Player *player, Player *enemy); }; #endif // RENDERER_H

c52011aa060ac2ae36a51a100235f8bcb46438a9

ef37d76d24f90ba2d3aa4f9cf94025b2d4255673

/Code/DataMerge.bak/DataMergeGui.cpp

dd84228ed1b9da220ce07605e9c466318d8e169d

no_license

yuguess/GSoC

799cb55773e5f5ea0925e39d337f35250c937e22

21354978f43ea1ebfdfab79f027cdfe04273d264

refs/heads/master

UTF-8

C++

cpp

#include "DataMergeGui.h" #include <Qt/QtGui> #include <vector> #include "DataAccessor.h" #include "DataAccessorImpl.h" #include "DataRequest.h" #include "DesktopServices.h" #include "MessageLogResource.h" #include "ObjectResource.h" #include "PlugInArgList.h" #include "PlugInManagerServices.h" #include "PlugInRegistration.h" #include "Progress.h" #include "RasterDataDescriptor.h" #include "RasterElement.h" #include "RasterUtilities.h" #include "SpatialDataView.h" #include "SpatialDataWindow.h" #include "switchOnEncoding.h" #include "DataMerge.h" #include "DataMergeGui.h" #include "DataElement.h" #include <limits> #include <iostream> #include <vector> #include <fstream> #include <algorithm> #include "DesktopServices.h" #include "MessageLogResource.h" #include "ModelServices.h" #include "PlugInRegistration.h" #include "Service.h" #include "SessionItemSerializer.h" #include "UtilityServices.h" #include "ApplicationServices.h" #include "Progress.h" #include "Resource.h" #include "DesktopServices.h" #include "UtilityServices.h" #include "StringUtilities.h" #include "RasterFileDescriptor.h" #include "GcpList.h" #include "ImportElement.h" using namespace std; namespace { template <typename T> bool mergeElement(T *pData, int rowCount, int colCount, DataAccessor pSrcAcc, DataAccessor pDesAcc, int band, Progress *pProgress, int size) { //char fileName[100]; //sprintf(fileName, "D:\\data%d.txt", band); //ofstream file(fileName); for (int row = 0; row < rowCount; row++) { for (int col = 0; col < colCount; col++) { pSrcAcc->toPixel(row, col); pDesAcc->toPixel(row, col); T *pSrcData = reinterpret_cast<T*>(pSrcAcc->getColumn()); T *pDesData = reinterpret_cast<T*>(pDesAcc->getColumn()); pDesData[band] = *pSrcData; // file << " " << pDesData[band]; } pProgress->updateProgress("Processing RasterElement" + StringUtilities::toDisplayString(band + 1), ((row+1) * (band + 1) * 100) / (rowCount * size), NORMAL); } //file.close(); return true; } }; DataMergeGui::DataMergeGui(QWidget *parent) : QDialog(parent) { setModal(true); flag = 0; QHBoxLayout *listLayout = new QHBoxLayout(); QGroupBox *importGroup = new QGroupBox(tr("Imported RasterElement")); importList = new QListWidget; importList->setSelectionMode(QAbstractItemView::ContiguousSelection); QVBoxLayout *importLayout = new QVBoxLayout; importLayout->addWidget(importList); importGroup->setLayout(importLayout); QGroupBox *mergeGroup = new QGroupBox(tr("Select Merge RasterElement")); mergeList = new QListWidget; connect(mergeList, SIGNAL(itemSelectionChanged()), this, SLOT(selectionChangedSlot())); //connect(mergeList, SIGNAL(pressed(QModelIndex)), this, SLOT(selectionChangedSlot())); //connect(mergeList, SIGNAL(itemPressed(QListWidgetItem*)), this, SLOT(selectionChangedSlot())); QVBoxLayout *mergeLayout = new QVBoxLayout; mergeLayout->addWidget(mergeList); mergeGroup->setLayout(mergeLayout); listLayout->addWidget(importGroup); listLayout->addWidget(mergeGroup); QHBoxLayout *buttonLayout = new QHBoxLayout(); addButton = new QPushButton(tr("Add")); removeButton = new QPushButton(tr("Remove")); mergeButton = new QPushButton(tr("Merge")); upButton = new QPushButton(tr("Up")); downButton = new QPushButton(tr("Down")); removeButton->setEnabled(false); mergeButton->setEnabled(false); upButton->setEnabled(false); downButton->setEnabled(false); connect(addButton, SIGNAL(clicked()), this, SLOT(addMergeList())); connect(removeButton, SIGNAL(clicked()), this, SLOT(removeMergeList())); connect(mergeButton, SIGNAL(clicked()), this, SLOT(mergeData())); connect(upButton, SIGNAL(clicked()), this, SLOT(upButtonSlot())); connect(downButton, SIGNAL(clicked()), this, SLOT(downButtonSlot())); buttonLayout->addWidget(addButton); buttonLayout->addWidget(removeButton); buttonLayout->addWidget(mergeButton); buttonLayout->addWidget(upButton); buttonLayout->addWidget(downButton); QVBoxLayout *mainLayout = new QVBoxLayout(); mainLayout->addLayout(listLayout); mainLayout->addLayout(buttonLayout); setLayout(mainLayout); } DataMergeGui::~DataMergeGui() { } void DataMergeGui::addMergeList() { //QListWidgetItem *crtItem = importList->currentItem(); QList<QListWidgetItem *> selectedList = importList->selectedItems(); for (int i = 0; i < selectedList.count(); i++) { QListWidgetItem *crtItem = selectedList.at(i); QString crtText = crtItem->text(); if (flag == 0) { RasterElement *pFisrtElement = filenameMap[crtText.toStdString()]; RasterDataDescriptor* pFirstDesc = static_cast<RasterDataDescriptor*>(pFisrtElement->getDataDescriptor()); firstType = pFirstDesc->getDataType(); firstRowCount = pFirstDesc->getRowCount(); firstColCount = pFirstDesc->getColumnCount(); } else { RasterElement *pTempElement = filenameMap[crtText.toStdString()]; RasterDataDescriptor* pTempDesc = static_cast<RasterDataDescriptor*>(pTempElement->getDataDescriptor()); EncodingType tempType = pTempDesc->getDataType(); int tempRowCount = pTempDesc->getRowCount(); int tempColCount = pTempDesc->getColumnCount(); if (firstType != tempType) { QMessageBox::critical(NULL, "Spectral Data Merge", "Merge RasterElement type different!", "OK"); return; } if (firstRowCount != tempRowCount) { QMessageBox::critical(NULL, "Spectral Data Merge", "Merge RasterElement row different!", "OK"); return; } if (firstColCount != tempColCount) { QMessageBox::critical(NULL, "Spectral Data Merge", "Merge RasterElement column different!", "OK"); return; } } QListWidgetItem *item = new QListWidgetItem(mergeList); item->setText(crtText); // mergeElementList.push_back(filenameMap[crtText.toStdString()]); removeButton->setEnabled(true); mergeButton->setEnabled(true); flag = 1; } } void DataMergeGui::removeMergeList() { QListWidgetItem *item = mergeList->currentItem(); if (item == NULL) return; QString itemText = item->text(); /* RasterElement *pRasterElement = filenameMap[itemText.toStdString()]; vector<RasterElement*>::iterator it; it = std::find(mergeElementList.begin(), mergeElementList.end(), pRasterElement); mergeElementList.erase(it);*/ if (item != NULL) item->~QListWidgetItem(); if (mergeList->count() == 0) { removeButton->setEnabled(false); mergeButton->setEnabled(false); flag = 0; } selectionChangedSlot(); } //void DataMergeGui::addImportList(vector<ImportElement>& vec) void DataMergeGui::addImportList(vector<string>& vec) { vector<string>::iterator iter; for (iter = vec.begin(); iter != vec.end(); ++iter) { QListWidgetItem *item = new QListWidgetItem(importList); item->setText(iter->c_str()); } } void DataMergeGui::setFilenameMap(std::map<string, RasterElement*> tmp) { filenameMap = tmp; } void DataMergeGui::setCubes(vector<DataElement*>& para) { cubes = para; } void DataMergeGui::setProgress(Progress *paraProgress) { pProgress = paraProgress; } bool DataMergeGui::upButtonSlot() { int curRow = mergeList->currentRow(); QListWidgetItem *curItem = mergeList->currentItem(); QString curItemText = curItem->text(); QListWidgetItem *preItem = mergeList->item(curRow - 1); QString preItemText = preItem->text(); curItem->setText(preItemText); preItem->setText(curItemText); mergeList->setCurrentRow(curRow - 1); return true; } bool DataMergeGui::downButtonSlot() { int curRow = mergeList->currentRow(); QListWidgetItem *curItem = mergeList->currentItem(); QString curItemText = curItem->text(); QListWidgetItem *nextItem = mergeList->item(curRow + 1); QString nextItemText = nextItem->text(); curItem->setText(nextItemText); nextItem->setText(curItemText); mergeList->setCurrentRow(curRow + 1); return true; } bool DataMergeGui::selectionChangedSlot() { if (mergeList->count() == 0) { upButton->setEnabled(false); downButton->setEnabled(false); return true; } int num = mergeList->count(); int curRow = mergeList->currentRow(); if (curRow == 0 && curRow == (num - 1)) { upButton->setEnabled(false); downButton->setEnabled(false); return true; } if (curRow == 0) { upButton->setEnabled(false); downButton->setEnabled(true); return true; } if (curRow == (num - 1)) { upButton->setEnabled(true); downButton->setEnabled(false); return true; } upButton->setEnabled(true); downButton->setEnabled(true); return true; } bool DataMergeGui::mergeData() { // Service<ModelServices> pModel; StepResource pStep("Data Merge Begin", "app", "5E4BCD48-E662-408b-93AF-F9127CE56C66"); int mergeItemNum = mergeList->count(); if (mergeItemNum == 0) { QMessageBox::critical(NULL, "Spectral Data Merge", "No RasterElement to merge", "OK"); pStep->finalize(Message::Failure, "No RasterElement to merge"); return false; } for (int i = 0; i < mergeItemNum; i++) { QListWidgetItem *tmpItem = mergeList->item(i); QString tmpItemText = tmpItem->text(); mergeElementList.push_back(filenameMap[tmpItemText.toStdString()]); } // pProgress = new Progress(this, "Progress Reporter"); // std::vector<DataElement*> cubes = pModel->getElements("RasterElement"); if (mergeElementList.size() == 0) { QMessageBox::critical(NULL, "Spectral Data Merge", "No RasterElement input found!", "OK"); pStep->finalize(Message::Failure, "No RasterElement input found!"); return false; } vector<RasterElement*>::iterator initIter = mergeElementList.begin(); RasterElement* pInitData = model_cast<RasterElement*>(*initIter); if (pInitData == NULL) { pStep->finalize(Message::Failure, "Cube Data error!"); return false; } RasterDataDescriptor* pDesc = static_cast<RasterDataDescriptor*>(pInitData->getDataDescriptor()); EncodingType type = pDesc->getDataType(); int rowCount = pDesc->getRowCount(); int colCount = pDesc->getColumnCount(); int bandCount = mergeElementList.size(); RasterElement* pDesRaster = RasterUtilities::createRasterElement("DataMergeCube", rowCount, colCount, bandCount, type, BIP, true, NULL); if (pDesRaster == NULL) { QMessageBox::critical(NULL, "Spectral Data Merge", "Create RasterElement failed, Please close the previous merge result!", "OK"); pStep->finalize(Message::Failure, "No RasterElement input found!"); return false; } FactoryResource<DataRequest> pRequest; pRequest->setInterleaveFormat(BIP); pRequest->setWritable(true); DataAccessor pDesAcc = pDesRaster->getDataAccessor(pRequest.release()); if (!pDesAcc.isValid()) { QMessageBox::critical(NULL, "Spectral Data Merge", "pDesRaster Data Accessor Error!", "OK"); pStep->finalize(Message::Failure, "pDesRaster Data Accessor Error!"); return false; } if (pProgress == NULL) { QMessageBox::critical(NULL, "Spectral Data Merge", "pProgress Initialize Error!", "OK"); pStep->finalize(Message::Failure, "pProgress Error!"); return false; } // progressDialog = new QProgressDialog(); // progressDialog->setRange(0, rowCount); int band = 0; for (vector<RasterElement*>::iterator element = mergeElementList.begin(); element != mergeElementList.end(); ++element) { // progressDialog->setLabelText(tr("Merge RasterElement %1").arg(band + 1)); // progressDialog->show(); RasterElement* pData = model_cast<RasterElement*>(*element); if (pData != NULL) { RasterDataDescriptor* pDesc = static_cast<RasterDataDescriptor*>(pData->getDataDescriptor()); if (rowCount != pDesc->getRowCount()) { QMessageBox::critical(NULL, "Spectral Data Merge", "Merge Data Format Error!", "OK"); pStep->finalize(Message::Failure, "Merge Data Row Format Error!"); return false; } if (colCount != pDesc->getColumnCount()) { QMessageBox::critical(NULL, "Spectral Data Merge", "Merge Data Format Error!", "OK"); pStep->finalize(Message::Failure, "Merge Data Column Format Error!"); return false; } FactoryResource<DataRequest> pRequest; pRequest->setInterleaveFormat(BIP); pRequest->setWritable(true); DataAccessor pSrcAcc = pData->getDataAccessor(pRequest.release()); switchOnEncoding(pDesc->getDataType(), mergeElement, NULL, rowCount, colCount, pSrcAcc, pDesAcc, band, pProgress, mergeElementList.size()); band++; } // progressDialog->hide(); } Service<DesktopServices> pDesktop; SpatialDataWindow* pWindow = static_cast<SpatialDataWindow*>(pDesktop->createWindow("DataMergeResult", SPATIAL_DATA_WINDOW)); SpatialDataView* pView = (pWindow == NULL) ? NULL : pWindow->getSpatialDataView(); if (pView == NULL) { pStep->finalize(Message::Failure, "SpatialDataView error!"); return false; } pView->setPrimaryRasterElement(pDesRaster); pView->createLayer(RASTER, pDesRaster); if (pDesc != NULL) { const RasterFileDescriptor* pFileDescriptor = dynamic_cast<const RasterFileDescriptor*>(pDesc->getFileDescriptor()); if (pFileDescriptor != NULL) { Service<ModelServices> pModel; if (pModel.get() != NULL) { list<GcpPoint> gcps; gcps = pFileDescriptor->getGcps(); if (gcps.empty() == true) { if (pInitData->isGeoreferenced()) { GcpPoint gcp; // Lower left gcp.mPixel.mX = 0.0; gcp.mPixel.mY = 0.0; gcp.mCoordinate = pInitData->convertPixelToGeocoord(gcp.mPixel); gcps.push_back(gcp); // Lower right gcp.mPixel.mX = colCount - 1; gcp.mPixel.mY = 0.0; gcp.mCoordinate = pInitData->convertPixelToGeocoord(gcp.mPixel); gcps.push_back(gcp); // Upper left gcp.mPixel.mX = 0.0; gcp.mPixel.mY = rowCount - 1; gcp.mCoordinate = pInitData->convertPixelToGeocoord(gcp.mPixel); gcps.push_back(gcp); // Upper right gcp.mPixel.mX = colCount - 1; gcp.mPixel.mY = rowCount - 1; gcp.mCoordinate = pInitData->convertPixelToGeocoord(gcp.mPixel); gcps.push_back(gcp); // Center gcp.mPixel.mX = colCount / 2.0; gcp.mPixel.mY = rowCount / 2.0; gcp.mCoordinate = pInitData->convertPixelToGeocoord(gcp.mPixel); gcps.push_back(gcp); } } if (gcps.empty() == false) { DataDescriptor* pGcpDescriptor = pModel->createDataDescriptor("Corner Coordinates", "GcpList", pDesRaster); if (pGcpDescriptor != NULL) { GcpList* pGcpList = static_cast<GcpList*>(pModel->createElement(pGcpDescriptor)); if (pGcpList != NULL) { // Add the GCPs to the GCP list pGcpList->addPoints(gcps); // Create the GCP list layer pView->createLayer(GCP_LAYER, pGcpList); } } } } } } return true; }

dcac2636124e22c3d6da4aff3515b8d01f290a26

968aa9bac548662b49af4e2b873b61873ba6f680

/imgtools/romtools/rofsbuild/fatimagegenerator.cpp

815e9b75e37595623bb06660d64de72e4c04acd8

no_license

anagovitsyn/oss.FCL.sftools.dev.build

b3401a1ee3fb3c8f3d5caae6e5018ad7851963f3

f458a4ce83f74d603362fe6b71eaa647ccc62fee

refs/heads/master

UTF-8

C++

cpp

/* * Copyright (c) 2010 Nokia Corporation and/or its subsidiary(-ies). * All rights reserved. * This component and the accompanying materials are made available * under the terms of the License "Eclipse Public License v1.0" * which accompanies this distribution, and is available * at the URL "http://www.eclipse.org/legal/epl-v10.html". * * Initial Contributors: * Nokia Corporation - initial contribution. * * Contributors: * * Description: * */ #include "fatimagegenerator.h" #include "fatcluster.h" #include "fsnode.h" #include "h_utl.h" #include <memory.h> #include <time.h> #include <iostream> #include <fstream> #include <iomanip> using namespace std; const TInt KCharsOfCmdWndLine = 80 ; const TInt KRootEntryCount = 0x200; const TInt KRootClusterIndex = 0; TFatImgGenerator::TFatImgGenerator(TSupportedFatType aType ,ConfigurableFatAttributes& aAttr ) : iType(aType), iFatTable(0), iFatTableBytes(0), iTotalClusters(0), iBytsPerClus(aAttr.iDriveClusterSize) { memset(&iBootSector,0,sizeof(iBootSector)); memset(&iFat32Ext,0,sizeof(iFat32Ext)); memset(&iFatHeader,0,sizeof(iFatHeader)); if(iBytsPerClus != 0){ if(iBytsPerClus > KMaxClusterBytes){ Print(EError,"Cluster size is too large!\n"); iType = EFatUnknown; return ; }else if(iBytsPerClus < aAttr.iDriveSectorSize){ Print(EError,"Cluster size cannot be smaller than sector size (%d)!\n", aAttr.iDriveSectorSize); iType = EFatUnknown; return ; }else{ TUint32 tempSectorSize = aAttr.iDriveSectorSize; while (tempSectorSize < iBytsPerClus){ tempSectorSize <<=1; } if (tempSectorSize > iBytsPerClus){ Print(EError,"Cluster size should be (power of 2)*(sector size) i.e. 512, 1024, 2048, 4096, etc!\n"); iType = EFatUnknown; return; } } } if(aAttr.iDriveSectorSize != 512 && aAttr.iDriveSectorSize != 1024 && aAttr.iDriveSectorSize != 2048 && aAttr.iDriveSectorSize != 4096) { Print(EError,"Sector size must be one of (512, 1024, 2048, 4096)!\n"); iType = EFatUnknown ; return ; } *((TUint32*)iBootSector.BS_jmpBoot) = 0x00905AEB ; memcpy(iBootSector.BS_OEMName,"SYMBIAN ",8); *((TUint16 *)iBootSector.BPB_BytsPerSec) = aAttr.iDriveSectorSize; iBootSector.BPB_NumFATs = aAttr.iDriveNoOfFATs; iBootSector.BPB_Media = 0xF8 ; iFatHeader.BS_DrvNum = 0x80 ; iFatHeader.BS_BootSig = 0x29 ; *((TUint32*)iFatHeader.BS_VolID) = aAttr.iVolumeId; memcpy(iFatHeader.BS_VolLab,aAttr.iDriveVolumeLabel,sizeof(iFatHeader.BS_VolLab)); if(aAttr.iImageSize == 0){ if(aType == EFat32) aAttr.iImageSize = 0x100000000LL ;// 4G else aAttr.iImageSize = 0x40000000LL ; // 1G } TUint32 totalSectors = (TUint32)((aAttr.iImageSize + aAttr.iDriveSectorSize - 1) / aAttr.iDriveSectorSize); if(aType == EFat32) { InitAsFat32(totalSectors,aAttr.iDriveSectorSize); } else if(aType == EFat16) { InitAsFat16(totalSectors,aAttr.iDriveSectorSize); } if(iType == EFatUnknown) return ; iBytsPerClus = iBootSector.BPB_SecPerClus * aAttr.iDriveSectorSize; } TFatImgGenerator::~TFatImgGenerator() { if(iFatTable) delete []iFatTable; Interator it = iDataClusters.begin(); while(it != iDataClusters.end()){ TFatCluster* cluster = *it ; delete cluster; it++; } } void TFatImgGenerator::InitAsFat16(TUint32 aTotalSectors,TUint16 aBytsPerSec){ TUint32 numOfClusters ; TUint8 aSecPerClus = iBytsPerClus / aBytsPerSec; if(aSecPerClus == 0) { //Auto-calc the SecPerClus // FAT32 ,Count of clusters must >= 4085 and < 65525 , however , to avoid the "off by xx" warning, // proprositional value >= (4085 + 16) && < (65525 - 16) if(aTotalSectors < (4085 + 16)) { //when SecPerClus is 1, numOfClusters eq to aTotalSectors iType = EFatUnknown ; Print(EError,"Size is too small for FAT16, please set a bigger size !\n"); return ; } TUint8 secPerClusMax = KMaxClusterBytes / aBytsPerSec; numOfClusters = (aTotalSectors + secPerClusMax - 1) / secPerClusMax ; if(numOfClusters >= (65525 - 16)) { // too big iType = EFatUnknown ; Print(EError,"Size is too big for FAT16, please use the FAT32 format!\n"); return ; } aSecPerClus = 1; while(aSecPerClus < secPerClusMax){ numOfClusters = (aTotalSectors + aSecPerClus - 1) / aSecPerClus ; if (numOfClusters >= (4085 + 16) && numOfClusters < (65525 - 16)) { break; } aSecPerClus <<= 1 ; } } else { numOfClusters = (aTotalSectors + aSecPerClus - 1) / aSecPerClus; if(numOfClusters >= (65525 - 16)){ Print(EError,"Cluster count is too big for FAT16, please use the FAT32 format or set a new bigger cluster size!\n"); iType = EFatUnknown ; return ; } else if(numOfClusters < (4085 + 16)){ Print(EError,"Cluster count is too small for FAT16, please set a new smaller cluster size or set the image size bigger!\n"); iType = EFatUnknown ; return ; } } iTotalClusters = (aTotalSectors + aSecPerClus - 1) / aSecPerClus ; iFatTableBytes = ((iTotalClusters << 1) + aBytsPerSec - 1) & (~(aBytsPerSec - 1)); iFatTable = new(std::nothrow) char[iFatTableBytes]; if(!iFatTable) { Print(EError,"Memory allocation failed for FAT16 Table!\n"); iType = EFatUnknown ; return ; } memset(iFatTable,0,iFatTableBytes); *((TUint32*)iFatTable) = 0xFFFFFFF8 ; iBootSector.BPB_SecPerClus = aSecPerClus; *((TUint16*)iBootSector.BPB_RsvdSecCnt) = 0x0001 ; *((TUint16*)iBootSector.BPB_RootEntCnt) = KRootEntryCount ; if(aTotalSectors > 0xFFFF) *((TUint32*)iBootSector.BPB_TotSec32) = aTotalSectors; else *((TUint16*)iBootSector.BPB_TotSec16) = (TUint16)aTotalSectors; TUint16 sectorsForFAT = (TUint16)((iFatTableBytes + aBytsPerSec - 1) / aBytsPerSec); *((TUint16*)iBootSector.BPB_FATSz16) = sectorsForFAT ; memcpy(iFatHeader.BS_FilSysType,"FAT16 ",sizeof(iFatHeader.BS_FilSysType)); } void TFatImgGenerator::InitAsFat32(TUint32 aTotalSectors,TUint16 aBytsPerSec) { TUint32 numOfClusters; TUint8 aSecPerClus = iBytsPerClus / aBytsPerSec; if(aSecPerClus == 0) { //Auto-calc the SecPerClus // FAT32 ,Count of clusters must >= 65525, however , to avoid the "off by xx" warning, // proprositional value >= (65525 + 16) if(aTotalSectors < (65525 + 16)) { //when SecPerClus is 1, numOfClusters eq to aTotalSectors iType = EFatUnknown ; Print(EError,"Size is too small for FAT32, please use the FAT16 format, or set the data size bigger!\n"); return ; } TUint8 secPerClusMax = KMaxClusterBytes / aBytsPerSec; aSecPerClus = secPerClusMax; while(aSecPerClus > 1){ numOfClusters = (aTotalSectors + aSecPerClus - 1) / aSecPerClus ; if (numOfClusters >= (65525 + 16)) { break; } aSecPerClus >>= 1 ; } } else { numOfClusters = (aTotalSectors + aSecPerClus - 1) / aSecPerClus; if(numOfClusters < (65525 + 16)) { Print(EError,"Cluster count is too small for FAT32, please set a new smaller cluster size or set the image size bigger or use the FAT16 format!\n"); iType = EFatUnknown ; return ; } } iTotalClusters = (aTotalSectors + aSecPerClus - 1) / aSecPerClus ; iFatTableBytes = ((iTotalClusters << 2) + aBytsPerSec - 1) & (~(aBytsPerSec - 1)); iFatTable = new(std::nothrow) char[iFatTableBytes]; if(!iFatTable) { Print(EError,"Memory allocation failed for FAT32 Table!\n"); iType = EFatUnknown ; return ; } memset(iFatTable,0,iFatTableBytes); TUint32* fat32table = reinterpret_cast<TUint32*>(iFatTable); fat32table[0] = 0x0FFFFFF8 ; fat32table[1] = 0x0FFFFFFF ; iBootSector.BPB_SecPerClus = aSecPerClus; iBootSector.BPB_RsvdSecCnt[0] = 0x20 ; *((TUint32*)iBootSector.BPB_TotSec32) = aTotalSectors; *((TUint32*)iFat32Ext.BPB_FATSz32) = (iFatTableBytes + aBytsPerSec - 1) / aBytsPerSec; *((TUint32*)iFat32Ext.BPB_RootClus) = 2 ; *((TUint16*)iFat32Ext.BPB_FSInfo) = 1 ; *((TUint16*)iFat32Ext.BPB_BkBootSec) = 6 ; memcpy(iFatHeader.BS_FilSysType,"FAT32 ",sizeof(iFatHeader.BS_FilSysType)); } bool TFatImgGenerator::Execute(TFSNode* aRootDir , const char* aOutputFile){ if(EFatUnknown == iType) return false ; ofstream o(aOutputFile,ios_base::binary + ios_base::out + ios_base::trunc); TUint32 writtenBytes = 0 ; if(!o.is_open()) { Print(EError,"Can not open \"%s\" for writing !\n",aOutputFile) ; return false; } TUint16 bytsPerSector = *((TUint16*)iBootSector.BPB_BytsPerSec); Interator it = iDataClusters.begin(); while(it != iDataClusters.end()){ TFatCluster* cluster = *it ; delete cluster; it++; } iDataClusters.clear(); Print(EAlways,"Filesystem ready.\nWriting Header..."); if(EFat16 == iType){ char* header = new(std::nothrow) char[bytsPerSector]; if(!header){ Print(EError,"Can not allocate memory for FAT16 header!\n"); o.close(); return false ; } int offset = 0; memcpy(header,&iBootSector,sizeof(iBootSector)); offset = sizeof(iBootSector); memcpy(&header[offset],&iFatHeader,sizeof(iFatHeader)); offset += sizeof(iFatHeader); memset(&header[offset],0,bytsPerSector - offset); *((TUint16*)(&header[510])) = 0xAA55 ; o.write(header,bytsPerSector); writtenBytes += bytsPerSector; delete []header ; TUint16 rootDirSectors = (KRootEntryCount * 32) / bytsPerSector ; TUint16 rootDirClusters = (rootDirSectors + iBootSector.BPB_SecPerClus - 1) /iBootSector.BPB_SecPerClus; TUint32 rootDirBytes = KRootEntryCount * 32; TFatCluster* rootDir = new(std::nothrow) TFatCluster(0,rootDirClusters); rootDir->Init(rootDirBytes); iDataClusters.push_back(rootDir); aRootDir->WriteDirEntries(KRootClusterIndex,rootDir->GetData()); TUint index = 2 ; Print(EAlways," OK.\nPreparing cluster list..."); TFSNode* child = aRootDir->GetFirstChild() ; while(child){ if(!PrepareClusters(index,child)){ Print(EAlways," Failed.\nError:Image size is expected to be big enough for all the files.\n"); return false ; } child = child->GetSibling() ; } } else if(EFat32 == iType){ TUint headerSize = ( bytsPerSector << 5 ); // 32 reserved sectors for fat32 char* header = new(std::nothrow) char[headerSize]; if(!header){ Print(EError,"Can not allocate memory for FAT32 header!\n"); o.close(); return false ; } memset(header,0,headerSize); int offset = 0; memcpy(header,&iBootSector,sizeof(iBootSector)); offset = sizeof(iBootSector); memcpy(&header[offset],&iFat32Ext,sizeof(iFat32Ext)); offset += sizeof(iFat32Ext); memcpy(&header[offset],&iFatHeader,sizeof(iFatHeader)); offset += sizeof(iFatHeader); TFAT32FSInfoSector* fsinfo = reinterpret_cast<TFAT32FSInfoSector*>(&header[bytsPerSector]); *((TUint32*)fsinfo->FSI_LeadSig) = 0x41615252 ; *((TUint32*)fsinfo->FSI_StrucSig) = 0x61417272 ; memset(fsinfo->FSI_Free_Count,0xFF,8); char* tailed = header + 510 ; for(int i = 0 ; i < 32 ; i++ , tailed += bytsPerSector ) *((TUint16*)tailed) = 0xAA55 ; TUint index = 2 ; Print(EAlways," OK.\nPreparing cluster list..."); if(!PrepareClusters(index,aRootDir)) { Print(EAlways," Failed.\nERROR: Image size is expected to be big enough for all the files.\n"); delete []header ; return false; } *(TUint32*)(fsinfo->FSI_Free_Count) = iTotalClusters - index + 3; *(TUint32*)(fsinfo->FSI_Nxt_Free) = index ; // write bakup boot sectors memcpy(&header[bytsPerSector * 6],header,(bytsPerSector << 1)); o.write(header,headerSize); writtenBytes += headerSize; delete []header ; } //iDataClusters.sort(); it = iDataClusters.end() ; it -- ; int clusters = (*it)->GetIndex() + (*it)->ActualClusterCount() - 1; Print(EAlways," OK.\n%d clusters of data need to be written.\nWriting Fat table...",clusters); for(TUint8 w = 0 ; w < iBootSector.BPB_NumFATs ; w++){ o.write(iFatTable,iFatTableBytes); if(o.bad() || o.fail()){ Print(EAlways,"\nERROR:Writting failed. Please check the filesystem\n"); delete []iFatTable, o.close(); return false ; } writtenBytes += iFatTableBytes; } char* buffer = new(std::nothrow) char[KBufferedIOBytes]; if(!buffer){ Print(EError,"Can not allocate memory for I/O buffer !\n"); o.close(); return false ; } o.flush(); Print(EAlways," OK.\nWriting clusters data..."); int bytesInBuffer = 0; int writeTimes = 24; TFatCluster* lastClust = 0 ; for(it = iDataClusters.begin(); it != iDataClusters.end() ; it++ ){ TFatCluster* cluster = *it ; TUint fileSize = cluster->GetSize(); TUint toProcess = cluster->ActualClusterCount() * iBytsPerClus ; if(toProcess > KBufferedIOBytes){ // big file if(bytesInBuffer > 0){ o.write(buffer,bytesInBuffer); if(o.bad() || o.fail()){ Print(EError,"Writting failed.\n"); delete []buffer, o.close(); return false ; } writtenBytes += bytesInBuffer; bytesInBuffer = 0; Print(EAlways,"."); writeTimes ++ ; if((writeTimes % KCharsOfCmdWndLine) == 0){ o.flush(); cout << endl ; } } if(cluster->IsLazy()){ ifstream ifs(cluster->GetFileName(), ios_base::binary + ios_base::in); if(!ifs.is_open()){ Print(EError,"Can not open file \"%s\"\n",cluster->GetFileName()) ; o.close(); delete []buffer; return false ; } if(!ifs.good()) ifs.clear(); TUint processedBytes = 0 ; while(processedBytes < fileSize){ TUint ioBytes = fileSize - processedBytes ; if(ioBytes > KBufferedIOBytes) ioBytes = KBufferedIOBytes; ifs.read(buffer,ioBytes); processedBytes += ioBytes; o.write(buffer,ioBytes); if(o.bad() || o.fail()){ Print(EError,"Writting failed.\n"); delete []iFatTable, o.close(); return false ; } writtenBytes += ioBytes; Print(EAlways,"."); writeTimes ++ ; if((writeTimes % KCharsOfCmdWndLine) == 0){ o.flush(); Print(EAlways,"\n") ; } } TUint paddingBytes = toProcess - processedBytes; if( paddingBytes > 0 ){ memset(buffer,0,paddingBytes); o.write(buffer,paddingBytes); if(o.bad() || o.fail()){ Print(EError,"Writting failed.\n"); delete []buffer, o.close(); return false ; } writtenBytes += paddingBytes; } ifs.close(); } else { // impossible Print(EError,"Unexpected result!\n"); o.close(); delete []buffer; return false ; } } else { if(toProcess > (KBufferedIOBytes - bytesInBuffer)){ o.write(buffer,bytesInBuffer); if(o.bad() || o.fail()){ Print(EError,"Writting failed.\n"); delete []buffer, o.close(); return false ; } writtenBytes += bytesInBuffer; Print(EAlways,"."); writeTimes ++ ; if((writeTimes % KCharsOfCmdWndLine) == 0){ o.flush(); cout << endl ; } bytesInBuffer = 0; } if(cluster->IsLazy()){ ifstream ifs(cluster->GetFileName(), ios_base::binary + ios_base::in); if(!ifs.is_open()){ Print(EError,"Can not open file \"%s\"\n",cluster->GetFileName()) ; o.close(); delete []buffer; return false ; } if(!ifs.good()) ifs.clear(); ifs.read(&buffer[bytesInBuffer],fileSize); bytesInBuffer += fileSize; if(toProcess > fileSize) { // fill padding bytes memset(&buffer[bytesInBuffer],0,toProcess - fileSize); bytesInBuffer += (toProcess - fileSize); } ifs.close(); } else{ if(toProcess != cluster->GetSize() && cluster->GetIndex() != KRootClusterIndex){ Print(EError,"Unexpected size!\n"); o.close(); delete []buffer; return false ; } memcpy(&buffer[bytesInBuffer],cluster->GetData(),cluster->GetSize()); bytesInBuffer += cluster->GetSize(); } } lastClust = cluster ; } if(bytesInBuffer > 0){ o.write(buffer,bytesInBuffer); if(o.bad() || o.fail()){ Print(EError,"Writting failed.\n"); delete []buffer, o.close(); return false ; } writtenBytes += bytesInBuffer; o.flush(); } Print(EAlways,"\nDone.\n\n"); o.close(); return true ; } bool TFatImgGenerator::PrepareClusters(TUint& aNextClusIndex,TFSNode* aNode) { TUint sizeOfItem = aNode->GetSize(); TUint clusters = (sizeOfItem + iBytsPerClus - 1) / iBytsPerClus; if(iTotalClusters < aNextClusIndex + clusters) return false ; TUint16* fat16Table = reinterpret_cast<TUint16*>(iFatTable); TUint32* fat32Table = reinterpret_cast<TUint32*>(iFatTable); for(TUint i = aNextClusIndex + clusters - 1 ; i > aNextClusIndex ; i--){ if(iType == EFat16) fat16Table[i - 1] = i ; else fat32Table[i - 1] = i ; } if(iType == EFat16) fat16Table[aNextClusIndex + clusters - 1] = 0xffff ; else fat32Table[aNextClusIndex + clusters - 1] = 0x0fffffff ; TFatCluster* cluster = new TFatCluster(aNextClusIndex,clusters); if(aNode->IsDirectory()) { TUint bytes = clusters * iBytsPerClus ; cluster->Init(bytes); aNode->WriteDirEntries(aNextClusIndex,cluster->GetData()); } else { cluster->LazyInit(aNode->GetPCSideName(),sizeOfItem); aNode->WriteDirEntries(aNextClusIndex,NULL); } iDataClusters.push_back(cluster); aNextClusIndex += clusters; if(aNode->GetFirstChild()){ if(!PrepareClusters(aNextClusIndex,aNode->GetFirstChild())) return false ; } if(aNode->GetSibling()){ if(!PrepareClusters(aNextClusIndex,aNode->GetSibling())) return false; } return true ; }

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/Library/PhysXCPP/NxaCharacterControllerManager.cpp

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no_license

ECToo/physxdotnet

1e7d7e9078796f1dad5c8582d28441a908e11a83

2b85d57bc877521cdbf1a9147bd6716af68a64b0

refs/heads/master

UTF-8

C++

cpp

#include "StdAfx.h" #include "NxaCharacterControllerManager.h" NxaCharacterControllerManager::NxaCharacterControllerManager(void) { }

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/reflib/src/StopModelViewForm.cpp

ca5e264781241ac1ade09a4ae65f499e348e6059

no_license

openlab-vn-ua/tour

abbd8be4f3f2fe4d787e9054385dea2f926f2287

d467a300bb31a0e82c54004e26e47f7139bd728d

refs/heads/master

UTF-8

C++

cpp

//--------------------------------------------------------------------------- #include <vcl.h> #pragma hdrstop #include "StdTool.h" #include "TourTool.h" #include "StopModelViewForm.h" #if defined(TOUR_LINKBASE_MODE) #include "StopModelAddForm.h" #include "StopModelEditForm.h" #else #include "StopModelSimpleAddForm.h" #include "StopModelSimpleEditForm.h" #endif //--------------------------------------------------------------------------- #pragma package(smart_init) #pragma link "Placemnt" #pragma link "RXDBCtrl" #pragma link "TableGridViewForm" #pragma link "VADODataSourceOrdering" #pragma link "VCustomDataSourceOrdering" #pragma link "VDBGridFilterDialog" #pragma link "VDBSortGrid" #pragma link "VStringStorage" #pragma link "VCustomDBGridFilterDialog" #pragma resource "*.dfm" TTourRefBookStopModelViewForm *TourRefBookStopModelViewForm; #define GetTranslatedStr(Index) VStringStorage->Lines->Strings[Index] //--------------------------------------------------------------------------- __fastcall TTourRefBookStopModelViewForm::TTourRefBookStopModelViewForm(TComponent* Owner) : TTourRefBookTableGridViewForm(Owner) { } //--------------------------------------------------------------------------- #ifdef TOUR_LINKBASE_MODE ///* void __fastcall TTourRefBookStopModelViewForm::NewActionExecute( TObject *Sender) { TTourRefBookStopModelAddForm *TourRefBookStopModelAddFormPtr; FunctionArgUsedSkip(Sender); TourRefBookStopModelAddFormPtr = NULL; if (!EditLocked) { try { Application->CreateForm(__classid(TTourRefBookStopModelAddForm), &TourRefBookStopModelAddFormPtr); if (TourRefBookStopModelAddFormPtr != NULL) { TourRefBookStopModelAddFormPtr->MainQueryDataSet = MainQuery; ShowProcessAdd(TourRefBookStopModelAddFormPtr); delete (TourRefBookStopModelAddFormPtr); TourRefBookStopModelAddFormPtr = NULL; } else { throw Exception(GetTranslatedStr(TourRefBookCreateObjectErrorMessageStr) + "TTourRefBookStopModelAddForm"); } } catch (Exception &exception) { TourShowDialogException(NULL,&exception); } } } //--------------------------------------------------------------------------- void __fastcall TTourRefBookStopModelViewForm::EditActionExecute( TObject *Sender) { TTourRefBookStopModelEditForm *TourRefBookStopModelEditFormPtr; FunctionArgUsedSkip(Sender); TourRefBookStopModelEditFormPtr = NULL; if (!EditLocked) { try { Application->CreateForm(__classid(TTourRefBookStopModelEditForm), &TourRefBookStopModelEditFormPtr); if (TourRefBookStopModelEditFormPtr != NULL) { TourRefBookStopModelEditFormPtr->MainQueryDataSet = MainQuery; ShowProcessEdit(TourRefBookStopModelEditFormPtr); delete (TourRefBookStopModelEditFormPtr); TourRefBookStopModelEditFormPtr = NULL; } else { throw Exception(GetTranslatedStr(TourRefBookCreateObjectErrorMessageStr) + "TTourRefBookStopModelEditForm"); } } catch (Exception &exception) { TourShowDialogException(NULL,&exception); } } } //*/ #else ///* void __fastcall TTourRefBookStopModelViewForm::NewActionExecute( TObject *Sender) { TTourStopModelSimpleAddForm *AddFormPtr; FunctionArgUsedSkip(Sender); AddFormPtr = NULL; if (!EditLocked) { try { Application->CreateForm(__classid(TTourStopModelSimpleAddForm),&AddFormPtr); if (AddFormPtr != NULL) { if (AddFormPtr->ShowModal() == mrOk) { CursorWaitOpen(); try { MainQuery->Append(); MainQuery->FieldByName("stop_model")->AsString = AddFormPtr->StopModelEdit->Text; if (!AddFormPtr->StopModelNameEdit->Text.IsEmpty()) { MainQuery->FieldByName("stopmodel_name")->AsString = AddFormPtr->StopModelNameEdit->Text; } MainQuery->Post(); } catch (...) { MainQuery->Cancel(); } CursorWaitClose(); } delete (AddFormPtr); AddFormPtr = NULL; } else { throw Exception(GetTranslatedStr(TourRefBookCreateObjectErrorMessageStr) + "TTourStopModelSimpleAddForm"); } } catch (Exception &exception) { TourShowDialogException(NULL,&exception); } } } //--------------------------------------------------------------------------- void __fastcall TTourRefBookStopModelViewForm::EditActionExecute( TObject *Sender) { TTourStopModelSimpleEditForm *EditFormPtr; FunctionArgUsedSkip(Sender); EditFormPtr = NULL; if (!EditLocked) { try { Application->CreateForm(__classid(TTourStopModelSimpleEditForm),&EditFormPtr); if (EditFormPtr != NULL) { EditFormPtr->StopModelEdit->Text = MainQuery->FieldByName("stop_model")->AsString; EditFormPtr->StopModelNameEdit->Text = MainQuery->FieldByName("stopmodel_name")->AsString; if (EditFormPtr->ShowModal() == mrOk) { CursorWaitOpen(); try { MainQuery->Edit(); // MainQuery->FieldByName("stop_model")->AsString // = EditFormPtr->StopModelEdit->Text; if (!EditFormPtr->StopModelNameEdit->Text.IsEmpty()) { MainQuery->FieldByName("stopmodel_name")->AsString = EditFormPtr->StopModelNameEdit->Text; } else { MainQuery->FieldByName("stopmodel_name")->Value = Variant().ChangeType(varNull); } MainQuery->Post(); } catch (...) { MainQuery->Cancel(); } CursorWaitClose(); } delete (EditFormPtr); EditFormPtr = NULL; } else { throw Exception(GetTranslatedStr(TourRefBookCreateObjectErrorMessageStr) + "TTourStopModelSimpleEditForm"); } } catch (Exception &exception) { TourShowDialogException(NULL,&exception); } } } //*/ #endif //--------------------------------------------------------------------------- void __fastcall TTourRefBookStopModelViewForm::FormClose(TObject *Sender, TCloseAction &Action) { TTourRefBookTableGridViewForm::FormClose(Sender,Action); TourRefBookStopModelViewForm = NULL; } //--------------------------------------------------------------------------- #undef GetTranslatedStr(Index)

04552d5643c785048e9e14bb3c1acb552a607f9c

7e8eda9c74315df15b165b43f330da76f77e163e

/src/VEProj4/simple_model.cpp

aeb57efe04cab1ff688f24508cc6630912128e65

no_license

pixelperfect3/3d-scene-editor

e9375cf211e984ce92dc6aab44f2ab8f4a3ecca8

02db9bc2b1b1de1f5405ab66c80fd86f4b1b4df8

refs/heads/master

UTF-8

C++

cpp

#include "ogre.h" #include "simple_model.h" using namespace std; istream& operator>>(istream& is, Ogre::Vector3 v) { is >> v.x >> v.y >> v.z; return is; } //ostream& operator <<(ostream &os, Ogre::Vector3 v) { // os << v.x << v.y << v.z; // return os; //} istream& operator>>(istream& is, SimpleModel m) { //Cannot de-serialize the parent node. double radians = m.orientation.valueRadians(); is >> m.meshName >> m.model_num >> m.start >> radians; m.orientation = radians; return is; } ostream& operator <<(ostream &os, SimpleModel m) { //Cannot serialize the parent node. Try using the scene-manager API to find or create it, again. os << m.meshName << m.model_num << m.start << m.orientation.valueRadians(); return os; }

662847597c2f9cddc09157b0c61bdc75e93ba085

15fc90dea35740998f511319027d9971bae9251c

/ImportRename/src/irMain.cpp

94eee00d4c0544cbfcdba1d2cefe0aa258560a78

no_license

ECToo/switch-soft

c35020249be233cf1e35dc18b5c097894d5efdb4

5edf2cc907259fb0a0905fc2c321f46e234e6263

refs/heads/master

UTF-8

C++

cpp

// ============================================================================ // UnPackage :: Cross-platform toolkit for Unreal Engine packages // Copyright (C) 2006 Roman Dzieciol. All Rights Reserved. // ============================================================================ // irMain.cpp // ============================================================================ #include "stdafx.h" #include "irMain.h" #include "irPkg.h" // ============================================================================ // irMain // ============================================================================ int irMain::OnRun() { try { static const wxCmdLineEntryDesc cmdLineDesc[] = { { wxCMD_LINE_PARAM, NULL, NULL, _T("InputFile"), wxCMD_LINE_VAL_STRING, wxCMD_LINE_OPTION_MANDATORY }, { wxCMD_LINE_PARAM, NULL, NULL, _T("OldName"), wxCMD_LINE_VAL_STRING, wxCMD_LINE_PARAM_OPTIONAL }, { wxCMD_LINE_PARAM, NULL, NULL, _T("NewName"), wxCMD_LINE_VAL_STRING, wxCMD_LINE_PARAM_OPTIONAL }, { wxCMD_LINE_NONE, NULL, NULL, NULL, (wxCmdLineParamType)0, 0 } }; wxCmdLineParser parser(cmdLineDesc, argc, argv); switch (parser.Parse()) { case -1: return 0; case 0: ParseParams(parser); return 0; } return 1; } catch( upexception& e ) { wxLogError(wxT("%s"), e.wwhat()); return 1; } catch( exception& e ) { wxLogError(wxT("%hs"), e.what()); return 1; } } void irMain::ParseParams( const wxCmdLineParser& cmdline ) { if( cmdline.GetParamCount() == 1 ) { RenameImport( wxT("SwampTextures"), wxT("JRTX_SwampJZ"), cmdline.GetParam(0) ); RenameImport( wxT("SwampNoTexture"), wxT("JRSM_SwampJZ"), cmdline.GetParam(0) ); RenameImport( wxT("JurassicRage"), wxT("JRSM_Misc"), cmdline.GetParam(0) ); RenameImport( wxT("JRMeshes"), wxT("JRTX_Misc"), cmdline.GetParam(0) ); } else if( cmdline.GetParamCount() == 3 ) { RenameImport( cmdline.GetParam(1), cmdline.GetParam(2), cmdline.GetParam(0) ); } wxShell(wxT("PAUSE")); } void irMain::RenameImport( const wxString& oldname, const wxString& newname, const wxString& filename ) { guard; //wxLogMessage( wxT("") ); //wxLogMessage( wxT("RenameImport() %s"), filename.c_str() ); // Rename imports { // Load upFileReader freader( filename ); irPkg pkg( freader.Length() ); pkg.Serialize(freader); // Rename pkg.RenameImport( oldname, newname ); // Write upFileWriter fwriter( filename + wxT(".ir.temp") ); fwriter.Serialize( freader.GetDataPtr(), freader.Length() ); pkg.Serialize(fwriter); } wxRemoveFile( filename ); wxRenameFile( filename + wxT(".ir.temp"), filename ); // Rename files unguard; } // ============================================================================ // The End. // ============================================================================

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/ghost/bnetprotocol.h

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refs/heads/master

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/* Copyright [2008] [Trevor Hogan] Licensed under the Apache License, Version 2.0 (the "License"); you may not use this file except in compliance with the License. You may obtain a copy of the License at http://www.apache.org/licenses/LICENSE-2.0 Unless required by applicable law or agreed to in writing, software distributed under the License is distributed on an "AS IS" BASIS, WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. See the License for the specific language governing permissions and limitations under the License. CODE PORTED FROM THE ORIGINAL GHOST PROJECT: http://ghost.pwner.org/ */ #ifndef BNETPROTOCOL_H #define BNETPROTOCOL_H // // CBNETProtocol // #define BNET_HEADER_CONSTANT 255 class CIncomingGameHost; class CIncomingChatEvent; class CIncomingFriendList; class CIncomingClanList; class CBNETProtocol { public: enum Protocol { SID_NULL = 0, // 0x0 SID_STOPADV = 2, // 0x2 SID_GETADVLISTEX = 9, // 0x9 SID_ENTERCHAT = 10, // 0xA SID_JOINCHANNEL = 12, // 0xC SID_CHATCOMMAND = 14, // 0xE SID_CHATEVENT = 15, // 0xF SID_CHECKAD = 21, // 0x15 SID_STARTADVEX3 = 28, // 0x1C SID_DISPLAYAD = 33, // 0x21 SID_NOTIFYJOIN = 34, // 0x22 SID_PING = 37, // 0x25 SID_LOGONRESPONSE = 41, // 0x29 SID_NETGAMEPORT = 69, // 0x45 SID_AUTH_INFO = 80, // 0x50 SID_AUTH_CHECK = 81, // 0x51 SID_AUTH_ACCOUNTLOGON = 83, // 0x53 SID_AUTH_ACCOUNTLOGONPROOF = 84, // 0x54 SID_WARDEN = 94, // 0x5E SID_FRIENDSLIST = 101, // 0x65 SID_FRIENDSUPDATE = 102, // 0x66 SID_CLANMEMBERLIST = 125, // 0x7D SID_CLANMEMBERSTATUSCHANGE = 127 // 0x7F }; enum KeyResult { KR_GOOD = 0, KR_OLD_GAME_VERSION = 256, KR_INVALID_VERSION = 257, KR_ROC_KEY_IN_USE = 513, KR_TFT_KEY_IN_USE = 529 }; enum IncomingChatEvent { EID_SHOWUSER = 1, // received when you join a channel (includes users in the channel and their information) EID_JOIN = 2, // received when someone joins the channel you're currently in EID_LEAVE = 3, // received when someone leaves the channel you're currently in EID_WHISPER = 4, // received a whisper message EID_TALK = 5, // received when someone talks in the channel you're currently in EID_BROADCAST = 6, // server broadcast EID_CHANNEL = 7, // received when you join a channel (includes the channel's name, flags) EID_USERFLAGS = 9, // user flags updates EID_WHISPERSENT = 10, // sent a whisper message EID_CHANNELFULL = 13, // channel is full EID_CHANNELDOESNOTEXIST = 14, // channel does not exist EID_CHANNELRESTRICTED = 15, // channel is restricted EID_INFO = 18, // broadcast/information message EID_ERROR = 19, // error message EID_EMOTE = 23 // emote }; private: BYTEARRAY m_ClientToken; // set in constructor BYTEARRAY m_LogonType; // set in RECEIVE_SID_AUTH_INFO BYTEARRAY m_ServerToken; // set in RECEIVE_SID_AUTH_INFO BYTEARRAY m_MPQFileTime; // set in RECEIVE_SID_AUTH_INFO BYTEARRAY m_IX86VerFileName; // set in RECEIVE_SID_AUTH_INFO BYTEARRAY m_ValueStringFormula; // set in RECEIVE_SID_AUTH_INFO BYTEARRAY m_KeyState; // set in RECEIVE_SID_AUTH_CHECK BYTEARRAY m_KeyStateDescription; // set in RECEIVE_SID_AUTH_CHECK BYTEARRAY m_Salt; // set in RECEIVE_SID_AUTH_ACCOUNTLOGON BYTEARRAY m_ServerPublicKey; // set in RECEIVE_SID_AUTH_ACCOUNTLOGON BYTEARRAY m_UniqueName; // set in RECEIVE_SID_ENTERCHAT public: CBNETProtocol( ); ~CBNETProtocol( ); BYTEARRAY GetClientToken( ) { return m_ClientToken; } BYTEARRAY GetLogonType( ) { return m_LogonType; } BYTEARRAY GetServerToken( ) { return m_ServerToken; } BYTEARRAY GetMPQFileTime( ) { return m_MPQFileTime; } BYTEARRAY GetIX86VerFileName( ) { return m_IX86VerFileName; } string GetIX86VerFileNameString( ) { return string( m_IX86VerFileName.begin( ), m_IX86VerFileName.end( ) ); } BYTEARRAY GetValueStringFormula( ) { return m_ValueStringFormula; } string GetValueStringFormulaString( ) { return string( m_ValueStringFormula.begin( ), m_ValueStringFormula.end( ) ); } BYTEARRAY GetKeyState( ) { return m_KeyState; } string GetKeyStateDescription( ) { return string( m_KeyStateDescription.begin( ), m_KeyStateDescription.end( ) ); } BYTEARRAY GetSalt( ) { return m_Salt; } BYTEARRAY GetServerPublicKey( ) { return m_ServerPublicKey; } BYTEARRAY GetUniqueName( ) { return m_UniqueName; } // receive functions bool RECEIVE_SID_NULL( BYTEARRAY data ); CIncomingGameHost *RECEIVE_SID_GETADVLISTEX( BYTEARRAY data ); bool RECEIVE_SID_ENTERCHAT( BYTEARRAY data ); CIncomingChatEvent *RECEIVE_SID_CHATEVENT( BYTEARRAY data ); bool RECEIVE_SID_CHECKAD( BYTEARRAY data ); bool RECEIVE_SID_STARTADVEX3( BYTEARRAY data ); BYTEARRAY RECEIVE_SID_PING( BYTEARRAY data ); bool RECEIVE_SID_LOGONRESPONSE( BYTEARRAY data ); bool RECEIVE_SID_AUTH_INFO( BYTEARRAY data ); bool RECEIVE_SID_AUTH_CHECK( BYTEARRAY data ); bool RECEIVE_SID_AUTH_ACCOUNTLOGON( BYTEARRAY data ); bool RECEIVE_SID_AUTH_ACCOUNTLOGONPROOF( BYTEARRAY data ); BYTEARRAY RECEIVE_SID_WARDEN( BYTEARRAY data ); vector<CIncomingFriendList *> RECEIVE_SID_FRIENDSLIST( BYTEARRAY data ); vector<CIncomingClanList *> RECEIVE_SID_CLANMEMBERLIST( BYTEARRAY data ); CIncomingClanList *RECEIVE_SID_CLANMEMBERSTATUSCHANGE( BYTEARRAY data ); // send functions BYTEARRAY SEND_PROTOCOL_INITIALIZE_SELECTOR( ); BYTEARRAY SEND_SID_NULL( ); BYTEARRAY SEND_SID_STOPADV( ); BYTEARRAY SEND_SID_GETADVLISTEX( string gameName ); BYTEARRAY SEND_SID_ENTERCHAT( ); BYTEARRAY SEND_SID_JOINCHANNEL( string channel ); BYTEARRAY SEND_SID_CHATCOMMAND( string command ); BYTEARRAY SEND_SID_CHECKAD( ); BYTEARRAY SEND_SID_STARTADVEX3( unsigned char state, BYTEARRAY mapGameType, BYTEARRAY mapFlags, BYTEARRAY mapWidth, BYTEARRAY mapHeight, string gameName, string hostName, uint32_t upTime, string mapPath, BYTEARRAY mapCRC, BYTEARRAY mapSHA1, uint32_t hostCounter ); BYTEARRAY SEND_SID_NOTIFYJOIN( string gameName ); BYTEARRAY SEND_SID_PING( BYTEARRAY pingValue ); BYTEARRAY SEND_SID_LOGONRESPONSE( BYTEARRAY clientToken, BYTEARRAY serverToken, BYTEARRAY passwordHash, string accountName ); BYTEARRAY SEND_SID_NETGAMEPORT( uint16_t serverPort ); BYTEARRAY SEND_SID_AUTH_INFO( unsigned char ver, bool TFT, string countryAbbrev, string country ); BYTEARRAY SEND_SID_AUTH_CHECK( bool TFT, BYTEARRAY clientToken, BYTEARRAY exeVersion, BYTEARRAY exeVersionHash, BYTEARRAY keyInfoROC, BYTEARRAY keyInfoTFT, string exeInfo, string keyOwnerName ); BYTEARRAY SEND_SID_AUTH_ACCOUNTLOGON( BYTEARRAY clientPublicKey, string accountName ); BYTEARRAY SEND_SID_AUTH_ACCOUNTLOGONPROOF( BYTEARRAY clientPasswordProof ); BYTEARRAY SEND_SID_WARDEN( BYTEARRAY wardenResponse ); BYTEARRAY SEND_SID_FRIENDSLIST( ); BYTEARRAY SEND_SID_CLANMEMBERLIST( ); // other functions private: bool AssignLength( BYTEARRAY &content ); bool ValidateLength( BYTEARRAY &content ); }; // // CIncomingGameHost // class CIncomingGameHost { private: BYTEARRAY m_IP; uint16_t m_Port; string m_GameName; BYTEARRAY m_HostCounter; public: CIncomingGameHost( BYTEARRAY &nIP, uint16_t nPort, string nGameName, BYTEARRAY &nHostCounter ); ~CIncomingGameHost( ); BYTEARRAY GetIP( ) { return m_IP; } string GetIPString( ); uint16_t GetPort( ) { return m_Port; } string GetGameName( ) { return m_GameName; } BYTEARRAY GetHostCounter( ) { return m_HostCounter; } }; // // CIncomingChatEvent // class CIncomingChatEvent { private: CBNETProtocol :: IncomingChatEvent m_ChatEvent; uint32_t m_Ping; string m_User; string m_Message; public: CIncomingChatEvent( CBNETProtocol :: IncomingChatEvent nChatEvent, uint32_t nPing, string nUser, string nMessage ); ~CIncomingChatEvent( ); CBNETProtocol :: IncomingChatEvent GetChatEvent( ) { return m_ChatEvent; } uint32_t GetPing( ) { return m_Ping; } string GetUser( ) { return m_User; } string GetMessage( ) { return m_Message; } }; // // CIncomingFriendList // class CIncomingFriendList { private: string m_Account; unsigned char m_Status; unsigned char m_Area; string m_Location; public: CIncomingFriendList( string nAccount, unsigned char nStatus, unsigned char nArea, string nLocation ); ~CIncomingFriendList( ); string GetAccount( ) { return m_Account; } unsigned char GetStatus( ) { return m_Status; } unsigned char GetArea( ) { return m_Area; } string GetLocation( ) { return m_Location; } string GetDescription( ); private: string ExtractStatus( unsigned char status ); string ExtractArea( unsigned char area ); string ExtractLocation( string location ); }; // // CIncomingClanList // class CIncomingClanList { private: string m_Name; unsigned char m_Rank; unsigned char m_Status; public: CIncomingClanList( string nName, unsigned char nRank, unsigned char nStatus ); ~CIncomingClanList( ); string GetName( ) { return m_Name; } string GetRank( ); string GetStatus( ); string GetDescription( ); }; #endif

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/**************************************************************************** ** ** Copyright (C) 2010 Nokia Corporation and/or its subsidiary(-ies). ** All rights reserved. ** Contact: Nokia Corporation ([email protected]) ** ** This file is part of the demonstration applications of the Qt Toolkit. ** ** $QT_BEGIN_LICENSE:LGPL$ ** Commercial Usage ** Licensees holding valid Qt Commercial licenses may use this file in ** accordance with the Qt Commercial License Agreement provided with the ** Software or, alternatively, in accordance with the terms contained in ** a written agreement between you and Nokia. ** ** GNU Lesser General Public License Usage ** Alternatively, this file may be used under the terms of the GNU Lesser ** General Public License version 2.1 as published by the Free Software ** Foundation and appearing in the file LICENSE.LGPL included in the ** packaging of this file. Please review the following information to ** ensure the GNU Lesser General Public License version 2.1 requirements ** will be met: http://www.gnu.org/licenses/old-licenses/lgpl-2.1.html. ** ** In addition, as a special exception, Nokia gives you certain additional ** rights. These rights are described in the Nokia Qt LGPL Exception ** version 1.1, included in the file LGPL_EXCEPTION.txt in this package. ** ** GNU General Public License Usage ** Alternatively, this file may be used under the terms of the GNU ** General Public License version 3.0 as published by the Free Software ** Foundation and appearing in the file LICENSE.GPL included in the ** packaging of this file. Please review the following information to ** ensure the GNU General Public License version 3.0 requirements will be ** met: http://www.gnu.org/copyleft/gpl.html. ** ** If you have questions regarding the use of this file, please contact ** Nokia at [email protected]. ** $QT_END_LICENSE$ ** ****************************************************************************/ #ifndef PRINTVIEW_H #define PRINTVIEW_H #include <QTableView> class PrintView : public QTableView { Q_OBJECT public: PrintView(); public Q_SLOTS: void print(QPrinter *printer); }; #endif // PRINTVIEW_H

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#ifndef RAPIDXML_ITERATORS_HPP_INCLUDED #define RAPIDXML_ITERATORS_HPP_INCLUDED // Copyright (C) 2006, 2009 Marcin Kalicinski // Version 1.13 // Revision $DateTime: 2009/05/13 01:46:17 $ //! \file rapidxml_iterators.hpp This file contains rapidxml iterators #include "rapidxml/rapidxml.hpp" namespace rapidxml { //! Iterator of child nodes of xml_node template<class Ch> class node_iterator { public: typedef typename xml_node<Ch> value_type; typedef typename xml_node<Ch> &reference; typedef typename xml_node<Ch> *pointer; typedef std::ptrdiff_t difference_type; typedef std::bidirectional_iterator_tag iterator_category; node_iterator() : m_node(0) { } node_iterator(xml_node<Ch> *node) : m_node(node->first_node()) { } reference operator *() const { assert(m_node); return *m_node; } pointer operator->() const { assert(m_node); return m_node; } node_iterator& operator++() { assert(m_node); m_node = m_node->next_sibling(); return *this; } node_iterator operator++(int) { node_iterator tmp = *this; ++this; return tmp; } node_iterator& operator--() { assert(m_node && m_node->previous_sibling()); m_node = m_node->previous_sibling(); return *this; } node_iterator operator--(int) { node_iterator tmp = *this; ++this; return tmp; } bool operator ==(const node_iterator<Ch> &rhs) { return m_node == rhs.m_node; } bool operator !=(const node_iterator<Ch> &rhs) { return m_node != rhs.m_node; } private: xml_node<Ch> *m_node; }; //! Iterator of child attributes of xml_node template<class Ch> class attribute_iterator { public: typedef typename xml_attribute<Ch> value_type; typedef typename xml_attribute<Ch> &reference; typedef typename xml_attribute<Ch> *pointer; typedef std::ptrdiff_t difference_type; typedef std::bidirectional_iterator_tag iterator_category; attribute_iterator() : m_attribute(0) { } attribute_iterator(xml_node<Ch> *node) : m_attribute(node->first_attribute()) { } reference operator *() const { assert(m_attribute); return *m_attribute; } pointer operator->() const { assert(m_attribute); return m_attribute; } attribute_iterator& operator++() { assert(m_attribute); m_attribute = m_attribute->next_attribute(); return *this; } attribute_iterator operator++(int) { attribute_iterator tmp = *this; ++this; return tmp; } attribute_iterator& operator--() { assert(m_attribute && m_attribute->previous_attribute()); m_attribute = m_attribute->previous_attribute(); return *this; } attribute_iterator operator--(int) { attribute_iterator tmp = *this; ++this; return tmp; } bool operator ==(const attribute_iterator<Ch> &rhs) { return m_attribute == rhs.m_attribute; } bool operator !=(const attribute_iterator<Ch> &rhs) { return m_attribute != rhs.m_attribute; } private: xml_attribute<Ch> *m_attribute; }; } #endif

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#include "console_command.h" #include <fstream> #include <time.h> #include <stdlib.h> #include <iostream> //lcm static lcmt_servotubeCommand_subscription_t * sub; static lcm_t * lcm; static int commandType = 1; static double commandVal= 0.0; static int final_iter = 0; //end lcm enum operationStateTypes{ executeLCMCommand, recenter, idle, finishAndTerminate}; clock_t lastCommandClock; double allowableCommandWait = .1; static double dt = .001/ServoTube::speedVkhz; static const double omega=4.7385; static double Etilde; //unitless energy error static operationStateTypes parseLCMCommand(int curCommType, double curCommVal, ServoTube* CartPole); static double recenterAccelGen(double x, double xd); static bool nearEnoughToZero(ServoTube* CartPole); ServoTube* CartPole; KvaserCAN* kvaserCANbus; const char *canDevice = "kvaser0"; // Identifies the CAN device, if necessary int main(int argc, char** argv) { lcm = lcm_create ("udpm://"); if (!lcm) return 1; lastCommandClock=clock(); clock_t previousClock; clock_t curClock; clock_t firstClock; HANDLE lcm_watcher_thread; unsigned lcm_watcher_thread_ID; static HANDLE mutex = CreateMutex(NULL, true, "wt_command_mutex"); ReleaseMutex(mutex); lcm_watcher_thread =(HANDLE)_beginthreadex( NULL , 0,&lcm_watcher, lcm, 0, &lcm_watcher_thread_ID); //take user input for menu char userinput; if(argc>1) userinput = argv[1][0]; else { printf("STARTUP MENU \n\n"); printf("Select one of the options below: \n"); printf("[1] Begin operation\n"); printf("Enter command: "); std::cin>>userinput; printf("\n\n"); switch(userinput) { case '1': //normal operation break; default: printf("Command not understood. Turning off.\n\n"); return 0; break; } } //setup can connection kvaserCANbus = new KvaserCAN( canDevice ); CartPole = new ServoTube(kvaserCANbus); //wait till connection established to set initial clocks (curClock will be initialized in loop) firstClock = clock(); previousClock = firstClock; double deltaT=0.0; double measurements[2]; //store encoder measurements to send to state estimator int iter = 0; double finishingWaitTime=3; bool keepRunning = true; operationStateTypes operatingState = executeLCMCommand; double curCommVal = 0.0; int curCommType = 1; lcmt_servotubeState myState; while(keepRunning)//begin control loop { iter++; //get positions from amp CartPole->update(); measurements[0]=CartPole->get_motor_pos(); measurements[1]=CartPole->get_load_enc_pos(); //printf("Pos: %f %f\n",measurements[0],measurements[1]); //set current clock and send measurements curClock = clock(); myState.position = measurements[0]; myState.positionSecondary = measurements[1]; send_message (lcm, &myState); //read in command if not finishing if(operatingState != finishAndTerminate && operatingState != recenter) { if(WaitForSingleObject(mutex, 10000)==WAIT_TIMEOUT) printf("MUTEX TIMEOUT ERROR 4\n"); else { bool gotRecentCommand = (1.0*(curClock-lastCommandClock))/CLOCKS_PER_SEC <= allowableCommandWait; if( !gotRecentCommand && operatingState != idle && iter!= 1) { operatingState = idle; printf("No command received for %f seconds. Idling...\n",allowableCommandWait); } if( ((1.0*(curClock-lastCommandClock))/CLOCKS_PER_SEC < allowableCommandWait) ) operatingState = executeLCMCommand; curCommVal = commandVal; curCommType = commandType; } ReleaseMutex(mutex); } switch(operatingState) { case executeLCMCommand: operatingState = parseLCMCommand(curCommType,curCommVal,CartPole); break; case recenter: if(nearEnoughToZero(CartPole)) { CartPole->set_vel_command(0.0); operatingState = idle; } else CartPole->accelerate(recenterAccelGen(measurements[0], CartPole->get_motor_vel())); break; case idle: if(abs(CartPole->get_motor_vel())<.02) CartPole->set_vel_command(0.0); else CartPole->accelerate(-15*CartPole->get_motor_vel()); break; case finishAndTerminate: if(nearEnoughToZero(CartPole)) { CartPole->set_vel_command(0.0); keepRunning = false; } else CartPole->accelerate(recenterAccelGen(measurements[0], CartPole->get_motor_vel())); break; default: printf("Shouldn't get here!\n"); CartPole->accelerate(recenterAccelGen(measurements[0], CartPole->get_motor_vel())); operatingState = finishAndTerminate; break; } if(iter%500==0) { deltaT=(1.0*(curClock-previousClock))/CLOCKS_PER_SEC; previousClock=curClock; //printf("dt: %f\n\n",deltaT/500.0); } } CartPole->set_vel_command(0.0); //zero velocity on exit return 0; } //////////////////////////// //Helper functions //////////////////////////// static bool nearEnoughToZero(ServoTube* CartPole) { const double posThreshold = .0025; //m const double velThreshold = .025; //m/s return abs(CartPole->get_motor_vel())<velThreshold && abs(CartPole->get_motor_pos())<posThreshold; } static operationStateTypes parseLCMCommand(int curCommType, double curCommVal, ServoTube* CartPole) { switch(curCommType) { case 0: printf("Recentering...\n"); return recenter; break; case 1: CartPole->accelerate(curCommVal); return executeLCMCommand; break; case 2: CartPole->set_vel_command(curCommVal); return executeLCMCommand; break; case -1: printf("Stopping operation on terminate signal...\n"); return finishAndTerminate; break; default: printf("LCM command not understood. Stopping operation...\n"); return finishAndTerminate; break; } } static double recenterAccelGen(double x, double xd) { return -15*x - 15*xd; } //LCM Code unsigned __stdcall lcm_watcher(void *param) { sub = lcmt_servotubeCommand_subscribe (lcm, "wt_command", &my_handler, NULL); while(1) { //printf("Handling\n"); lcm_handle((lcm_t*) param); } _endthreadex(0); return 0; } static void my_handler (const lcm_recv_buf_t *rbuf, const char * channel, const lcmt_servotubeCommand * msg, void* user) { static HANDLE mutex = CreateMutex(NULL, false, "wt_command_mutex"); if(WaitForSingleObject(mutex, 10000)==WAIT_TIMEOUT) { printf("MUTEX TIMEOUT ERROR 3\n"); } else { commandType= msg->commandType; commandVal= msg->commandValue; lastCommandClock = clock(); //printf("comVal: %f\n",commandVal); } ReleaseMutex(mutex); } static void send_message (lcm_t * lcm, lcmt_servotubeState* my_data) { lcmt_servotubeState_publish (lcm, "wt_state", my_data); }

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hpp

// Copyright (C) 2005-2010 Code Synthesis Tools CC // // This program was generated by CodeSynthesis XSD, an XML Schema // to C++ data binding compiler, in the Proprietary License mode. // You should have received a proprietary license from Code Synthesis // Tools CC prior to generating this code. See the license text for // conditions. // #ifndef AOSLCPP_AOSL__RESOURCE_ID_FORWARD_HPP #define AOSLCPP_AOSL__RESOURCE_ID_FORWARD_HPP // Begin prologue. // // // End prologue. #include <xsd/cxx/version.hxx> #if (XSD_INT_VERSION != 3030000L) #error XSD runtime version mismatch #endif #include <xsd/cxx/pre.hxx> #ifndef XSD_USE_CHAR #define XSD_USE_CHAR #endif #ifndef XSD_CXX_TREE_USE_CHAR #define XSD_CXX_TREE_USE_CHAR #endif #include <xsd/cxx/xml/char-utf8.hxx> #include <xsd/cxx/tree/exceptions.hxx> #include <xsd/cxx/tree/elements.hxx> #include <xsd/cxx/tree/types.hxx> #include <xsd/cxx/xml/error-handler.hxx> #include <xsd/cxx/xml/dom/auto-ptr.hxx> #include <xsd/cxx/tree/parsing.hxx> #include <xsd/cxx/tree/parsing/byte.hxx> #include <xsd/cxx/tree/parsing/unsigned-byte.hxx> #include <xsd/cxx/tree/parsing/short.hxx> #include <xsd/cxx/tree/parsing/unsigned-short.hxx> #include <xsd/cxx/tree/parsing/int.hxx> #include <xsd/cxx/tree/parsing/unsigned-int.hxx> #include <xsd/cxx/tree/parsing/long.hxx> #include <xsd/cxx/tree/parsing/unsigned-long.hxx> #include <xsd/cxx/tree/parsing/boolean.hxx> #include <xsd/cxx/tree/parsing/float.hxx> #include <xsd/cxx/tree/parsing/double.hxx> #include <xsd/cxx/tree/parsing/decimal.hxx> #include <xsd/cxx/xml/dom/serialization-header.hxx> #include <xsd/cxx/tree/serialization.hxx> #include <xsd/cxx/tree/serialization/byte.hxx> #include <xsd/cxx/tree/serialization/unsigned-byte.hxx> #include <xsd/cxx/tree/serialization/short.hxx> #include <xsd/cxx/tree/serialization/unsigned-short.hxx> #include <xsd/cxx/tree/serialization/int.hxx> #include <xsd/cxx/tree/serialization/unsigned-int.hxx> #include <xsd/cxx/tree/serialization/long.hxx> #include <xsd/cxx/tree/serialization/unsigned-long.hxx> #include <xsd/cxx/tree/serialization/boolean.hxx> #include <xsd/cxx/tree/serialization/float.hxx> #include <xsd/cxx/tree/serialization/double.hxx> #include <xsd/cxx/tree/serialization/decimal.hxx> #include <xsd/cxx/tree/std-ostream-operators.hxx> /** * @brief C++ namespace for the %http://www.w3.org/2001/XMLSchema * schema namespace. */ namespace xml_schema { // anyType and anySimpleType. // /** * @brief C++ type corresponding to the anyType XML Schema * built-in type. */ typedef ::xsd::cxx::tree::type Type; /** * @brief C++ type corresponding to the anySimpleType XML Schema * built-in type. */ typedef ::xsd::cxx::tree::simple_type< Type > SimpleType; /** * @brief Alias for the anyType type. */ typedef ::xsd::cxx::tree::type Container; // 8-bit // /** * @brief C++ type corresponding to the byte XML Schema * built-in type. */ typedef signed char Byte; /** * @brief C++ type corresponding to the unsignedByte XML Schema * built-in type. */ typedef unsigned char UnsignedByte; // 16-bit // /** * @brief C++ type corresponding to the short XML Schema * built-in type. */ typedef short Short; /** * @brief C++ type corresponding to the unsignedShort XML Schema * built-in type. */ typedef unsigned short UnsignedShort; // 32-bit // /** * @brief C++ type corresponding to the int XML Schema * built-in type. */ typedef int Int; /** * @brief C++ type corresponding to the unsignedInt XML Schema * built-in type. */ typedef unsigned int UnsignedInt; // 64-bit // /** * @brief C++ type corresponding to the long XML Schema * built-in type. */ typedef long long Long; /** * @brief C++ type corresponding to the unsignedLong XML Schema * built-in type. */ typedef unsigned long long UnsignedLong; // Supposed to be arbitrary-length integral types. // /** * @brief C++ type corresponding to the integer XML Schema * built-in type. */ typedef long long Integer; /** * @brief C++ type corresponding to the nonPositiveInteger XML Schema * built-in type. */ typedef long long NonPositiveInteger; /** * @brief C++ type corresponding to the nonNegativeInteger XML Schema * built-in type. */ typedef unsigned long long NonNegativeInteger; /** * @brief C++ type corresponding to the positiveInteger XML Schema * built-in type. */ typedef unsigned long long PositiveInteger; /** * @brief C++ type corresponding to the negativeInteger XML Schema * built-in type. */ typedef long long NegativeInteger; // Boolean. // /** * @brief C++ type corresponding to the boolean XML Schema * built-in type. */ typedef bool Boolean; // Floating-point types. // /** * @brief C++ type corresponding to the float XML Schema * built-in type. */ typedef float Float; /** * @brief C++ type corresponding to the double XML Schema * built-in type. */ typedef double Double; /** * @brief C++ type corresponding to the decimal XML Schema * built-in type. */ typedef double Decimal; // String types. // /** * @brief C++ type corresponding to the string XML Schema * built-in type. */ typedef ::xsd::cxx::tree::string< char, SimpleType > String; /** * @brief C++ type corresponding to the normalizedString XML Schema * built-in type. */ typedef ::xsd::cxx::tree::normalized_string< char, String > NormalizedString; /** * @brief C++ type corresponding to the token XML Schema * built-in type. */ typedef ::xsd::cxx::tree::token< char, NormalizedString > Token; /** * @brief C++ type corresponding to the Name XML Schema * built-in type. */ typedef ::xsd::cxx::tree::name< char, Token > Name; /** * @brief C++ type corresponding to the NMTOKEN XML Schema * built-in type. */ typedef ::xsd::cxx::tree::nmtoken< char, Token > Nmtoken; /** * @brief C++ type corresponding to the NMTOKENS XML Schema * built-in type. */ typedef ::xsd::cxx::tree::nmtokens< char, SimpleType, Nmtoken > Nmtokens; /** * @brief C++ type corresponding to the NCName XML Schema * built-in type. */ typedef ::xsd::cxx::tree::ncname< char, Name > Ncname; /** * @brief C++ type corresponding to the language XML Schema * built-in type. */ typedef ::xsd::cxx::tree::language< char, Token > Language; // ID/IDREF. // /** * @brief C++ type corresponding to the ID XML Schema * built-in type. */ typedef ::xsd::cxx::tree::id< char, Ncname > Id; /** * @brief C++ type corresponding to the IDREF XML Schema * built-in type. */ typedef ::xsd::cxx::tree::idref< char, Ncname, Type > Idref; /** * @brief C++ type corresponding to the IDREFS XML Schema * built-in type. */ typedef ::xsd::cxx::tree::idrefs< char, SimpleType, Idref > Idrefs; // URI. // /** * @brief C++ type corresponding to the anyURI XML Schema * built-in type. */ typedef ::xsd::cxx::tree::uri< char, SimpleType > Uri; // Qualified name. // /** * @brief C++ type corresponding to the QName XML Schema * built-in type. */ typedef ::xsd::cxx::tree::qname< char, SimpleType, Uri, Ncname > Qname; // Binary. // /** * @brief Binary buffer type. */ typedef ::xsd::cxx::tree::buffer< char > Buffer; /** * @brief C++ type corresponding to the base64Binary XML Schema * built-in type. */ typedef ::xsd::cxx::tree::base64_binary< char, SimpleType > Base64Binary; /** * @brief C++ type corresponding to the hexBinary XML Schema * built-in type. */ typedef ::xsd::cxx::tree::hex_binary< char, SimpleType > HexBinary; // Date/time. // /** * @brief Time zone type. */ typedef ::xsd::cxx::tree::time_zone TimeZone; /** * @brief C++ type corresponding to the date XML Schema * built-in type. */ typedef ::xsd::cxx::tree::date< char, SimpleType > Date; /** * @brief C++ type corresponding to the dateTime XML Schema * built-in type. */ typedef ::xsd::cxx::tree::date_time< char, SimpleType > DateTime; /** * @brief C++ type corresponding to the duration XML Schema * built-in type. */ typedef ::xsd::cxx::tree::duration< char, SimpleType > Duration; /** * @brief C++ type corresponding to the gDay XML Schema * built-in type. */ typedef ::xsd::cxx::tree::gday< char, SimpleType > Gday; /** * @brief C++ type corresponding to the gMonth XML Schema * built-in type. */ typedef ::xsd::cxx::tree::gmonth< char, SimpleType > Gmonth; /** * @brief C++ type corresponding to the gMonthDay XML Schema * built-in type. */ typedef ::xsd::cxx::tree::gmonth_day< char, SimpleType > GmonthDay; /** * @brief C++ type corresponding to the gYear XML Schema * built-in type. */ typedef ::xsd::cxx::tree::gyear< char, SimpleType > Gyear; /** * @brief C++ type corresponding to the gYearMonth XML Schema * built-in type. */ typedef ::xsd::cxx::tree::gyear_month< char, SimpleType > GyearMonth; /** * @brief C++ type corresponding to the time XML Schema * built-in type. */ typedef ::xsd::cxx::tree::time< char, SimpleType > Time; // Entity. // /** * @brief C++ type corresponding to the ENTITY XML Schema * built-in type. */ typedef ::xsd::cxx::tree::entity< char, Ncname > Entity; /** * @brief C++ type corresponding to the ENTITIES XML Schema * built-in type. */ typedef ::xsd::cxx::tree::entities< char, SimpleType, Entity > Entities; // Namespace information and list stream. Used in // serialization functions. // /** * @brief Namespace serialization information. */ typedef ::xsd::cxx::xml::dom::namespace_info< char > NamespaceInfo; /** * @brief Namespace serialization information map. */ typedef ::xsd::cxx::xml::dom::namespace_infomap< char > NamespaceInfomap; /** * @brief List serialization stream. */ typedef ::xsd::cxx::tree::list_stream< char > ListStream; /** * @brief Serialization wrapper for the %double type. */ typedef ::xsd::cxx::tree::as_double< Double > AsDouble; /** * @brief Serialization wrapper for the %decimal type. */ typedef ::xsd::cxx::tree::as_decimal< Decimal > AsDecimal; /** * @brief Simple type facet. */ typedef ::xsd::cxx::tree::facet Facet; // Flags and properties. // /** * @brief Parsing and serialization flags. */ typedef ::xsd::cxx::tree::flags Flags; /** * @brief Parsing properties. */ typedef ::xsd::cxx::tree::properties< char > Properties; // Parsing/serialization diagnostics. // /** * @brief Error severity. */ typedef ::xsd::cxx::tree::severity Severity; /** * @brief Error condition. */ typedef ::xsd::cxx::tree::error< char > Error; /** * @brief List of %error conditions. */ typedef ::xsd::cxx::tree::diagnostics< char > Diagnostics; // Exceptions. // /** * @brief Root of the C++/Tree %exception hierarchy. */ typedef ::xsd::cxx::tree::exception< char > Exception; /** * @brief Exception indicating that the size argument exceeds * the capacity argument. */ typedef ::xsd::cxx::tree::bounds< char > Bounds; /** * @brief Exception indicating that a duplicate ID value * was encountered in the object model. */ typedef ::xsd::cxx::tree::duplicate_id< char > DuplicateId; /** * @brief Exception indicating a parsing failure. */ typedef ::xsd::cxx::tree::parsing< char > Parsing; /** * @brief Exception indicating that an expected element * was not encountered. */ typedef ::xsd::cxx::tree::expected_element< char > ExpectedElement; /** * @brief Exception indicating that an unexpected element * was encountered. */ typedef ::xsd::cxx::tree::unexpected_element< char > UnexpectedElement; /** * @brief Exception indicating that an expected attribute * was not encountered. */ typedef ::xsd::cxx::tree::expected_attribute< char > ExpectedAttribute; /** * @brief Exception indicating that an unexpected enumerator * was encountered. */ typedef ::xsd::cxx::tree::unexpected_enumerator< char > UnexpectedEnumerator; /** * @brief Exception indicating that the text content was * expected for an element. */ typedef ::xsd::cxx::tree::expected_text_content< char > ExpectedTextContent; /** * @brief Exception indicating that a prefix-namespace * mapping was not provided. */ typedef ::xsd::cxx::tree::no_prefix_mapping< char > NoPrefixMapping; /** * @brief Exception indicating that the type information * is not available for a type. */ typedef ::xsd::cxx::tree::no_type_info< char > NoTypeInfo; /** * @brief Exception indicating that the types are not * related by inheritance. */ typedef ::xsd::cxx::tree::not_derived< char > NotDerived; /** * @brief Exception indicating a serialization failure. */ typedef ::xsd::cxx::tree::serialization< char > Serialization; /** * @brief Error handler callback interface. */ typedef ::xsd::cxx::xml::error_handler< char > ErrorHandler; /** * @brief DOM interaction. */ namespace dom { /** * @brief Automatic pointer for DOMDocument. */ using ::xsd::cxx::xml::dom::auto_ptr; #ifndef XSD_CXX_TREE_TREE_NODE_KEY__XML_SCHEMA #define XSD_CXX_TREE_TREE_NODE_KEY__XML_SCHEMA /** * @brief DOM user data key for back pointers to tree nodes. */ const XMLCh* const tree_node_key = ::xsd::cxx::tree::user_data_keys::node; #endif } } #include "aosl/unique_id_forward.hpp" // Forward declarations. // namespace aosl { class Resource_id; } #include <xsd/cxx/post.hxx> // Begin epilogue. // // // End epilogue. #endif // AOSLCPP_AOSL__RESOURCE_ID_FORWARD_HPP

1551c8d0d38ce669edf5c3f9277c047a9d4c11af

1b974521c0a29f5e8935bee1fc8730c283682902

/simulator2.cpp

27c6c90e5876572c4f1f395ba7087bbded59c0da

no_license

deepankgupta/ai-challenge

37702052238f44b8d9be77750ca0e5eb48341a78

3b6167f67ce4b7a3d065923e32da56395b1687d1

refs/heads/master

UTF-8

C++

cpp

#include<stdio.h> #include<math.h> #include<stdlib.h> #include<string.h> #include"common.h" #include"team0078.cpp" #include"team0093.cpp" #include"team0072.cpp" #include"team0055.cpp" #include"team0038.cpp" #include"team0036.cpp" #include"team0048.cpp" #include"team0031.cpp" using namespace std; class stimulator { private: int chance,l1,u1,l2,u2,pts1,pts2,goal1,goal2; //l1,u1 denotes the lower and upper limits of the player's of the team having //the turn to hit the ball while l2,u2 denotes for the opponent's team char falocal[101][51]; //an array defined only for stimulator class of the type of the field struct player local[23],printable[23];//printable keeps a track of the players' and ball statistics before the move was made //local keeps a track of the players' and ball statistics after the move is made int preq(int finalx,int finaly, int initialx ,int initialy ) //fn to find the str req by player to move { float req; //similar to preqp in class team req=floor(sqrt(pow((finalx-initialx),2)+pow((finaly-initialy),2))); return (int)req; } int preqb(int finalx,int finaly, int initialx ,int initialy ) // fn to find the str req by hitter to move the ball from { float req; //one pos to another req=2*(floor(sqrt(pow((finalx-initialx),2)+pow((finaly-initialy),2)))); //similar to preqpb in class team return (int)req; } public: //public functions of stimulator class void initialize() //function called by main to initialize the private variables of stimulator class to 0 { goal1=0;goal2=0;pts1=0;pts2=0; } void controller() { int i,j,k,move,phitter,ball,players,sum_pstr_1=0,sum_pstr_2=0; char check; team0093 p1; //defining objects of the class teamxxxx and team0002 where xxxx is your registration no. and team0002 is the team0048 p2; //test player given by us for(i=0;i<=22;i++) { local[i]=global[i]; printable[i]=global[i]; } //copying player struct array as initialised in main to the local and printable arrays for(i=0;i<=100;i++) for(j=0;j<=50;j++) falocal[i][j]=fieldarray[i][j]; //copying field array to local field array as initialised in main p1.init(1,global,fieldarray); //calling the init functions of both the teams to send them their team no. and passing them p2.init(2,global,fieldarray); //the initial field distribution and the basic field array chance=0; //value of chance is randomly selected for(move=1;move<=500;move++) /*loop to take care of the no of turns*/ { printf("\nmove=%d\n",move); //set the parameters and calling player's function according to the value of chance (toss) if(chance==0) { phitter=p1.player(global); chance=1; l1=1; u1=11; l2=12; u2=22; } else { phitter=p2.player(global); chance=0; l1=12; u1=22; l2=1; u2=11; } //calling functions in stimulator class playerpos(phitter); ballpos(phitter); for(i=0;i<=22;i++) { global[i]=local[i]; }//copying player struct array for(i=0;i<=100;i++) for(j=0;j<=50;j++) fieldarray[i][j]=falocal[i][j]; //copying field array to local field array //statements to print the output array after every move for(i=0;i<=100;i++) { printf("\n"); for(j=0;j<=50;j++) { ball=0; //to find whether any player or ball is present at falocal[i][j] players=0; if((global[0].x==i)&&(global[0].y==j)) //to check whether the ball's coordinates matches with the value of i and j ball++; //to check whether any player's coordinates matches with the value of i and j for(k=1;k<=22;k++) { if((global[k].x==i)&&(global[k].y==j))players++; } if((fieldarray[i][j]=='B')||(fieldarray[i][j]=='g')||(fieldarray[i][j]=='G')) printf("%c",fieldarray[i][j]); else if((ball==0)&&(players==0)) //if no player or ball is present at global[i][j] { if((fieldarray[i][j]=='d')||(fieldarray[i][j]=='D')) printf("%c",fieldarray[i][j]); else printf("f"); //if the global[i][j] is not inside dee region and is a simple region } else //if ball or player is present at global[i][j] { if(ball==1) printf("0"); else if(players<=9) printf("%d",players); else printf("e"); }//end of else }//end of 2nd for loop }//end of 1st for loop //to tell the significance of symbols used in array representation printf("\n\ng signifies the 1st player's goal\nG signifies 2nd player's goal\nd signifies 1st player's dee\nD signifies 2nd player's goal\n"); printf("\n1 signifies presence of 1 player at the spot ,2 signifies presence of 2 players at that spot and so on....\n"); printf("e signifies that more than 9 players are present at that spot\n"); printf("0 signifies that the ball is present at that spot.The no. of players is not shown in this case.\n\nB signifies boundary\n\nf signifies a normal field region\n\n"); //to print the positions of the ball and players if(chance==1) printf("\n\nteam1 turn , hitter of ball=%d",phitter); else printf("\n\nteam2 turn , hitter of ball=%d",phitter); printf("\n\n"); printf("ball-\n"); //printing ball's statistics printf("init posx=%d init posy=%d finalposx=%d finalposy=%d\n\n",printable[0].x,printable[0].y,local[0].x,local[0].y); printf("team1-\n"); //printing statistics of team 1 players printf("player initx inity finalx finaly initstr finalstr\n"); for(i=1;i<=11;i++) printf("%6d %5d %5d %6d %6d %7d %8d\n",i,printable[i].x,printable[i].y,local[i].x,local[i].y,printable[i].strength,local[i].strength); printf("\nteam2-\n"); //printing statistics of team 2 players printf("player initx inity finalx finaly initstr finalstr\n"); for(i=12;i<=22;i++) printf("%6d %5d %5d %6d %6d %7d %8d\n",i,printable[i].x,printable[i].y,local[i].x,local[i].y,printable[i].strength,local[i].strength); printf("SCORE--\n"); printf("team1 goal=%d\nteam1 pts=%d\n team2 goal=%d\n team2 pts=%d\n",goal1,pts1,goal2,pts2); //to directly view the final result of the game remove this portion printf("press enter to continue\npress N or n to exit the program "); fflush(stdin); /*if(check=='N'||check=='n') exit(1);*/ for(i=0;i<=22;i++) printable[i]=local[i];//to update the printable array }/*to end the move loop*/ printf("\nGAME FINISHED\nFINAL SCORES--\n"); printf("team1 goal=%d\nteam1 pts=%d\n team2 goal=%d\n team2 pts=%d\n",goal1,pts1,goal2,pts2);//to print the no of goals //to print the winner of the game if(pts1>pts2) printf("\n\nTEAM 1 WINS THE MATCH\n\n"); else if(pts1<pts2) printf("\n\nTEAM 2 WINS THE MATCH\n\n"); else { printf("\n\nBoth team have equal points. Game will be decided on the basis of the sum of the strengths of each team's players'\n\n"); sum_pstr_1=0;sum_pstr_2=0; for(i=1;i<=11;i++) { sum_pstr_1+=local[i].strength; sum_pstr_2+=local[i+11].strength; }//loop to sum left over strengths of each team players printf("\nleft over strength of team1=%d\nleft over strength of team2=%d\n",sum_pstr_1,sum_pstr_2); if(sum_pstr_1>sum_pstr_2) printf("\n\nleft over strength of 1st team players' is more than 2nd team and hence 1st TEAM IS THE WINNER\n\n"); else if(sum_pstr_1<sum_pstr_2) printf("\n\nleft over strength of 1st team players' is less than 2nd team and hence 2nd TEAM IS THE WINNER\n\n"); else printf("\n\nleft over strength of both teams is equal and hence THE GAME IS A DRAW\n\n"); }//end of else }//end of fn controller //this function checks whether the changes made by the teams in the position of their players' in the array global are //valid or not and if they are then changes are updated in the local array and strength is decreased accordingly of the //players void playerpos(int phitter) { int k,xdiff,ydiff,powerreq; for(k=l1;k<=u1;k++) //to compare each player's global pos with the one inside local { xdiff=(global[k].x)-(local[k].x); //xdiff and ydiff finds the difference between the player's initial and final ydiff=(global[k].y)-(local[k].y); //coordinates if(((xdiff==0)&&(ydiff==0))||(global[k].strength==0)) { if(local[k].strength<=30) local[k].strength=local[k].strength+20; else if ((local[k].strength>30)&&(local[k].strength<50)) local[k].strength=50; }/*end of if loop in case player has not moved*/ else /*else when the player has moved*/ { powerreq=preq(global[k].x,global[k].y,local[k].x,local[k].y); //if case to check whether the coordinates of player changed by the participant are legal or not if((global[k].x<=100)&&(global[k].x>=0)&&(global[k].y<=50)&&(global[k].y>=0)&&(falocal[global[k].x][global[k].y]!='g')&&(falocal[global[k].x][global[k].y]!='G')&&(falocal[global[k].x][global[k].y]!='B')) { from_else_of_boundary:/*label for goto*/ if(local[k].strength>=powerreq) { local[k].x=global[k].x; local[k].y=global[k].y; local[k].strength=local[k].strength-powerreq; } //if player strength is more than or sufficient than req to move else //if power req is not sufficient { while(powerreq>local[k].strength) { if(local[k].x!=global[k].x) { (xdiff>0)?(global[k].x)--:(global[k].x)++; } if(local[k].y!=global[k].y) { (ydiff>0)?(global[k].y)--:(global[k].y)++; } powerreq=preq(global[k].x,global[k].y,local[k].x,local[k].y); }//end of while loop local[k].x=global[k].x; local[k].y=global[k].y; local[k].strength=local[k].strength-powerreq; } //end of else when power req is not sufficient } //to end the if case when the final coordinates of player are not in boundary or goal or out of field array else //when the final coordinates of player are illegal { while((global[k].x>100)||(global[k].x<0)||(global[k].y>50)||(global[k].y<0)||(falocal[global[k].x][global[k].y]=='g')||(falocal[global[k].x][global[k].y]=='G')||(falocal[global[k].x][global[k].y]=='B')) //to end else when finla cooordinates r illegal { if(local[k].x!=global[k].x) (xdiff>0)?(global[k].x)--:(global[k].x)++; if(local[k].y!=global[k].y) (ydiff>0)?(global[k].y)--:(global[k].y)++; } //end of while powerreq=preq(global[k].x,global[k].y,local[k].x,local[k].y); goto from_else_of_boundary; //to check whether player has the power to reach the valid pos } } //to end the else when the final coordinates of player are illegal } //to end the else loop of whether player has moved } //to end checking all players of the team } //to end playerpos fn //this function changes the position of the ball according to the changes made by the user in the position of the ball in the //global array and checks whether the ball is interrupted in between or reaches goal ,dee or boundary and accordingly changes the //points of both the teams and changes the strength of the hitter of the ball void ballpos(int phitter) { int patspot,patspotstr,xdiffb;int ydiffb,validposx,validposy,found,powerreqb,i,j,a,p,ball,players,k; char status,dee,goal; //if the hitter as returned by the player function has 0 strength or is an illegal no. if((phitter<1)||(phitter>22)||(local[phitter].strength==0)) return; if((chance==1)&&(phitter>11)||(chance==0)&&(phitter<12)) return; if(((local[phitter].x!=local[0].x)||(local[phitter].y!=local[0].y))&&((printable[phitter].x!=local[0].x)||(printable[phitter].y!=local[0].y))) return; //to return in case phitter final coordinates and initial coordinates of ball or phitter's initial coordinates and //final coordinates of the ball don't meet patspot=-1;patspotstr=0; for(a=l2;a<=u2;a++) { if((local[a].x==local[0].x)&&(local[a].y==local[0].y)) { if(local[a].strength>patspotstr) { patspot=a; patspotstr=local[a].strength; } } }/*for loop to check whether any of opponent's player is present at the ball's pos and to calculate max strength in case the no */ /*is more than 1*/ if((patspot==-1)||(patspotstr<=local[phitter].strength))//to check whether phitter's strength is more than maximum //opponent's strength or he the only one with the ball { //strength of hitter of ball decreases by an amt equal to opponent's strength while taking the possession of the ball //and the opposition's player's strength having the possession of the ball becomes 0 local[phitter].strength-=patspotstr ; local[patspot].strength=0; status='f'; //tells the region in which the ball is present after every step //'f' when the ball is in the normal region ,'d' or 'D' when the ball is in the dee of either of the teams, 'g' or 'G' //when the ball is in the goal of any of the teams , 'B' when ball reaches the boundary, ''i if the ball is //interrupted by any of the player and 'r' if the ball reaches the desired position as changed by the participant xdiffb=global[0].x-local[0].x; //calculates the difference between changed coordinates and initial coordinates of the ydiffb=global[0].y-local[0].y; //ball validposx=local[0].x; //validposx and validposy keeps a track of the step by step movement of the ball from its validposy=local[0].y; //initial position to the desired position while((status=='f')||(status=='D')||(status=='d')) { if(validposx!=global[0].x) (xdiffb>0)?(validposx)++:(validposx)--; if(validposy!=global[0].y) (ydiffb>0)?(validposy)++:(validposy)--; for(i=1;i<=22;i++) { if((validposx==local[i].x)&&(validposy==local[i].y)) { status='i'; break; } } //loop to check whether any of the player intersect the ball if(status=='i') break; if(falocal[validposx][validposy]!=0) { status=falocal[validposx][validposy]; } //to give status=d or D or g or G according to the position of the ball in field array if((status=='B')||(status=='G')||(status=='g')||(status=='i')) break; if((validposx==global[0].x)&&(validposy==global[0].y)) //when ball reaches its desired position { status='r'; break; } }//end of while loop which operates until ball is interrupted or reaches its desired pos or enters goal or boundary chance==1?(dee='D'):(dee='d'); //sets the varibles dee and goal according to the player's turn chance==1?(goal='G'):(goal='g'); /*switch case is applied to check whether ball is interupted or reached its destination or got into goal or crossed the boundary*/ switch(status) { //when ball reaches the desired position case 'r': powerreqb=preqb(global[0].x,global[0].y,local[0].x,local[0].y); validposx=global[0].x; validposy=global[0].y; //while loop to find the valid pos when hitter has enough power to make the ball reach there while(powerreqb>local[phitter].strength) { if(validposx!=local[0].x) (xdiffb>0)?(validposx)--:(validposx)++; if(validposy!=local[0].y) (ydiffb>0)?(validposy)--:(validposy)++; powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); }//end of while loop if((falocal[validposx][validposy]==dee)&&(falocal[local[0].x][local[0].y]!=dee)) { (chance==1)?(pts1++):(pts2++); } //increases pts if ball lands in the dee and was not in the dee earlier local[0].x=validposx; local[0].y=validposy; (local[phitter].strength)-=powerreqb; //update the array accordingly break; //when the ball is interrupted by any of the player case 'i': powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); //while loop to find the valid pos when hitter has enough power to make the ball reach there while(powerreqb>local[phitter].strength) { if(validposx!=local[0].x) (xdiffb>0)?(validposx)--:(validposx)++; if(validposy!=local[0].y) (ydiffb>0)?(validposy)--:(validposy)++; powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); }//end of while loop //inc pts if ball lands in the dee and was not in the dee earlier) if((falocal[validposx][validposy]==dee)&&(falocal[local[0].x][local[0].y]!=dee)) chance==1?pts1++:pts2++; //strength is dec on the basis of coordinates given by user irrespective of where the ball stops powerreqb=preqb(global[0].x,global[0].y,local[0].x,local[0].y); local[0].x=validposx; local[0].y=validposy; if(powerreqb>=local[phitter].strength) local[phitter].strength=0; else (local[phitter].strength)-=powerreqb; break; case 'G': powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); //while loop to find the valid pos when hitter has enough power to make the ball reach there while(powerreqb>local[phitter].strength) { if(validposx!=local[0].x) (xdiffb>0)?(validposx)--:(validposx)++; if(validposy!=local[0].y) (ydiffb>0)?(validposy)--:(validposy)++; powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); }//end of while loop //if the ball is not in the goal now if(falocal[validposx][validposy]!='G') { if(falocal[validposx][validposy]=='D') //if the ball is still inside the opponent's dee { //if the ball was initially not in the opponent's dee ,so points of the team are increased if(chance==1&&falocal[local[0].x][local[0].y]!='D') pts1++; } local[0].x=validposx; local[0].y=validposy; }//end of if case when the ball is not in the goal now //if the ball is still in the goal else { //to print the status of the field when the ball reaches the goal //printed in the same way as printed earlier printf("\n\nHURRAY 1ST TEAM MADE A GOAL\nfigure shows the position of ball at the time of goal\n to view detailed result of the move and final position of ball press any key\n\n"); for(i=0;i<=100;i++) { printf("\n"); for(j=0;j<=50;j++) { ball=0; players=0; if((validposx==i)&&(validposy==j)) ball++; for(k=1;k<=22;k++) { if((global[k].x==i)&&(global[k].y==j))players++; } if(ball==1) printf("0"); else if((fieldarray[i][j]=='B')||(fieldarray[i][j]=='g')||(fieldarray[i][j]=='G')) printf("%c",fieldarray[i][j]); else if((ball==0)&&(players==0)) { if((fieldarray[i][j]=='d')||(fieldarray[i][j]=='D')) printf("%c",fieldarray[i][j]); else printf("f"); } else { if(players<=9) printf("%d",players); else printf("e"); }//end of else }//end of 2nd for loop }//end of 1st for loop goal1++; pts1+=10; found=0; /*found is to break the loop when a correct place is found to place the ball once goal happens*/ for(i=25;(found==0)&&(i<51);i++) { for(j=1;j<=11;j++) { if((local[j].x==50)&&(local[j].y==i)) break; } //end of for if(j==12) { local[0].x=50; local[0].y=i; found++; } //end of if } //end of for } //end of else when the ball was still in the goal //strength is dec on the basis of coordinates given by user irrespective of where the ball stops powerreqb=preqb(global[0].x,global[0].y,local[0].x,local[0].y); if(powerreqb>=local[phitter].strength) local[phitter].strength=0; else (local[phitter].strength)-=powerreqb; break; case 'g': //designed in a way almost similar to case 'G' powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); //while loop to find the valid pos when hitter has enough power to make the ball reach there while(powerreqb>local[phitter].strength) { if(validposx!=local[0].x) (xdiffb>0)?(validposx)--:(validposx)++; if(validposy!=local[0].y) (ydiffb>0)?(validposy)--:(validposy)++; powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); }//end of while loop if(falocal[validposx][validposy]!='g') { if(falocal[validposx][validposy]=='d') { if(chance==0&&falocal[local[0].x][local[0].y]!='d') pts2++; } local[0].x=validposx; local[0].y=validposy; }//end of if case when the ball is not in the goal now //if the ball is still in the goal else { //to print the status of the field when the ball reaches the goal //printed in the same way as printed earlier printf("\n\nHURRAY 2nd TEAM MADE A GOAL\nfigure shows the position of ball at the time of goal\n to view detailed result of the move and final position of ball press any key\n\n"); for(i=0;i<=100;i++) { printf("\n"); for(j=0;j<=50;j++) { ball=0; players=0; if((validposx==i)&&(validposy==j)) ball++; for(k=1;k<=22;k++) { if((global[k].x==i)&&(global[k].y==j)) players++; } if(ball==1) printf("0"); else if((fieldarray[i][j]=='B')||(fieldarray[i][j]=='g')||(fieldarray[i][j]=='G')) printf("%c",fieldarray[i][j]); else if((ball==0)&&(players==0)) { if((fieldarray[i][j]=='d')||(fieldarray[i][j]=='D')) printf("%c",fieldarray[i][j]); else printf("f"); } //end of if else else { if(players<=9) printf("%d",players); else printf("e"); }//end of else }//end of 2nd for loop }//end of 1st for loop goal2++; pts2+=10; found=0;/*found is to break the loop when a correct place is found to place the ball once goal happens*/ for(i=25;found==0&&i<51;i++) { for(j=12;j<=22;j++) { if((local[j].x==50)&&(local[j].y==i)) break; }//end of for if(j==23) { local[0].x=50; local[0].y=i; found++; }//end of if }//end of for }//end of else //strength is dec on the basis of coordinates given by user irrespective of where the ball stops powerreqb=preqb(global[0].x,global[0].y,local[0].x,local[0].y); if(powerreqb>=local[phitter].strength) local[phitter].strength=0; else (local[phitter].strength)-=powerreqb; break; case 'B': powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); //to decrement pts in case a team hits the ball in boundary if(powerreqb<=local[phitter].strength) { chance==1?pts1--:pts2--; } //do while loop to find the valid pos when hitter has enough power to make the ball reach there do { if(validposx!=local[0].x) (xdiffb>0)?(validposx)--:(validposx)++; if(validposy!=local[0].y) (ydiffb>0)?(validposy)--:(validposy)++; powerreqb=preqb(validposx,validposy,local[0].x,local[0].y); }while(powerreqb>local[phitter].strength); //strength is dec on the basis of coordinates given by user irrespective of where the ball stops powerreqb=preqb(global[0].x,global[0].y,local[0].x,local[0].y); if(powerreqb>=local[phitter].strength) local[phitter].strength=0; else (local[phitter].strength)-=powerreqb; local[0].x=validposx; //to update the array accordingly local[0].y=validposy; break; };//end of switch case } //to end the if to check whether phitter's strength is more than opponent's strength } //end of ballpos fn }; //end of stimulator class int main() { int i,j; stimulator c1; c1.initialize(); //initializing the variables goal1,goal2,pts1,pts2 to 0 //to set boundary for(i=0;i<=100;i++) { fieldarray[i][0]='B'; fieldarray[i][50]='B'; if(i<=50) { fieldarray[0][i]='B'; fieldarray[100][i]='B'; }//end of if }//end of for loop //to set the dee for(i=5;i<=45;i++) { for(j=0;j<=40;j++) fieldarray[j][i]='d'; for(j=60;j<=100;j++) fieldarray[j][i]='D'; } //end of for loop //to set the goal for(i=10;i<=40;i++) { for(j=0;j<=14;j++) fieldarray[j][i]='g'; for(j=86;j<=100;j++) fieldarray[j][i]='G'; } //end of for loop //to set the initial strength of the players for(i=1;i<=22;i++) global[i].strength=50; //set strength of ball to 0 global[0].strength=0; // to set the team name for(i=1;i<=11;i++) global[i].team=1; //1 for 1st team for(i=12;i<=22;i++) global[i].team=2; //2 for 2nd team global[0].team=0; //0 for ball //to set player pos global[1].x=15;global[1].y=25; global[2].x=25;global[2].y=10; global[3].x=25;global[3].y=25; global[4].x=25;global[4].y=40; global[5].x=30;global[5].y=10; global[6].x=30;global[6].y=25; global[7].x=30;global[7].y=40; global[8].x=40;global[8].y=10; global[9].x=40;global[9].y=25; global[10].x=40;global[10].y=40; global[11].x=49;global[11].y=25; global[12].x=85;global[12].y=25; global[13].x=75;global[13].y=10; global[14].x=75;global[14].y=25; global[15].x=75;global[15].y=40; global[16].x=70;global[16].y=10; global[17].x=70;global[17].y=25; global[18].x=70;global[18].y=40; global[19].x=60;global[19].y=10; global[20].x=60;global[20].y=25; global[21].x=60;global[21].y=40; global[22].x=51;global[22].y=25; global[0].x=50;global[0].y=25; //to set ball's pos c1.controller(); //calling the function // getch(); //to hold the screen } //end of main function

ae16b81352ad088bba3bd0dc4a43d2c0f8edf28a

e68cf672cdb98181db47dab9fb8c45e69b91e256

/include/StaticStructuredBuffer.h

6a583054fc1c04f21d6bb5a4e98c3e39450e2bdf

no_license

jiawen/QD3D11

09fc794f580db59bfc2faffbe3373a442180e0a5

c1411967bd2da8d012eddf640eeb5f7b86e66374

refs/heads/master

UTF-8

C++

h

#ifndef STATIC_STRUCTURED_BUFFER_H #define STATIC_STRUCTURED_BUFFER_H #include <D3D11.h> class StaticStructuredBuffer { public: static StaticStructuredBuffer* create( ID3D11Device* pDevice, int nElements, int elementSizeBytes ); virtual ~StaticStructuredBuffer(); int numElements() const; int elementSizeBytes() const; int sizeInBytes() const; ID3D11Buffer* buffer() const; ID3D11ShaderResourceView* shaderResourceView() const; ID3D11UnorderedAccessView* unorderedAccessView() const; private: StaticStructuredBuffer( ID3D11Device* pDevice, int nElements, int elementSizeBytes, ID3D11Buffer* pBuffer ); int m_nElements; int m_elementSizeBytes; ID3D11Buffer* m_pBuffer; ID3D11ShaderResourceView* m_pSRV; ID3D11UnorderedAccessView* m_pUAV; }; #endif // STATIC_STRUCTURED_BUFFER_H

548821fd8d4588d4fb71ee98e689aaa9d9827840

df238aa31eb8c74e2c208188109813272472beec

/BCGInclude/ToolbarNameDlg.h

ab023b6186a0b4cc0a3159b771ff4967ca053230

no_license

myme5261314/plugin-system

d3166f36972c73f74768faae00ac9b6e0d58d862

be490acba46c7f0d561adc373acd840201c0570c

refs/heads/master

UTF-8

C++

h

//******************************************************************************* // COPYRIGHT NOTES // --------------- // This is a part of the BCGControlBar Library // Copyright (C) 1998-2008 BCGSoft Ltd. // All rights reserved. // // This source code can be used, distributed or modified // only under terms and conditions // of the accompanying license agreement. //******************************************************************************* #if !defined(AFX_TOOLBARNAMEDLG_H__E52278EA_EB02_11D1_90D8_00A0C9B05590__INCLUDED_) #define AFX_TOOLBARNAMEDLG_H__E52278EA_EB02_11D1_90D8_00A0C9B05590__INCLUDED_ #if _MSC_VER >= 1000 #pragma once #endif // _MSC_VER >= 1000 // ToolbarNameDlg.h : header file // #include "BCGCBPro.h" #include "bcgprores.h" ///////////////////////////////////////////////////////////////////////////// // CToolbarNameDlg dialog class CToolbarNameDlg : public CDialog { // Construction public: CToolbarNameDlg(CWnd* pParent = NULL); // standard constructor // Dialog Data //{{AFX_DATA(CToolbarNameDlg) enum { IDD = IDD_BCGBARRES_TOOLBAR_NAME }; CButton m_btnOk; CString m_strToolbarName; //}}AFX_DATA // Overrides // ClassWizard generated virtual function overrides //{{AFX_VIRTUAL(CToolbarNameDlg) protected: virtual void DoDataExchange(CDataExchange* pDX); // DDX/DDV support //}}AFX_VIRTUAL // Implementation protected: // Generated message map functions //{{AFX_MSG(CToolbarNameDlg) afx_msg void OnUpdateToolbarName(); virtual BOOL OnInitDialog(); //}}AFX_MSG DECLARE_MESSAGE_MAP() }; //{{AFX_INSERT_LOCATION}} // Microsoft Developer Studio will insert additional declarations immediately before the previous line. #endif // !defined(AFX_TOOLBARNAMEDLG_H__E52278EA_EB02_11D1_90D8_00A0C9B05590__INCLUDED_)

877ae75ae74688e116a263aa450083a272c43316

d7b345a8a6b0473c325fab661342de295c33b9c8

/beta/src/Polarizer3/BrowserSettingVisitor.h

818b034db3fd3dda6e0ab0766bc6958615508968

no_license

raould/Polaris-Open-Source

67ccd647bf40de51a3dae903ab70e8c271f3f448

10d0ca7e2db9e082e1d2ed2e43fa46875f1b07b2

refs/heads/master

UTF-8

C++

h

// Copyright 2010 Hewlett-Packard under the terms of the MIT X license // found at http://www.opensource.org/licenses/mit-license.html #pragma once #include "petsvisitor.h" class BrowserSettingVisitor : public PetsVisitor { public: BrowserSettingVisitor(void); virtual ~BrowserSettingVisitor(void); virtual void visit(RegKey pet); };

f7e38595c89e25dc31c932c122d7d24bf2096604

dde32744a06bb6697823975956a757bd6c666e87

/bwapi/SCProjects/BTHAIModule/Source/EvolutionChamberAgent.cpp

182b2d7d8b97265e8c81dfb152237136501e58c5

no_license

zarac/tgspu-bthai

30070aa8f72585354ab9724298b17eb6df4810af

1c7e06ca02e8b606e7164e74d010df66162c532f

refs/heads/master

UTF-8

C++

cpp

#include "EvolutionChamberAgent.h" #include "WorkerAgent.h" #include "AgentManager.h" #include "ZergCommander.h" EvolutionChamberAgent::EvolutionChamberAgent(Unit* mUnit) { unit = mUnit; unitID = unit->getID(); Broodwar->printf("EvolutionChamberAgent created (%s)", unit->getType().getName().c_str()); } void EvolutionChamberAgent::computeActions() { if (canUpgrade(UpgradeTypes::Zerg_Melee_Attacks)) { unit->upgrade(UpgradeTypes::Zerg_Melee_Attacks); //return; } int level = ((ZergCommander*)Commander::getInstance())->getLevel(); if (level >= 5) { if (canUpgrade(UpgradeTypes::Zerg_Carapace)) unit->upgrade(UpgradeTypes::Zerg_Carapace); if (canUpgrade(UpgradeTypes::Zerg_Missile_Attacks)) unit->upgrade(UpgradeTypes::Zerg_Missile_Attacks); } } string EvolutionChamberAgent::getTypeName() { return "EvolutionChamberAgent"; }

6d6b105cf67e2273015674f85f464339bb35c8e5

1775576281b8c24b5ce36b8685bc2c6919b35770

/trunk/stype_select.cpp

7dc29104cc699adec206de2f4fbd25241499665f

no_license

BackupTheBerlios/gtkslade-svn

933a1268545eaa62087f387c057548e03497b412

03890e3ba1735efbcccaf7ea7609d393670699c1

refs/heads/master

UTF-8

C++

cpp

#include "main.h" #include "map.h" int current_stype = 0; int stype_damage = 0; bool stype_flags[3]; extern GtkWidget *editor_window; extern Map map; void stype_tree_view_changed(GtkTreeView *view, gpointer data) { GtkTreeIter iter; GtkTreeSelection *selection = gtk_tree_view_get_selection(GTK_TREE_VIEW(view)); GtkTreeModel *model = gtk_tree_view_get_model(view); if (gtk_tree_selection_get_selected(selection, &model, &iter)) { int index; gtk_tree_model_get(model, &iter, 1, &index, -1); if (index >= 0) current_stype = index; } } void stype_damage_combo_changed(GtkWidget *widget, gpointer data) { int index = gtk_combo_box_get_active(GTK_COMBO_BOX(widget)); int val = index * 32; if (map.hexen) val = val * 8; stype_damage = val; } void stype_flag_changed(GtkWidget *widget, gpointer data) { int flag = (int)data; stype_flags[flag] = gtk_toggle_button_get_active(GTK_TOGGLE_BUTTON(widget)); } GtkWidget* setup_stype_select(int type) { GtkCellRenderer *renderer; GtkTreeViewColumn *col; GtkWidget *main_vbox = gtk_vbox_new(false, 0); // Type frame GtkWidget *frame = gtk_frame_new("Type"); gtk_container_set_border_width(GTK_CONTAINER(frame), 4); gtk_box_pack_start(GTK_BOX(main_vbox), frame, true, true, 0); // Setup tree model GtkListStore *list_store = gtk_list_store_new(2, G_TYPE_STRING, G_TYPE_INT); populate_list_store_stypes(list_store); // Setup scrolled window GtkWidget *s_window = gtk_scrolled_window_new(NULL, NULL); gtk_scrolled_window_set_policy(GTK_SCROLLED_WINDOW(s_window), GTK_POLICY_NEVER, GTK_POLICY_AUTOMATIC); gtk_container_set_border_width(GTK_CONTAINER(s_window), 4); gtk_container_add(GTK_CONTAINER(frame), s_window); // Setup tree view GtkWidget *tree_view = gtk_tree_view_new_with_model(GTK_TREE_MODEL(list_store)); renderer = gtk_cell_renderer_text_new(); col = gtk_tree_view_column_new_with_attributes("Type", renderer, "text", 0, NULL); gtk_tree_view_append_column(GTK_TREE_VIEW(tree_view), col); gtk_tree_view_set_headers_visible(GTK_TREE_VIEW(tree_view), false); g_signal_connect(G_OBJECT(tree_view), "cursor-changed", G_CALLBACK(stype_tree_view_changed), NULL); gtk_container_add(GTK_CONTAINER(s_window), tree_view); // Generic flags if (map.boom) { // Damage frame frame = gtk_frame_new("Damage"); gtk_container_set_border_width(GTK_CONTAINER(frame), 4); gtk_box_pack_start(GTK_BOX(main_vbox), frame, false, false, 0); GtkWidget *vbox = gtk_vbox_new(false, 0); gtk_container_set_border_width(GTK_CONTAINER(vbox), 4); gtk_container_add(GTK_CONTAINER(frame), vbox); GtkWidget *combo = gtk_combo_box_new_text(); gtk_combo_box_append_text(GTK_COMBO_BOX(combo), "None"); gtk_combo_box_append_text(GTK_COMBO_BOX(combo), "5 Health/Second"); gtk_combo_box_append_text(GTK_COMBO_BOX(combo), "10 Health/Second"); gtk_combo_box_append_text(GTK_COMBO_BOX(combo), "20 Health/Second"); g_signal_connect(G_OBJECT(combo), "changed", G_CALLBACK(stype_damage_combo_changed), NULL); gtk_box_pack_start(GTK_BOX(vbox), combo, true, true, 0); int mult = 0; if (map.hexen) mult = 8; gtk_combo_box_set_active(GTK_COMBO_BOX(combo), 0); if (type & (32 * mult) && type & (64 * mult)) gtk_combo_box_set_active(GTK_COMBO_BOX(combo), 3); else if (type & (32 * mult)) gtk_combo_box_set_active(GTK_COMBO_BOX(combo), 1); else if (type & (64 * mult)) gtk_combo_box_set_active(GTK_COMBO_BOX(combo), 2); // Flags frame frame = gtk_frame_new("Flags"); gtk_container_set_border_width(GTK_CONTAINER(frame), 4); gtk_box_pack_start(GTK_BOX(main_vbox), frame, false, false, 0); vbox = gtk_vbox_new(false, 0); gtk_container_set_border_width(GTK_CONTAINER(vbox), 4); gtk_container_add(GTK_CONTAINER(frame), vbox); GtkWidget *cbox = gtk_check_button_new_with_label("Secret Area"); g_signal_connect(G_OBJECT(cbox), "toggled", G_CALLBACK(stype_flag_changed), (gpointer)0); gtk_box_pack_start(GTK_BOX(vbox), cbox, false, false, 0); if (type & (128 * mult)) gtk_toggle_button_set_active(GTK_TOGGLE_BUTTON(cbox), true); cbox = gtk_check_button_new_with_label("Friction Enabled"); g_signal_connect(G_OBJECT(cbox), "toggled", G_CALLBACK(stype_flag_changed), (gpointer)1); gtk_box_pack_start(GTK_BOX(vbox), cbox, false, false, 0); if (type & (256 * mult)) gtk_toggle_button_set_active(GTK_TOGGLE_BUTTON(cbox), true); cbox = gtk_check_button_new_with_label("Wind Enabled"); g_signal_connect(G_OBJECT(cbox), "toggled", G_CALLBACK(stype_flag_changed), (gpointer)2); gtk_box_pack_start(GTK_BOX(vbox), cbox, false, false, 0); if (type & (512 * mult)) gtk_toggle_button_set_active(GTK_TOGGLE_BUTTON(cbox), true); } return main_vbox; } int open_stype_select_dialog(int type) { current_stype = type; GtkWidget *dialog = gtk_dialog_new_with_buttons("Select Sector Type", GTK_WINDOW(editor_window), GTK_DIALOG_MODAL, GTK_STOCK_OK, GTK_RESPONSE_ACCEPT, GTK_STOCK_CANCEL, GTK_RESPONSE_REJECT, NULL); gtk_container_add(GTK_CONTAINER(GTK_DIALOG(dialog)->vbox), setup_stype_select(type)); gtk_window_set_position(GTK_WINDOW(dialog), GTK_WIN_POS_CENTER_ON_PARENT); gtk_widget_set_size_request(dialog, 320, 360); gtk_widget_show_all(dialog); int ret = type; int response = gtk_dialog_run(GTK_DIALOG(dialog)); if (response == GTK_RESPONSE_ACCEPT) { ret = current_stype; if (map.boom) { ret += stype_damage; if (stype_flags[0]) { if (map.hexen) ret += 1024; else ret += 128; } if (stype_flags[1]) { if (map.hexen) ret += 2048; else ret += 256; } if (stype_flags[2]) { if (map.hexen) ret += 4096; else ret += 512; } } } gtk_widget_destroy(dialog); return ret; }

d99360498c82cd08d43a9363e8e6ef74fd6fae4a

25f1d3e7bbb6f445174e75fed29a1028546d3562

/2DTrans.h

bc6911b679bed8d78bc6fff750f00f08804d62f1

no_license

psgsgpsg/windr2-project

288694c5d4bb8f28e67c392a2b15220d4b02f9af

4f4f92734860cba028399bda6ab4ea7d46f63ca1

refs/heads/master

UTF-8

C++

h

// 2DTrans.h : 2DTrans 응용 프로그램에 대한 주 헤더 파일 // #pragma once #ifndef __AFXWIN_H__ #error "PCH에 대해 이 파일을 포함하기 전에 'stdafx.h'를 포함합니다." #endif #include "resource.h" // 주 기호입니다. // CMy2DTransApp: // 이 클래스의 구현에 대해서는 2DTrans.cpp을 참조하십시오. // class CMy2DTransApp : public CWinAppEx { public: CMy2DTransApp(); virtual void MRUFileHandler(UINT i); // MRU 목록의 파일을 선택할 경우의 동작을 지정합니다. // 재정의입니다. public: virtual BOOL InitInstance(); // 구현입니다. BOOL m_bHiColorIcons; virtual void PreLoadState(); virtual void LoadCustomState(); virtual void SaveCustomState(); afx_msg void OnAppAbout(); DECLARE_MESSAGE_MAP() }; extern CMy2DTransApp theApp;

1ddf923038e59f2893379b36dde15cbbb02caca9

f838c6ad5dd7ffa6d9687b0eb49d5381e6f2e776

/branches/sign_198/src/libwic/encoder.cpp

1c5f2727695c076da275bebba9ef8da2bed92aef

no_license

BackupTheBerlios/wiccoder-svn

e773acb186aa9966eaf7848cda454ab0b5d948c5

c329182382f53d7a427caec4b86b11968d516af9

refs/heads/master

WINDOWS-1251

C++

cpp

/*! \file encoder.cpp \version 0.0.1 \author mice, ICQ: 332-292-380, mailto:[email protected] \brief Реализация класса wic::encoder \todo Более подробно описать файл encoder.h */ //////////////////////////////////////////////////////////////////////////////// // include // standard C++ headers #include <math.h> // libwic headers #include <wic/libwic/encoder.h> //////////////////////////////////////////////////////////////////////////////// // wic namespace namespace wic { //////////////////////////////////////////////////////////////////////////////// // encoder class public definitions /*! \param[in] width Ширина изображения. \param[in] height Высота изображения. \param[in] lvls Количество уровней вейвлет преобразования. */ encoder::encoder(const sz_t width, const sz_t height, const sz_t lvls): _wtree(width, height, lvls), _acoder(width * height * sizeof(w_t) * 4), _optimize_tree_callback(0), _optimize_tree_callback_param(0), _optimize_callback(0), _optimize_callback_param(0) #ifdef LIBWIC_USE_DBG_SURFACE , _dbg_opt_surface(width, height), _dbg_enc_surface(width, height), _dbg_dec_surface(width, height) #endif { // проверка утверждений assert(MINIMUM_LEVELS <= lvls); #ifdef LIBWIC_DEBUG _dbg_out_stream.open("dumps/[encoder]debug.out", std::ios_base::out | std::ios_base::app); if (_dbg_out_stream.good()) { time_t t; time(&t); _dbg_out_stream << std::endl << ctime(&t) << std::endl; } #endif } /*! */ encoder::~encoder() { } /*! \param[in] callback Функция обратного вызова \param[in] param Пользовательский параметр, передаваемый в функцию обратного вызова */ void encoder::optimize_tree_callback(const optimize_tree_callback_f &callback, void *const param) { _optimize_tree_callback = callback; _optimize_tree_callback_param = param; } /*! \param[in] callback Функция обратного вызова \param[in] param Пользовательский параметр, передаваемый в функцию обратного вызова */ void encoder::optimize_callback(const optimize_callback_f &callback, void *const param) { _optimize_callback = callback; _optimize_callback_param = param; } /*! \param[in] w Спектр вейвлет преобразования входного изображения для кодирования \param[in] q Квантователь. Чем больше значение (величина) квантователя, тем большую степень сжатия можно получить. Однако при увеличении квантователя качество восстановленного (декодированного) изображения ухудшается. Значение квантователя должно быть больше <i>1</i>. \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. Чем больше данный параметр, тем больший приоритет будет отдан битовым затратам. Соответственно, при 0 будет учитываться только ошибка кодирования. \param[out] tunes Информация, необходимая для последующего восстановления изображения \return Результат проведённого кодирования Данный механизм кодирования применяется, когда оптимальные (или субоптимальные) значения параметров <i>q</i> и <i>lambda</i> известны заранее. Этот метод является самым быстрым так как производит операции оптимизации топологии и кодирования только по одному разу. Стоит заметить, что метод также производит квантование спектра выбранным квантователем <i>q</i>, поэтому его не желательно использовать в ситуациях когда необходимо получить результаты сжатия одного изображения с разным параметром <i>lambda</i>. Для таких случаев лучше использовать более быструю функцию cheap_encode(), которая не производит квантования коэффициентов спектра (но может быть ещё не реализованна =). Код функции использует макрос #OPTIMIZATION_USE_VIRTUAL_ENCODING. Если он определён будет производиться виртуальное кодирование коэффициентов, что несколько быстрее. Однако не все реализации битовых кодеров могут поддерживать это. Вся информация необходимая для успешного декодирования (кроме информации описывающей параметры исходного изображения, такие как его разрешение и количество уровней преобразования) возвращается через структуру tunes_t. Доступ к закодированному изображению осуществляется через объект арифметического кодера, ссылку на который можно получить вызвав метод coder(). */ encoder::enc_result_t encoder::encode(const w_t *const w, const q_t q, const lambda_t &lambda, tunes_t &tunes) { // результат проведённой оптимизации enc_result_t result; // проверка входных параметров assert(0 != w); // загрузка спектра _wtree.load_field<wnode::member_w>(w); // оптимизация топологии ветвей result.optimization = #ifdef OPTIMIZATION_USE_VIRTUAL_ENCODING _optimize_wtree_q(lambda, q, true, true); #else _optimize_wtree_q(lambda, q, false, true); #endif // кодирование всего дерева, если необходимо if (result.optimization.real_encoded) { tunes.models = result.optimization.models; result.bpp = result.optimization.bpp; } else { result.bpp = _real_encode_tight(tunes.models); } // запись данных необходимых для последующего декодирования tunes.q = _wtree.q(); // завершение кодирования return result; } /*! \param[in] w Спектр вейвлет преобразования входного изображения для кодирования \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. Чем больше данный параметр, тем больший приоритет будет отдан битовым затратам. Соответственно, при 0 будет учитываться только ошибка кодирования. \param[out] tunes Информация, необходимая для последующего восстановления изображения \param[in] q_min Нижняя граница интервала поиска (минимальное значение) \param[in] q_max Верхняя граница интервала поиска (максимальное значение) \param[in] q_eps Необходимая погрешность определения квантователя <i>q</i> при котором значение <i>RD функции Лагранжа</i> минимально (при фиксированном параметре <i>lambda</i>). \param[in] j_eps Необходимая погрешность нахождения минимума <i>RD функции Лагранжа</i>. Так как абсолютная величина функции <i>J</i> зависит от многих факторов (таких как размер изображения, его тип, величины параметра <i>lambda</i>), использовать это параметр затруднительно. Поэтому его значение по умолчанию равно <i>0</i>, чтобы при поиске оптимального квантователя учитывалась только погрешность параметра <i>q</i>. \param[in] max_iterations Максимальное количество итераций нахождения минимума <i>RD функции Лагранжа</i>. Если это значение равно <i>0</i>, количество выполняемых итераций не ограничено. \param[in] precise_bpp Смотри аналогичный параметр в функции _search_q_min_j() Функция производит кодирование изображения при фиксированном параметре <i>lambda</i>, подбирая параметр кодирования <i>q</i> таким образом, чтобы значение функции <i>RD критерия Лагранжа</i> было минимальным. Здесь <i>lambda</i> выступает некоторой характеристикой качества. Чем этот параметр больше, тем больше будет степень сжатия и, соответственно, ниже качество декодированного изображения. При <i>lambda</i> равной <i>0</i>, декодированное изображение будет наилучшего качества. В большинстве случаев удобнее использовать не абстрактный параметр <i>lambda</i>, а более чёткий показатель качества. В таких ситуациях можно воспользоваться функцией quality_to_lambda(), которая преобразует показатель качества (число в диапазоне <i>[0, 100]</i>) в соотвествующее значение параметра <i>lambda</i>. Код функции использует макрос #OPTIMIZATION_USE_VIRTUAL_ENCODING. Если он определён будет производиться виртуальное кодирование коэффициентов, что несколько быстрее. Однако не все реализации битовых кодеров могут поддерживать это. \sa _search_q_min_j() */ encoder::enc_result_t encoder::encode_fixed_lambda( const w_t *const w, const lambda_t &lambda, tunes_t &tunes, const q_t &q_min, const q_t &q_max, const q_t &q_eps, const j_t &j_eps, const sz_t &max_iterations, const bool precise_bpp) { // результат проведённой оптимизации enc_result_t result; // проверка входных параметров assert(0 != w); // загрузка спектра _wtree.load_field<wnode::member_w>(w); // минимизация RD функции Лагранжа result.optimization = #ifdef OPTIMIZATION_USE_VIRTUAL_ENCODING _search_q_min_j(lambda, q_min, q_max, q_eps, j_eps, true, max_iterations, precise_bpp); #else _search_q_min_j(lambda, q_min, q_max, q_eps, j_eps, false, max_iterations, precise_bpp); #endif // кодирование всего дерева, если необходимо if (result.optimization.real_encoded) { tunes.models = result.optimization.models; result.bpp = result.optimization.bpp; } else { result.bpp = _real_encode_tight(tunes.models); } // сохранение параметров, необходимых для последующего декодирования tunes.q = _wtree.q(); return result; } /*! \param[in] w Спектр вейвлет преобразования входного изображения для кодирования \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. Чем больше данный параметр, тем больший приоритет будет отдан битовым затратам. Соответственно, при 0 будет учитываться только ошибка кодирования. \param[out] tunes Информация, необходимая для последующего восстановления изображения Эта упрощённая версия функции encode_fixed_lambda() использует следующие значения аргументов: - <i>q_min = 1</i> - <i>q_max = 64</i> - <i>q_eps = 0.01</i> - <i>j_eps = 0.0</i> - <i>max_iterations = 0</i> - <i>precise_bpp = true</i> Код функции косвенно использует макрос #OPTIMIZATION_USE_VIRTUAL_ENCODING. Если он определён будет производиться виртуальное кодирование коэффициентов, что несколько быстрее. Однако не все реализации битовых кодеров могут поддерживать это. */ encoder::enc_result_t encoder::encode_fixed_lambda(const w_t *const w, const lambda_t &lambda, tunes_t &tunes) { static const q_t q_eps = q_t(0.01); static const j_t j_eps = j_t(0); static const q_t q_min = q_t(1); static const q_t q_max = q_t(64); static const sz_t max_iterations = 0; static const bool precise_bpp = true; return encode_fixed_lambda(w, lambda, tunes, q_min, q_max, q_eps, j_eps, 0, precise_bpp); } /*! \param[in] w Спектр вейвлет коэффициентов преобразованного входного изображения для кодирования \param[in] q Используемый квантователь \param[in] bpp Необходимый битрейт (Bits Per Pixel), для достижения которого будет подбираться параметр <i>lambda</i> \param[in] bpp_eps Необходимая точность, c которой <i>bpp</i> полученный в результате поиска параметра <i>lambda</i> будет соответствовать заданному. \param[out] tunes Информация, необходимая для последующего восстановления изображения \param[in] lambda_min Нижняя граница интервала поиска (минимальное значение) \param[in] lambda_max Верхняя граница интервала поиска (максимальное значение) \param[in] lambda_eps Точность, с которой будет подбираться параметр <i>lambda</i>. \param[in] max_iterations Максимальное количество итераций нахождения минимума <i>RD функции Лагранжа</i>. Если это значение равно <i>0</i>, количество выполняемых итераций не ограничено. \param[in] precise_bpp Если <i>true</i> после каждого этапа оптимизации топологии деревьев спектра вейвлет коэффициентов будет произведено реальное кодирование с уменьшеными моделями арифметического кодера для уточнения оценки битовых затрат. \return Результат проведённого поиска. Возможна ситуация, когда нужная <i>lambda</i> лежит вне указанного диапазона. В этом случае, функция подберёт такую <i>lambda</i>, которая максимально удовлетворяет условиям поиска. Производит кодирование изображения при фиксированном параметре <i>q</i>, подбирая значения параметра <i>lambda</i> таким образом, чтобы битовые затраты на кодирование изображения были максимально близки к заданным. Код функции использует макрос #OPTIMIZATION_USE_VIRTUAL_ENCODING. Если он определён будет производиться виртуальное кодирование коэффициентов, что несколько быстрее. Однако не все реализации битовых кодеров могут поддерживать это. \sa _search_lambda_at_bpp */ encoder::enc_result_t encoder::encode_fixed_q(const w_t *const w, const q_t &q, const h_t &bpp, const h_t &bpp_eps, tunes_t &tunes, const lambda_t &lambda_min, const lambda_t &lambda_max, const lambda_t &lambda_eps, const sz_t &max_iterations, const bool precise_bpp) { // результат проведённой оптимизации enc_result_t result; // проверка входных параметров assert(0 != w); assert(1 <= q); // загрузка спектра _wtree.cheap_load(w, q); // генерация характеристик моделей арифметического кодера tunes.models = _setup_acoder_models(); // минимизация RD функции Лагранжа result.optimization = #ifdef OPTIMIZATION_USE_VIRTUAL_ENCODING _search_lambda_at_bpp(bpp, bpp_eps, lambda_min, lambda_max, lambda_eps, true, max_iterations, precise_bpp); #else _search_lambda_at_bpp(bpp, bpp_eps, lambda_min, lambda_max, lambda_eps, false, max_iterations, precise_bpp); #endif // кодирование всего дерева, если необходимо if (result.optimization.real_encoded) { tunes.models = result.optimization.models; result.bpp = result.optimization.bpp; } else { result.bpp = _real_encode_tight(tunes.models); } // сохранение параметров, необходимых для последующего декодирования tunes.q = _wtree.q(); return result; } /*! \param[in] w Спектр вейвлет коэффициентов преобразованного входного изображения для кодирования \param[in] q Используемый квантователь \param[in] bpp Необходимый битрейт (Bits Per Pixel), для достижения которого будет подбираться параметр <i>lambda</i> \param[out] tunes Информация, необходимая для последующего восстановления изображения \return Результат проведённого поиска. Эта упрощённая версия функции encode_fixed_q() использует следующие значения аргументов: - <i>bpp_eps = 0.001</i> - <i>lambda_min = LAMBDA_SEARCH_K_LOW*q*q</i> - <i>lambda_max = LAMBDA_SEARCH_K_HIGHT*q*q</i> - <i>lambda_eps = 0.0</i> - <i>max_iterations = 0</i> - <i>precise_bpp = true</i> Код функции косвенно использует макрос #OPTIMIZATION_USE_VIRTUAL_ENCODING. Если он определён будет производиться виртуальное кодирование коэффициентов, что несколько быстрее. Однако не все реализации битовых кодеров могут поддерживать это. */ encoder::enc_result_t encoder::encode_fixed_q(const w_t *const w, const q_t &q, const h_t &bpp, tunes_t &tunes) { static const h_t bpp_eps = 0.001; static const lambda_t lambda_min = lambda_t(LAMBDA_SEARCH_K_LOW * q*q); static const lambda_t lambda_max = lambda_t(LAMBDA_SEARCH_K_HIGHT * q*q); static const lambda_t lambda_eps = 0; static const sz_t max_iterations = 0; static const bool precise_bpp = true; return encode_fixed_q(w, q, bpp, bpp_eps, tunes, lambda_min, lambda_max, lambda_eps, max_iterations, precise_bpp); } /*! \param[in] w Спектр вейвлет коэффициентов преобразованного входного изображения для кодирования \param[in] bpp Необходимый битрейт (Bits Per Pixel), для достижения которого будут подбираться параметры <i>q</i> и <i>lambda</i>. \param[in] bpp_eps Необходимая точность, c которой <i>bpp</i> полученный в результате поиска параметров <i>q</i> и <i>lambda</i> будет соответствовать заданному. \param[in] q_min Нижняя граница интервала поиска (минимальное значение) \param[in] q_max Верхняя граница интервала поиска (максимальное значение) \param[in] q_eps Необходимая погрешность определения квантователя <i>q</i> при котором значение <i>RD функции Лагранжа</i> минимально (при фиксированном параметре <i>lambda</i>). \param[in] lambda_eps Точность, с которой будет подбираться параметр <i>lambda</i> \param[out] tunes Информация, необходимая для последующего восстановления изображения \return Результат проведённого поиска \sa _search_q_lambda_for_bpp() */ encoder::enc_result_t encoder::encode_fixed_bpp( const w_t *const w, const h_t &bpp, const h_t &bpp_eps, const q_t &q_min, const q_t &q_max, const q_t &q_eps, const lambda_t &lambda_eps, tunes_t &tunes, const bool precise_bpp) { // результат проведённой оптимизации enc_result_t result; // проверка входных параметров assert(0 != w); // загрузка спектра _wtree.load_field<wnode::member_w>(w); // минимизация RD функции Лагранжа result.optimization = #ifdef OPTIMIZATION_USE_VIRTUAL_ENCODING _search_q_lambda_for_bpp(bpp, bpp_eps, q_min, q_max, q_eps, lambda_eps, tunes.models, true, precise_bpp); #else _search_q_lambda_for_bpp(bpp, bpp_eps, q_min, q_max, q_eps, lambda_eps, tunes.models, false, precise_bpp); #endif // кодирование всего дерева, если необходимо if (result.optimization.real_encoded) { tunes.models = result.optimization.models; result.bpp = result.optimization.bpp; } else { result.bpp = _real_encode_tight(tunes.models); } // сохранение параметров, необходимых для последующего декодирования tunes.q = _wtree.q(); return result; } /*! \param[in] w Спектр вейвлет коэффициентов преобразованного входного изображения для кодирования \param[in] bpp Необходимый битрейт (Bits Per Pixel), для достижения которого будут подбираться параметры <i>q</i> и <i>lambda</i>. \param[out] tunes Информация, необходимая для последующего восстановления изображения \return Результат проведённого поиска Эта упрощённая версия функции encode_fixed_bpp() придаёт следующим аргументам соответствующие значения: - <i>bpp_eps = 0.001</i> - <i>q_min = 1</i> - <i>q_max = 64</i> - <i>q_eps = 0.01</i> - <i>lambda_eps = 0</i> - <i>precise_bpp = true</i> \sa _search_q_lambda_for_bpp(), encode_fixed_bpp */ encoder::enc_result_t encoder::encode_fixed_bpp(const w_t *const w, const h_t &bpp, tunes_t &tunes) { static const h_t bpp_eps = 0.001; static const q_t q_min = q_t(1); static const q_t q_max = q_t(64); static const q_t q_eps = q_t(0.01); static const lambda_t lambda_eps = 0.00001; static const bool precise_bpp = true; return encode_fixed_bpp(w, bpp, bpp_eps, q_min, q_max, q_eps, lambda_eps, tunes, precise_bpp); } /*! param[in] data Указатель на блок памяти, содержащий закодированное изображение param[in] data_sz Размер блока, содержащего закодированное изображения param[in] tunes Данные необходимые для восстановления изображения, полученные от одной из функций кодирования. Стоит заметить, что в текущей реализации, память для арифметического кодера выделяется зарание, размер которой определяется исходя из размеров самого изображения. Поэтому необходимо, чтобы размер данных <i>data_sz</i> был меньше, чем acoder::buffer_sz(). */ void encoder::decode(const byte_t *const data, const sz_t data_sz, const tunes_t &tunes) { // проверка утверждений assert(_acoder.buffer_sz() >= data_sz); // копирование памяти в арифметический кодер memcpy(_acoder.buffer(), data, data_sz); // инициализация спектра перед кодированием _wtree.wipeout(); // установка характеристик моделей _acoder.use(_mk_acoder_models(tunes.models)); // декодирование _acoder.decode_start(); _encode_wtree(true); _acoder.decode_stop(); // деквантование _wtree.dequantize<wnode::member_wc>(tunes.q); } /*! \param[in] quality Показатель качества \return Значение параметра <i>lambda</i>, соответствующее выбранному показателю качества Показатель качества представляет значение из диапазона <i>[0, 100]</i>. Значение <i>100</i> соответствует максимальному качеству сжатия, а значение <i>0</i> соответствует максимальной степени сжатия. Преобразование производится по формуле: \verbatim lambda = pow((quality + 2.0), (102 / (quality + 2) - 1)) - 1; \endverbatim */ lambda_t encoder::quality_to_lambda(const double &quality) { assert(0.0 <= quality && quality <= 100.0); const double d = 2.0; const double b = (quality + d); const double p = ((100.0 + d) / b) - 1.0; return (pow(b, p) - 1.0); } //////////////////////////////////////////////////////////////////////////////// // wtree class protected definitions /*! \param[in] s Значение прогнозной величины <i>S_j</i> \param[in] lvl Номер уровня разложения, из которого был взят коэффициент \return Номер выбираемой модели \note Стоит заметить, что для нулевого и первого уровней функция возвращает определённые значения, независимо от параметра <i>s</i>. */ sz_t encoder::_ind_spec(const pi_t &s, const sz_t lvl) { assert(0 == ACODER_SPEC_LL_MODELS); if (subbands::LVL_0 == lvl) return ACODER_SPEC_LL_MODELS; if (subbands::LVL_1 == lvl) return 1; if (26.0 <= s) return 1; if ( 9.8 <= s) return 2; if ( 4.1 <= s) return 3; if ( 1.72 <= s) return 4; return 5; } /*! \param[in] pi Значение прогнозной величины <i>P_i</i> \param[in] lvl Номер уровня разложения, из которого был взят групповой признак подрезания ветвей \return Номер выбираемой модели \note Стоит заметить, что если параметр <i>lvl</i> равен <i>0</i> функция всегда возвращает нулевую модель, независимо от параметра <i>pi</i>. */ sz_t encoder::_ind_map(const pi_t &pi, const sz_t lvl) { if (subbands::LVL_0 == lvl) return 0; if (4.0 <= pi) return 4; if (1.1 <= pi) return 3; if (0.3 <= pi) return 2; return 1; } /*! \param[in] desc Описание моделей арифметического кодера \return Модели для арифметического кодера */ acoder::models_t encoder::_mk_acoder_models(const models_desc1_t &desc) const { // создание моделей для кодирования acoder::models_t models; acoder::model_t model; // Данный способ создания моделей арифметического кодера не // задаёт математическое ожидание модуля кодируемой величины model.abs_avg = 0; // модел #0 ---------------------------------------------------------------- model.min = desc.mdl_0_min; model.max = desc.mdl_0_max; models.push_back(model); // модель #1 --------------------------------------------------------------- model.min = desc.mdl_1_min; model.max = desc.mdl_1_max; models.push_back(model); // модели #2..#5 ----------------------------------------------------------- model.min = desc.mdl_x_min; model.max = desc.mdl_x_max; models.insert(models.end(), ACODER_SPEC_MODELS_COUNT - 2, model); // создание моделей для кодирования групповых признаков подрезания --------- model.min = 0; model.max = 0x7; models.push_back(model); model.max = 0xF; models.insert(models.end(), ACODER_MAP_MODELS_COUNT - 1, model); // создание моделей для кодирования знаков коэффициентов ------------------- _ins_acoder_sign_models(models); // проверка утверждений assert(ACODER_TOTAL_MODELS_COUNT == models.size()); return models; } /*! \param[in] desc Описание моделей арифметического кодера \return Модели для арифметического кодера */ acoder::models_t encoder::_mk_acoder_models(const models_desc2_t &desc) const { // проверка утверждений assert(items_count(desc.mins) == items_count(desc.maxs)); assert(items_count(desc.maxs) == items_count(desc.abs_avgs)); assert(items_count(desc.mins) == models_desc2_t::desced); // создание моделей для кодирования acoder::models_t models; // добавление моделей для кодирования коэффициентов и признаков подрезания for (sz_t i = 0; models_desc2_t::desced > i; ++i) { acoder::model_t model; model.min = desc.mins[i]; model.max = desc.maxs[i]; model.abs_avg = desc.abs_avgs[i]; models.push_back(model); } // добавление моделей для кодирования знаков коэффициентов _ins_acoder_sign_models(models); // проверка утверждений assert(ACODER_TOTAL_MODELS_COUNT == models.size()); return models; } /*! \param[in] desc Описание моделей арифметического кодера в унифицированном формате \return Модели для арифметического кодера */ acoder::models_t encoder::_mk_acoder_models(const models_desc_t &desc) const { // описание моделей, как их понимает арифметический кодер acoder::models_t models; // выбор способа представления описаний switch (desc.version) { case MODELS_DESC_V1: models = _mk_acoder_models(desc.md.v1); break; case MODELS_DESC_V2: models = _mk_acoder_models(desc.md.v2); break; default: // unsupported models description assert(false); break; } return models; } /*! \return Описание моделей для арифметического кодера Описание моделей (значение максимального и минимального элемента в модели) составляется по следующему принципу: - для модели #0: минимальный элемент из <i>LL</i> саббенда, максимальный элемент также из <i>LL</i> саббенда - для модели #1: минимальный элемент из всех саббендов первого уровня (саббенды "дочерние" от <i>LL</i>), максимальный элемент также из всех саббендов первого уровня. - для моделей #2..#5: минимальные элемент из всех оставшихся саббендов, максимальный элемент также из всех оставшихся саббендов */ encoder::models_desc1_t encoder::_mk_acoder_smart_models() const { // создание моделей для кодирования models_desc1_t desc; // модел #0 ---------------------------------------------------------------- { const subbands::subband_t &sb_LL = _wtree.sb().get_LL(); wk_t lvl0_min = 0; wk_t lvl0_max = 0; #ifdef USE_DPCM_FOR_LL_SUBBAND _wtree.dpcm_minmax<wnode::member_wq>(sb_LL, lvl0_min, lvl0_max); #else wtree::coefs_iterator i = _wtree.iterator_over_subband(sb_LL); _wtree.minmax<wnode::member_wq>(i, lvl0_min, lvl0_max); #endif desc.mdl_0_min = short(lvl0_min); desc.mdl_0_max = short(lvl0_max); } // модели #1..#5 ----------------------------------------------------------- { // поиск минимума и максимума на первом уровне wtree::coefs_cumulative_iterator i_cum; for (sz_t k = 0; subbands::SUBBANDS_ON_LEVEL > k; ++k) { const subbands::subband_t &sb = _wtree.sb().get(subbands::LVL_1, k); i_cum.add(_wtree.iterator_over_subband(sb)); } wk_t lvl1_min = 0; wk_t lvl1_max = 0; _wtree.minmax<wnode::member_wq>(some_iterator_adapt(i_cum), lvl1_min, lvl1_max); // поиск минимума и максимума на уровнях начиная со второго wtree::coefs_cumulative_iterator j_cum; for (sz_t lvl = subbands::LVL_1 + subbands::LVL_NEXT; _wtree.lvls() >= lvl; ++lvl) { for (sz_t k = 0; subbands::SUBBANDS_ON_LEVEL > k; ++k) { const subbands::subband_t &sb = _wtree.sb().get(lvl, k); j_cum.add(_wtree.iterator_over_subband(sb)); } } wk_t lvlx_min = 0; wk_t lvlx_max = 0; _wtree.minmax<wnode::member_wq>(some_iterator_adapt(j_cum), lvlx_min, lvlx_max); // модель #1 desc.mdl_1_min = short(std::min(lvl1_min, lvlx_min)); desc.mdl_1_max = short(std::max(lvl1_max, lvlx_max)); // модели #2..#5 desc.mdl_x_min = lvlx_min; desc.mdl_x_max = lvlx_max; } return desc; } /*! \param[in] ac Арифметический кодер, статистика которого будет использована для построения описания моделей */ encoder::models_desc2_t encoder::_mk_acoder_post_models(const acoder &ac) const { // проверка утверждений assert(ACODER_TOTAL_MODELS_COUNT == ac.models().size()); models_desc2_t desc; // проверка утверждений assert(items_count(desc.mins) == items_count(desc.maxs)); assert(items_count(desc.maxs) == items_count(desc.abs_avgs)); assert(models_desc2_t::desced == items_count(desc.mins)); assert(models_desc2_t::desced <= ac.models().size()); for (sz_t i = 0; models_desc2_t::desced > i; ++i) { desc.mins[i] = ac.rmin(i); desc.maxs[i] = ac.rmax(i); desc.abs_avgs[i] = (unsigned short)(ac.abs_average(i)); // проверка на пустую модель (в которых rmin > rmax) // данные действия необходимы, если в модель не попало ни одного // элемента if (desc.mins[i] > desc.maxs[i]) { desc.mins[i] = desc.maxs[i] = 0; } } return desc; } /*! \param[in] use_models Если <i>true</i> то полученная модель будет установлена для использования в арифметический кодер \return Описание моделей арифметического кодера, которые были установленны этой функцией Для генерации описания моделей используется функция _mk_acoder_smart_models(), соответственно, сгенерированные модели имеют тип MODELS_DESC_V1. */ encoder::models_desc_t encoder::_setup_acoder_models(const use_models) { // описание моделей для арифметического кодера models_desc_t desc; // идентификатор используемого представления описания моделей desc.version = MODELS_DESC_V1; // определение суб-оптимальных моделей для арифметического кодера desc.md.v1 = _mk_acoder_smart_models(); // загрузка моделей в арифметический кодер if (use_models) _acoder.use(_mk_acoder_models(desc)); return desc; } /*! \param[in] use_models Если <i>true</i> то полученная модель будет установлена для использования в арифметический кодер \return Описание моделей арифметического кодера, которые были установленны этой функцией Для генерации описания моделей используется функция _mk_acoder_post_models() */ encoder::models_desc_t encoder::_setup_acoder_post_models(const use_models) { // описание моделей для арифметического кодера models_desc_t desc; // используется вторая версия представления описания моделей // арифметического кодера desc.version = MODELS_DESC_V2; // создание нового описания моделей арифметического кодера, // основываясь на статистике кодирования, полученной при // оптимизации топологии деревьев спектра вейвлет коэффициентов desc.md.v2 = _mk_acoder_post_models(_acoder); // загрузка моделей в арифметический кодер if (use_models) _acoder.use(_mk_acoder_models(desc)); return desc; } /*! \param[in] result Результат проведённой оптимизации, в резултате которой могли поменяться модели арифметического кодера \param[in] models Оригинальные модели арифметического кодера, которые следует востановить в случае их изменения процедурой оптимизации топологии \return <i>true</i> если измененённые модели были восстановлены и <i>false</i> если модели не изменились процедурой оптимизации. */ bool encoder::_restore_spoiled_models(const optimize_result_t &result, const acoder::models_t &models) { // Проверка, были ли в процессе оптимизации изменены if (MODELS_DESC_NONE == result.models.version) return false; // Дополнительная проверка на равенство старых и новых моделей. // Сейчас не используется, так как в текущей реализации функций // оптимизации топологии версия описания моделей устанавливается // только в случае их изменения. // if (models == _mk_acoder_models(result.models)) return false; // восстановление моделей используемых арифметическим кодером _acoder.use(models); return true; } /*! \param[in] m Номер модели для кодирования \param[in] wk Значение коэффициента для кодирования \return Битовые затраты, необходимые для кодирования коэффициента с использованием этой модели */ h_t encoder::_h_spec(const sz_t m, const wk_t &wk) { return _acoder.enc_entropy(wk, m); } /*! \param[in] m Номер модели для кодирования \param[in] n Значение группового признака подрезания ветвей \return Битовые затраты, необходимые для кодирования группового признака подрезания */ h_t encoder::_h_map(const sz_t m, const n_t &n) { return _acoder.enc_entropy(n, m + ACODER_SPEC_MODELS_COUNT); } /*! \param[in] m Номер модели для кодирования \param[in] wk Значение коэффициента для кодирования \param[in] virtual_encode Если <i>true</i> то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). */ void encoder::_encode_spec(const sz_t m, const wk_t &wk, const bool virtual_encode) { // Кодирование модуля коэффициента _acoder.put(wk, m, virtual_encode); } /*! \param[in] wk Значение коэффициента для кодирования \param[in] spec_m Номер модели для кодирования модуля коэффициента \param[in] sign_m Номер модели для кодирования знака коэффициента \param[in] virtual_encode Если <i>true</i> то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). */ void encoder::_encode_spec_se(const wk_t &wk, const sz_t spec_m, const sz_t sign_m, const bool virtual_encode) { // Проверка специального случая, чтобы удостовериться что нулевая модель // для знака используется только в том случае, когда кодируется элемент // из LL саббенда assert(0 != sign_m || ACODER_SPEC_LL_MODELS == spec_m); // Специальный случай для LL саббенда - кодируем как есть if (ACODER_SPEC_LL_MODELS == spec_m) { _acoder.put(wk, spec_m, virtual_encode); return; } // Определение знака коэффициента const sz_t sign_v = wnode::signp(wk); // Ограничение на возможные значения знака коэффициента assert(0 <= sign_v && sign_v <= 2); // Кодирование знака коэффициента _acoder.put(sign_v, sign_m, virtual_encode); // Знак равен 0 если сам коэффициент 0. В таком случае кодирование // коэффициента не требуется if (0 == sign_v) return; // Модуль коэффициента который будет закодирован const wk_t spec_v = abs(wk); // Кодирование модуля коэффициента _acoder.put(spec_v, spec_m, virtual_encode); } /*! \param[in] m Номер модели для кодирования \param[in] n Значение группового признака подрезания ветвей \param[in] virtual_encode Если <i>true</i> то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). */ void encoder::_encode_map(const sz_t m, const n_t &n, const bool virtual_encode) { _acoder.put(n, m + ACODER_SPEC_MODELS_COUNT, virtual_encode); } /*! \param[in] m Номер модели для кодирования \return Значение коэффициента для кодирования */ wk_t encoder::_decode_spec(const sz_t m) { return _acoder.get<wk_t>(m); } wk_t encoder::_decode_spec_se(const sz_t spec_m, const sz_t sign_m) { // Проверка специального случая, чтобы удостовериться что нулевая модель // для знака используется только в том случае, когда декодируется элемент // из LL саббенда assert(0 != sign_m || ACODER_SPEC_LL_MODELS == spec_m); // Специальный случай для LL саббенда - кодируем как есть if (ACODER_SPEC_LL_MODELS == spec_m) return _acoder.get<wk_t>(spec_m); // Декодирование знака коэффициента const sz_t sign_v = _acoder.get<sz_t>(sign_m); // Ограничение на возможные значения знака коэффициента assert(0 <= sign_v && sign_v <= 2); // Если знак равен 0, значит и сам коэффициент 0. В таком случае // декодирование коэффициента не требуется if (0 == sign_v) return 0; // Декодирование модуля коэффициента const wk_t spec_v = _acoder.get<wk_t>(spec_m); // Добавление знака к модулю коэффициента return wnode::to_signed(spec_v, sign_v); } /*! \param[in] m Номер модели для кодирования \return Значение группового признака подрезания ветвей */ n_t encoder::_decode_map(const sz_t m) { return _acoder.get<n_t>(m + ACODER_SPEC_MODELS_COUNT); } /*! \param[in] p Предполагаемые координаты элемента (коэффициента) \param[in] k Откорректированное (или просто проквантованное) значение коэффициента \param[in] lambda Параметр <i>lambda</i>, отвечает за <i>Rate/Distortion</i> баланс при вычислении <i>RD</i> функции. Чем это значение больше, тем больший вклад в значение <i>RD</i> функции будут вносить битовые затраты на кодирование коэффициента арифметическим кодером. \param[in] model Номер модели арифметического кодера, которая будет использована для кодирования коэффициента \return Значения <i>RD-функции Лагрнанжа</i> \note Функция применима для элементов из любых саббендов. */ j_t encoder::_calc_rd_iteration(const p_t &p, const wk_t &k, const lambda_t &lambda, const sz_t &model) { const wnode &node = _wtree.at(p); const w_t dw = (wnode::dequantize(k, _wtree.q()) - node.w); const double h = _h_spec(model, k); return (dw*dw + lambda * h); } /*! \param[in] p Координаты коэффициента для корректировки \param[in] sb Саббенд, в котором находится коэффициент \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. \return Значение откорректированного коэффициента \note Функция применима для коэффициентов из любых саббендов \sa COEF_FIX_USE_4_POINTS \todo Написать тест для этой функции */ wk_t encoder::_coef_fix(const p_t &p, const subbands::subband_t &sb, const lambda_t &lambda) { #ifdef COEF_FIX_DISABLED return _wtree.at(p).wq; #endif // выбор модели и оригинального значения коэффициента const sz_t model = _ind_spec<wnode::member_wc>(p, sb); const wk_t &wq = _wtree.at(p).wq; // Определение набора подбираемых значений #ifdef COEF_FIX_USE_4_POINTS static const sz_t vals_count = 4; const wk_t w_vals[vals_count] = {0, wq, wq + 1, wq - 1}; #else static const sz_t vals_count = 3; const wk_t w_drift = (0 <= wq)? -1: +1; const wk_t w_vals[vals_count] = {0, wq, wq + w_drift}; #endif // начальные значения для поиска минимума RD функции wk_t k_optim = w_vals[0]; j_t j_optim = _calc_rd_iteration(p, k_optim, lambda, model); // поиск минимального значения RD функции for (int i = 1; vals_count > i; ++i) { const wk_t &k = w_vals[i]; const j_t j = _calc_rd_iteration(p, k, lambda, model); if (j < j_optim) { j_optim = j; k_optim = k; } } // возврат откорректированного значения коэффициента return k_optim; } /*! \param[in] p Координаты родительского элемента \param[in] sb_j Саббенд, в котором находятся дочерние элементы \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. \note Функция применима только для родительских элементов не из <i>LL</i> саббенда. */ void encoder::_coefs_fix(const p_t &p, const subbands::subband_t &sb_j, const lambda_t &lambda) { // цикл по дочерним элементам for (wtree::coefs_iterator i = _wtree.iterator_over_children(p); !i->end(); i->next()) { const p_t &p = i->get(); wnode &node = _wtree.at(p); node.wc = _coef_fix(p, sb_j, lambda); } } /*! \param[in] p Координаты родительского элемента \param[in] sb_j Саббенд, в котором находятся дочерние элементы \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. \note Функция применима только для родительских элементов из любых саббендов. */ void encoder::_coefs_fix_uni(const p_t &p, const subbands::subband_t &sb_j, const lambda_t &lambda) { // цикл по дочерним элементам for (wtree::coefs_iterator i = _wtree.iterator_over_children_uni(p); !i->end(); i->next()) { const p_t &p = i->get(); wnode &node = _wtree.at(p); node.wc = _coef_fix(p, sb_j, lambda); } } /*! \param[in] p Координаты элемента для которого будет расчитываться \param[in] sb Саббенд, в котором находятся коэффициенты из сохраняемой ветви. Другими словами, этот саббенд дочерний для того, в котором находится элемент с координатами <i>p</i>. \param[in] lambda Параметр <i>lambda</i> который участвует в вычислении <i>RD</i> функции и представляет собой баланс между <i>R (rate)</i> и <i>D (distortion)</i> частями <i>функции Лагранжа</i>. \return Значение <i>RD функции Лагранжа</i>. \note Функция не применима для элементов из <i>LL</i> саббенда. \sa _calc_j0_value() \todo Необходимо написать тест для этой функции. */ j_t encoder::_calc_j1_value(const p_t &p, const subbands::subband_t &sb, const lambda_t &lambda) { // получение номера модели для кодирования коэффициентов const sz_t model = _ind_spec<wnode::member_wc>(p, sb); j_t j1 = 0; for (wtree::coefs_iterator i = _wtree.iterator_over_children(p); !i->end(); i->next()) { const wnode &node = _wtree.at(i->get()); j1 += _calc_rd_iteration(i->get(), node.wc, lambda, model); } return j1; } /*! \param[in] root Координаты корневого элемента \param[in] j_map Значение <i>RD-функцию Лагранжа</i> полученное в шаге 2.6. \param[in] lambda Параметр <i>lambda</i> который участвует в вычислении <i>RD</i> функции и представляет собой баланс между <i>R (rate)</i> и <i>D (distortion)</i> частями <i>функции Лагранжа</i>. \return Значение <i>RD-функции Лагранжа</i>. Функция также сохраняет полученное значение <i>RD-функции Лагранжа</i> в полях wnode::j0 и wnode::j1 корневого элемента. */ j_t encoder::_calc_jx_value(const p_t &root, const j_t &j_map, const lambda_t &lambda) { assert(_wtree.sb().test_LL(root)); // получаем ссылку саббенды const subbands &sb = _wtree.sb(); j_t j = j_map; // цикл по дочерним элементам for (wtree::coefs_iterator i = _wtree.iterator_over_LL_children(root); !i->end(); i->next()) { const p_t &p = i->get(); const wnode &node = _wtree.at(p); // получаем ссылку на саббенд в котором лежит рассматриваемый элемент const subbands::subband_t &sb_i = sb.from_point(p, subbands::LVL_1); j += _calc_rd_iteration(p, node.wc, lambda, _ind_spec<wnode::member_wc>(p, sb_i)); } wnode &node = _wtree.at(root); return (node.j0 = node.j1 = j); } /*! \param[in] p Координаты элемента, для которого выполняется подготовка значений <i>J</i> (<i>RD функция Лагранжа</i>) \param[in] sb_j Саббенд в котором находятся дочерние элементы \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. Функция обычно выполняется при переходе с уровня <i>lvl</i>, на уровень <i>lvl + subbands::LVL_PREV</i>. \note Функция не применима для элементов из <i>LL</i> саббенда. */ void encoder::_prepare_j(const p_t &p, const subbands::subband_t &sb_j, const lambda_t &lambda) { wnode &node = _wtree.at(p); node.j0 = _calc_j0_value<false>(p); node.j1 = _calc_j1_value(p, sb_j, lambda); } /*! \param[in] p Координаты элемента, для которого выполняется подготовка значений <i>J</i> (<i>RD функция Лагранжа</i>) \param[in] sb_j Саббенд в котором находятся дочерние элементы \param[in] j Значение функции Лагранжа, полученное при подборе оптимальной топологии ветвей \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. Функция обычно выполняется при переходе с уровня <i>lvl</i>, на уровень <i>lvl + subbands::LVL_PREV</i>. \note Функция не применима для элементов из <i>LL</i> саббенда. */ void encoder::_prepare_j(const p_t &p, const subbands::subband_t &sb_j, const j_t &j, const lambda_t &lambda) { wnode &node = _wtree.at(p); node.j0 = _calc_j0_value<true>(p); node.j1 = j + _calc_j1_value(p, sb_j, lambda); } /*! \param[in] branch Координаты элемента, находящегося в вершине ветви \param[in] n Групповой признак подрезания, характеризующий топологию ветви \return Значение функции Лагранжа при топологии описанной в <i>n</i> */ j_t encoder::_topology_calc_j(const p_t &branch, const n_t n) { j_t j = 0; for (wtree::coefs_iterator i = _wtree.iterator_over_children(branch); !i->end(); i->next()) { const p_t &p = i->get(); const wnode &node = _wtree.at(p); const n_t mask = _wtree.child_n_mask(p, branch); j += (_wtree.test_n_mask(n, mask))? node.j1: node.j0; } return j; } //! определённой её топологии (ветвь из <i>LL</i> саббенда) /*! \param[in] branch Координаты элемента, находящегося в вершине ветви \param[in] n Групповой признак подрезания, характеризующий топологию ветви \return Значение функции Лагранжа при топологии описанной в <i>n</i> */ j_t encoder::_topology_calc_j_LL(const p_t &branch, const n_t n) { // начальное значение для функции Лагранжа j_t j = 0; for (wtree::coefs_iterator i = _wtree.iterator_over_LL_children(branch); !i->end(); i->next()) { const p_t &p = i->get(); const wnode &node = _wtree.at(p); const n_t mask = _wtree.child_n_mask_LL(p); j += (_wtree.test_n_mask(n, mask))? node.j1: node.j0; } return j; } /*! \param[in] branch Координаты родительского элемента, дающего начало ветви. \param[in] sb Саббенд, содержащий элемент <i>branch</i> \param[in] lambda Параметр <i>lambda</i> который участвует в вычислении <i>RD</i> функции и представляет собой баланс между <i>R (rate)</i> и <i>D (distortion)</i> частями функции <i>Лагранжа</i>. \return Групповой признак подрезания ветвей Алгоритм оптимизации топологии подробно описан в <i>35.pdf</i> \note Функция применима для всех ветвей (как берущих начало в <i>LL</i> саббенде, так и для всех остальных). */ encoder::_branch_topology_t encoder::_optimize_branch_topology(const p_t &branch, const subbands::subband_t &sb, const lambda_t &lambda) { // получение дочернего саббенда const sz_t lvl_j = sb.lvl + subbands::LVL_NEXT; const subbands::subband_t &sb_j = _wtree.sb().get(lvl_j, sb.i); // выбор модели для кодирования групповых признаков подрезания const sz_t model = _ind_map<wnode::member_wc>(branch, sb_j); // поиск наиболее оптимальной топологии wtree::n_iterator i = _wtree.iterator_through_n(sb.lvl); // первая итерация цикла поиска _branch_topology_t optim_topology; optim_topology.n = i->get(); optim_topology.j = _topology_calc_j_uni(branch, optim_topology.n); // последующие итерации for (i->next(); !i->end(); i->next()) { const n_t &n = i->get(); const j_t j_sum = _topology_calc_j_uni(branch, n); const j_t j = (j_sum + lambda * _h_map(model, n)); if (j < optim_topology.j) { optim_topology.j = j; optim_topology.n = n; } } return optim_topology; } /*! \param[in] root Координаты корневого элемента \param[in] virtual_encode Если <i>true</i>, то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). Функция выполняет кодирование: - Коэффициента при корневом элементе - Группового признака подрезания при корневом элементе - Коэффициентов принадлежащих дереву с первого уровня разложения */ void encoder::_encode_tree_root(const p_t &root, const bool virtual_encode) { // получение корневого элемента const wnode &root_node = _wtree.at(root); // определение модели, используемой для кодирования коэффициента const sz_t spec_model = _ind_spec(0, subbands::LVL_0); // закодировать коэффициент с нулевого уровня #ifdef USE_DPCM_FOR_LL_SUBBAND const subbands::subband_t &sb_LL = _wtree.sb().get_LL(); const wk_t wc_p = _wtree.dpcm_predict<wnode::member_wc>(root, sb_LL); #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS _encode_spec_se(dpcm::encode(root_node.wc, wc_p), spec_model, 0, virtual_encode); #else _encode_spec(spec_model, dpcm::encode(root_node.wc, wc_p), virtual_encode); #endif #else #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS _encode_spec_se(root_node.wc, spec_model, 0, virtual_encode); #else _encode_spec(spec_model, root_node.wc, virtual_encode); #endif #endif // определение модели для кодирования признака подрезания const sz_t map_model = _ind_map(0, subbands::LVL_0); // закодировать групповой признак подрезания с нулевого уровня _encode_map(map_model, root_node.n, virtual_encode); #ifdef LIBWIC_USE_DBG_SURFACE // запись отладочной информации о закодированном коэффициенте и признаке // подрезания wicdbg::dbg_pixel &dbg_pixel = _dbg_opt_surface.get(root); dbg_pixel.wc = root_node.wc; dbg_pixel.wc_model = spec_model; dbg_pixel.n = root_node.n; dbg_pixel.n_model = map_model; #endif // кодирование дочерних коэффициентов с первого уровня for (wtree::coefs_iterator i = _wtree.iterator_over_LL_children(root); !i->end(); i->next()) { // координаты элемента const p_t &p = i->get(); // определение модели, используемой для кодирования коэффициента const sz_t spec_model = _ind_spec(0, subbands::LVL_1); #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS const sz_t sign_model = _ind_sign<wnode::member_wc>(p); #endif // ссылка на кодируемый коэффициент const wk_t &wc = _wtree.at(p).wc; // закодировать коэффициенты с первого уровня #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS _encode_spec_se(wc, spec_model, sign_model, virtual_encode); #else _encode_spec(spec_model, wc, virtual_encode); #endif #ifdef LIBWIC_USE_DBG_SURFACE // запись отладочной информации о закодированном коэффициенте wicdbg::dbg_pixel &dbg_pixel = _dbg_opt_surface.get(p); dbg_pixel.wc = wc; dbg_pixel.wc_model = spec_model; #endif } } /*! \param[in] root Координаты корнвого элемента \param[in] lvl Номер уровня разложения \param[in] virtual_encode Если <i>true</i>, то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). */ void encoder::_encode_tree_leafs(const p_t &root, const sz_t lvl, const bool virtual_encode) { // псевдонимы для номеров уровней const sz_t lvl_g = lvl; const sz_t lvl_j = lvl_g + subbands::LVL_PREV; const sz_t lvl_i = lvl_j + subbands::LVL_PREV; // цикл по саббендам в уровне for (sz_t k = 0; _wtree.sb().subbands_on_lvl(lvl) > k; ++k) { const subbands::subband_t &sb_g = _wtree.sb().get(lvl_g, k); const subbands::subband_t &sb_j = _wtree.sb().get(lvl_j, k); // кодирование коэффициентов for (wtree::coefs_iterator g = _wtree.iterator_over_leafs(root, sb_g); !g->end(); g->next()) { const p_t &p_g = g->get(); wnode &node_g = _wtree.at(p_g); if (node_g.invalid) continue; // Модели арифметического кодера для кодирования коэффициента // и его знака const sz_t spec_model = _ind_spec<wnode::member_wc>(p_g, sb_g); #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS const sz_t sign_model = _ind_sign<wnode::member_wc>(p_g, sb_g); #endif #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS _encode_spec_se(node_g.wc, spec_model, sign_model, virtual_encode); #else _encode_spec(spec_model, node_g.wc, virtual_encode); #endif #ifdef LIBWIC_USE_DBG_SURFACE // Запись кодируемого коэффициента в отладочную поверхность wicdbg::dbg_pixel &dbg_pixel = _dbg_opt_surface.get(p_g); dbg_pixel.wc = node_g.wc; dbg_pixel.wc_model = spec_model; #endif } // на предпоследнем уровне нет групповых признаков подрезания if (_wtree.lvls() == lvl) continue; // кодирование групповых признаков подрезания for (wtree::coefs_iterator j = _wtree.iterator_over_leafs(root, sb_j); !j->end(); j->next()) { const p_t &p_j = j->get(); const p_t &p_i = _wtree.prnt_uni(p_j); const wnode &node_i = _wtree.at(p_i); // маска подрезания, где текущий элемент не подрезан const n_t mask = _wtree.child_n_mask_uni(p_j, p_i); // переходим к следующему потомку, если ветвь подрезана if (!_wtree.test_n_mask(node_i.n, mask)) continue; wnode &node_j = _wtree.at(p_j); const sz_t model = _ind_map<wnode::member_wc>(p_j, sb_g); _encode_map(model, node_j.n, virtual_encode); #ifdef LIBWIC_USE_DBG_SURFACE // Запись признака подрезания в отладочную поверхность wicdbg::dbg_pixel &dbg_pixel = _dbg_opt_surface.get(p_j); dbg_pixel.n = node_j.n; dbg_pixel.n_model = model; #endif } } } /*! \param[in] root Координаты корневого элемента дерева \param[in] virtual_encode Если <i>true</i>, то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). */ void encoder::_encode_tree(const p_t &root, const bool virtual_encode) { // кодирование корневого и дочерних элементов дерева _encode_tree_root(root, virtual_encode); // кодирование элементов дерева на остальных уровнях const sz_t first_lvl = subbands::LVL_1 + subbands::LVL_NEXT; const sz_t final_lvl = _wtree.lvls(); for (sz_t lvl = first_lvl; final_lvl >= lvl; ++lvl) { _encode_tree_leafs(root, lvl, virtual_encode); } } /*! \param[in] decode_mode Если <i>false</i> функция будет выполнять кодирование спектра, иначе (если <i>true</i>) будет выполнять декодирование спектра. */ void encoder::_encode_wtree_root(const bool decode_mode) { // LL cаббенд const subbands::subband_t &sb_LL = _wtree.sb().get_LL(); // модели для кодирования в LL саббенде const sz_t spec_LL_model = _ind_spec(0, sb_LL.lvl); const sz_t map_LL_model = _ind_map(0, sb_LL.lvl); #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS static const sz_t sign_LL_model = 0; #endif // (де)кодирование коэффициентов и групповых признаков подрезания // из LL саббенда for (wtree::coefs_iterator i = _wtree.iterator_over_subband(sb_LL); !i->end(); i->next()) { // координаты элемента const p_t &p_i = i->get(); // сам элемент из LL саббенда wnode &node = _wtree.at(p_i); #ifdef USE_DPCM_FOR_LL_SUBBAND // Подсчёт прогнозного значения для коэффициента const wk_t wc_p = _wtree.dpcm_predict<wnode::member_wc>(p_i, sb_LL); #endif if (decode_mode) { // декодирование коэффициента #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS node.wc = _decode_spec_se(spec_LL_model, sign_LL_model); #else node.wc = _decode_spec(spec_LL_model);; #endif // Необходимо скорректировать декодированный коэффициент если для // LL саббенда используется ДИКМ #ifdef USE_DPCM_FOR_LL_SUBBAND node.wc = dpcm::decode(node.wc, wc_p); #endif // декодирование признака подрезания ветвей node.n = _decode_map(map_LL_model); // порождение ветвей в соответствии с полученным признаком // подрезания _wtree.uncut_leafs(p_i, node.n); } else { // кодирование коэффициента #ifdef USE_DPCM_FOR_LL_SUBBAND const wk_t spec_v = dpcm::encode(node.wc, wc_p); #else const wk_t &spec_v = node.wc; #endif #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS _encode_spec_se(spec_v, spec_LL_model, sign_LL_model); #else _encode_spec(spec_LL_model, spec_v); #endif // кодирование признака подрезания _encode_map(map_LL_model, node.n); #ifdef LIBWIC_USE_DBG_SURFACE // запись информации о кодируемых коэффициентов и признаках // подрезания в отладочную поверхность wicdbg::dbg_pixel &dbg_pixel = _dbg_enc_surface.get(p_i); dbg_pixel.wc = node.wc; dbg_pixel.wc_model = spec_LL_model; dbg_pixel.n = node.n; dbg_pixel.n_model = map_LL_model; #endif } } // модель для кодирования коэффициентов с первого уровня const sz_t spec_1_model = _ind_spec(0, subbands::LVL_1); // (де)кодирование коэффициентов из саббендов первого уровня for (sz_t k = 0; subbands::SUBBANDS_ON_LEVEL > k; ++k) { // очередной саббенд с первого уровня const subbands::subband_t &sb = _wtree.sb().get(subbands::LVL_1, k); // цикл по всем элементам из саббенда с первого уровня for (wtree::coefs_iterator i = _wtree.iterator_over_subband(sb); !i->end(); i->next()) { // координаты (де)кодируемого элемента в спектре const p_t &p = i->get(); // модель для (де)кодирования знака коэффициента #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS const sz_t sign_model = _ind_sign<wnode::member_wc>(p, sb); #endif // ссылка на (де)кодируемый коэффициент wk_t &wc = _wtree.at(p).wc; // (де)кодирование дочерендного коэффициента if (decode_mode) { #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS wc = _decode_spec_se(spec_1_model, sign_model); #else wc = _decode_spec(spec_1_model); #endif } else { #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS _encode_spec_se(wc, spec_1_model, sign_model); #else _encode_spec(spec_1_model, wc); #endif // запись информации о кодируемом коэффициенте в отладочную // поверхность #ifdef LIBWIC_USE_DBG_SURFACE wicdbg::dbg_pixel &dbg_pixel = _dbg_enc_surface.get(p); dbg_pixel.wc = wc; dbg_pixel.wc_model = spec_1_model; #endif } } } } /*! \param[in] lvl Номер уровня, коэффициенты на котором будут закодированы \param[in] decode_mode Если <i>false</i> функция будет выполнять кодирование спектра, иначе (если <i>true</i>) будет выполнять декодирование спектра. \todo Возможно не стоит делать wtree::uncut_leafs() при попадании в подрезанную ветвь при кодирование групповыйх признаков подрезания. Вместо этого можно перед декодированием проинициализировать все поля wnode::invalid значением <i>true</i> */ void encoder::_encode_wtree_level(const sz_t lvl, const bool decode_mode) { // определение псевдонимов для номеров уровней const sz_t lvl_g = lvl; const sz_t lvl_j = lvl_g + subbands::LVL_PREV; const sz_t lvl_i = lvl_j + subbands::LVL_PREV; // цикл по саббендам на уровне for (sz_t k = 0; _wtree.sb().subbands_on_lvl(lvl) > k; ++k) { // саббенд на уровне коэффициенты из которого будут // закодированы и родительский для для него const subbands::subband_t &sb_g = _wtree.sb().get(lvl_g, k); const subbands::subband_t &sb_j = _wtree.sb().get(lvl_j, k); // кодирование коэффициентов for (wtree::coefs_iterator g = _wtree.iterator_over_subband(sb_g); !g->end(); g->next()) { // координаты элемента const p_t &p_g = g->get(); // сам элемент wnode &node_g = _wtree.at(p_g); // переходим к следующему, если коэффициента попал в // подрезанную ветвь if (node_g.invalid) continue; // выбираем модель для (де)кодирования коэффициента и его знака const sz_t spec_model = _ind_spec<wnode::member_wc>(p_g, sb_g); #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS const sz_t sign_model = _ind_sign<wnode::member_wc>(p_g, sb_g); #endif // (де)кодирование коэффициента if (decode_mode) { #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS node_g.wc = _decode_spec_se(spec_model, sign_model); #else node_g.wc = _decode_spec(spec_model); #endif // запись информации о кодируемом коэффициенте в отладочную // поверхность #ifdef LIBWIC_USE_DBG_SURFACE wicdbg::dbg_pixel &dbg_pixel = _dbg_dec_surface.get(p_g); dbg_pixel.wc = node_g.wc; dbg_pixel.wc_model = spec_model; #endif } else { #ifdef ENCODE_SIGN_IN_SEPARATE_MODELS _encode_spec_se( node_g.wc, spec_model, sign_model); #else _encode_spec(spec_model, node_g.wc); #endif #ifdef LIBWIC_USE_DBG_SURFACE // запись информации о кодируемом коэффициенте в отладочную // поверхность wicdbg::dbg_pixel &dbg_pixel = _dbg_enc_surface.get(p_g); dbg_pixel.wc = node_g.wc; dbg_pixel.wc_model = spec_model; #endif } } // на предпоследнем уровне нет групповых признаков подрезания if (_wtree.lvls() == lvl) continue; // кодирование групповых признаков подрезания for (wtree::coefs_iterator j = _wtree.iterator_over_subband(sb_j); !j->end(); j->next()) { // координаты элемента const p_t &p_j = j->get(); // координаты родительского элемента const p_t &p_i = _wtree.prnt_uni(p_j); // ссылка на родительский элемент const wnode &node_i = _wtree.at(p_i); // маска подрезания, где текущий элемент не подрезан const n_t mask = _wtree.child_n_mask_uni(p_j, p_i); // переходим к следующему потомку, если ветвь подрезана if (!_wtree.test_n_mask(node_i.n, mask)) continue; // значение элемента wnode &node_j = _wtree.at(p_j); // выбор модели для кодирования группового признака подрезания const sz_t model = _ind_map<wnode::member_wc>(p_j, sb_g); if (decode_mode) { // декодирование признака подрезания node_j.n = _decode_map(model); // порождение ветвей в соответствии с полученным признаком // подрезания _wtree.uncut_leafs(p_j, node_j.n); #ifdef LIBWIC_USE_DBG_SURFACE // запись информации о групповом признаке подрезания в // отладочную поверхность wicdbg::dbg_pixel &dbg_pixel = _dbg_dec_surface.get(p_j); dbg_pixel.n = node_j.n; dbg_pixel.n_model = model; #endif } else { // кодирование признака подрезания _encode_map(model, node_j.n); #ifdef LIBWIC_USE_DBG_SURFACE // запись информации о групповом признаке подрезания в // отладочную поверхность wicdbg::dbg_pixel &dbg_pixel = _dbg_enc_surface.get(p_j); dbg_pixel.n = node_j.n; dbg_pixel.n_model = model; #endif } } } } /*! \param[in] decode_mode Если <i>false</i> функция будет выполнять кодирование спектра, иначе (если <i>true</i>) будет выполнять декодирование спектра. */ void encoder::_encode_wtree(const bool decode_mode) { #ifdef LIBWIC_USE_DBG_SURFACE // очистка отладочной поверхности, если производится кодирование if (!decode_mode) { _dbg_enc_surface.clear(); } else { _dbg_dec_surface.clear(); } #endif // (де)кодирование корневых элементов _encode_wtree_root(decode_mode); // (де)кодирование остальных элементов const sz_t first_lvl = subbands::LVL_1 + subbands::LVL_NEXT; const sz_t final_lvl = _wtree.lvls(); // цикл по уровням for (sz_t lvl = first_lvl; final_lvl >= lvl; ++lvl) { _encode_wtree_level(lvl, decode_mode); } #ifdef LIBWIC_USE_DBG_SURFACE // запись отладочной поверхности в файл if (!decode_mode) { _dbg_enc_surface.save<wicdbg::dbg_pixel::member_wc> ("dumps/[encoder]dbg_enc_suface.wc.bmp", true); _dbg_enc_surface.save<wicdbg::dbg_pixel::member_wc> ("dumps/[encoder]dbg_enc_suface.wc.txt", false); _dbg_enc_surface.save<wicdbg::dbg_pixel::member_wc_model> ("dumps/[encoder]dbg_enc_suface.wc_model.bmp", true); _dbg_enc_surface.save<wicdbg::dbg_pixel::member_n> ("dumps/[encoder]dbg_enc_suface.n.bmp", true); _dbg_opt_surface.diff<wicdbg::dbg_pixel::member_wc_model> (_dbg_enc_surface, "dumps/[encoder]dbg_suface.wc_model.diff"); } else { _dbg_dec_surface.save<wicdbg::dbg_pixel::member_wc> ("dumps/[decoder]dbg_dec_suface.wc.bmp", true); _dbg_dec_surface.save<wicdbg::dbg_pixel::member_wc> ("dumps/[decoder]dbg_dec_suface.wc.txt", false); _dbg_dec_surface.save<wicdbg::dbg_pixel::member_wc_model> ("dumps/[decoder]dbg_dec_suface.wc_model.bmp", true); _dbg_dec_surface.save<wicdbg::dbg_pixel::member_n> ("dumps/[decoder]dbg_dec_suface.n.bmp", true); } #endif } /*! \param[in] root Координаты корневого элемента рассматриваемого дерева \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. На первом шаге кодирования выполняется корректировка коэффициентов на самом последнем (с наибольшей площадью) уровне разложения и последующий расчёт <i>RD-функций Лагранжа</i> для вариантов сохранения и подрезания оконечных листьев дерева. */ void encoder::_optimize_tree_step_1(const p_t &root, const lambda_t &lambda) { // просматриваются все узлы предпоследнего уровня const sz_t lvl_i = _wtree.sb().lvls() + subbands::LVL_PREV; const sz_t lvl_j = _wtree.sb().lvls(); // цикл по саббендам for (sz_t k = 0; subbands::SUBBANDS_ON_LEVEL > k; ++k) { const subbands::subband_t &sb_i = _wtree.sb().get(lvl_i, k); const subbands::subband_t &sb_j = _wtree.sb().get(lvl_j, k); // цикл по элементам из предпоследнего уровня дерева for (wtree::coefs_iterator i = _wtree.iterator_over_leafs(root, sb_i); !i->end(); i->next()) { // родительский элемент из предпоследнего уровня const p_t &p = i->get(); // Шаг 1.1. Корректировка проквантованных коэффициентов _coefs_fix(p, sb_j, lambda); // Шаг 1.2. Расчет RD-функций Лагранжа для вариантов сохранения и // подрезания листьев _prepare_j(p, sb_j, lambda); } } } /*! \param[in] root Координаты корневого элемента дерева \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. */ void encoder::_optimize_tree_step_2(const p_t &root, const lambda_t &lambda) { // Шаги 2.1 - 2.5 ---------------------------------------------------------- // цикл по уровням for (sz_t lvl_i = _wtree.sb().lvls() + 2*subbands::LVL_PREV; 0 < lvl_i; --lvl_i) { const sz_t lvl_j = lvl_i + subbands::LVL_NEXT; // цикл по саббендам for (sz_t k = 0; subbands::SUBBANDS_ON_LEVEL > k; ++k) { // получение ссылок на саббенды const subbands::subband_t &sb_i = _wtree.sb().get(lvl_i, k); const subbands::subband_t &sb_j = _wtree.sb().get(lvl_j, k); // цикл по родительским элементам for (wtree::coefs_iterator i = _wtree.iterator_over_leafs(root, sb_i); !i->end(); i->next()) { const p_t &p = i->get(); // Шаг 2.1. Определение оптимальной топологии ветвей const _branch_topology_t optim_topology = _optimize_branch_topology(p, sb_i, lambda); // Шаг 2.2. Изменение топологии дерева _wtree.cut_leafs<wnode::member_wc>(p, optim_topology.n); // Шаг 2.3. Корректировка проквантованных коэффициентов _coefs_fix(p, sb_j, lambda); // Шаг 2.4. Подготовка для просмотра следующего уровня _prepare_j(p, sb_j, optim_topology.j, lambda); } } // на всякий случай, если какой-нить фрик сделает sz_t беззнаковым // типом :^) // if (0 == lvl) break; } } /*! \param[in] root Координаты корневого элемента дерева \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. */ void encoder::_optimize_tree_step_3(const p_t &root, const lambda_t &lambda) { const subbands::subband_t &sb_LL = _wtree.sb().get_LL(); // Шаг 2.6. Определение оптимальной топологии ветвей const _branch_topology_t optim_topology = _optimize_branch_topology(root, sb_LL, lambda); // Шаг 2.7. Изменение топологии дерева _wtree.cut_leafs<wnode::member_wc>(root, optim_topology.n); // шаг 3. Вычисление RD-функции Лагранжа для всего дерева _calc_jx_value(root, optim_topology.j, lambda); } /*! \param[in] root Координаты корневого элемента дерева \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. \return Значение <i>RD-функций Лагранжа</i> для дерева Для корректной работы функции необходимо, чтобы в дереве все ветви были отмечены как подрезанные, а элементы как корректные. Значения функций <i>Лагранжа</i> в спектре должны быть обнулены. Арифметический кодер должен быть настроен на корректные модели (смотри acoder::use()). \note Необходимую подготовку выполняет функция wnode::filling_refresh(), при условии, что поля wnode::w и wnode::wq корректны. */ j_t encoder::_optimize_tree(const p_t &root, const lambda_t &lambda) { _optimize_tree_step_1(root, lambda); _optimize_tree_step_2(root, lambda); _optimize_tree_step_3(root, lambda); const j_t j = _wtree.at(root).j1; if (0 != _optimize_tree_callback) { _optimize_tree_callback(root, _optimize_tree_callback_param); } return j; } /*! \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. \param[in] refresh_wtree Если <i>true</i>, то перед началом кодирования будет вызвана функция wtree::filling_refresh(), которая сбросит спекрт в начальное состояние. Используется при выполнении нескольких операций оптимизации над одним спектром (например, в целях подбора оптимального значение параметра <i>lambda</i>). \param[in] virtual_encode Если <i>true</i>, то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). При включённом виртуальном кодировании, поле _optimize_result_t::bpp выставляется в 0, так как без проведения реального кодирование невозможно оценить битовые затраты. \param[in] precise_bpp Если <i>true</i>, то после этапа оптимизации будет проведён этап уточнения битовых затрат, заключающийся в том, что модели арифметического кодера будут уменьшены функцией _setup_acoder_post_models(), а затем будет произведено реальное кодирование всех деревьев спектра (с оптимизированной топологией). См. функцию _real_encode_tight() для дополнительной информации. Стоит очень осторожно относиться к этому параметру, так как при выставлении его в <i>true</i> модели арифметического кодера изменяются, что затрудняет использование этой функции в процедурах подбора параметров кодирования. Однако, также есть и приемущества. Если параметр выставлен в <i>true</i>, то после проведённой оптимизации можно не производить реальное кодирование, так как оно уже сделано (о чем будет указывать поле результата optimize_result_t::real_encoded). \return Результат проведённой оптимизации Для корректной работы этой функции необходимо, чтобы поля wnode::w и wnode::wq элементов спектра были корректны. В спектре все ветви должны быть отмечены как подрезанные, а элементы как корректные. Значения функций <i>Лагранжа</i> в спектре должны быть обнулены. Арифметический кодер должен быть настроен на корректные модели (смотри acoder::use()). \note Необходимую подготовку выполняет функция wtree::filling_refresh(), при условии, что поля wnode::w и wnode::wq корректны. \note Если определён макрос #LIBWIC_DEBUG, функция будет выводить специальную отладочную информацию. */ encoder::optimize_result_t encoder::_optimize_wtree(const lambda_t &lambda, const bool refresh_wtree, const bool virtual_encode, const bool precise_bpp) { // Инициализация возвращаемого результата optimize_result_t result; result.q = _wtree.q(); result.lambda = lambda; result.j = 0; result.bpp = 0; result.models.version = MODELS_DESC_NONE; result.real_encoded = false; // Обновление дерева вейвлет коэффициентов (если требуется) if (refresh_wtree) _wtree.filling_refresh(); #ifdef LIBWIC_USE_DBG_SURFACE // Очистка отладочной поверхности _dbg_opt_surface.clear(); #endif // Оптимизация топологии ветвей с кодированием _acoder.encode_start(); for (wtree::coefs_iterator i = _wtree.iterator_over_subband(_wtree.sb().get_LL()); !i->end(); i->next()) { // корень очередного дерева коэффициентов вейвлет преобразования const p_t &root = i->get(); // оптимизация топологии отдельной ветви result.j += _optimize_tree(root, lambda); // кодирование отдельной ветви _encode_tree(root, virtual_encode); } _acoder.encode_stop(); #ifdef LIBWIC_USE_DBG_SURFACE // Сохранение полей отладочной поверхности в файлы _dbg_opt_surface.save<wicdbg::dbg_pixel::member_wc> ("dumps/[encoder]dbg_opt_suface.wc.bmp", true); _dbg_opt_surface.save<wicdbg::dbg_pixel::member_wc_model> ("dumps/[encoder]dbg_opt_suface.wc_model.bmp", true); _dbg_opt_surface.save<wicdbg::dbg_pixel::member_n> ("dumps/[encoder]dbg_opt_suface.n.bmp", true); #endif // подсчёт bpp, если производилось реальное кодирование if (precise_bpp) { result.bpp = _real_encode_tight(result.models); result.real_encoded = true; } else if (!virtual_encode) { result.bpp = _calc_encoded_bpp(); } // вывод отладочной информации #ifdef LIBWIC_DEBUG if (_dbg_out_stream.good()) { _dbg_out_stream << "[OWTR]:"; _dbg_out_stream << " q: " << std::setw(8) << _wtree.q(); _dbg_out_stream << " lambda: " << std::setw(8) << lambda; _dbg_out_stream << " j: " << std::setw(8) << result.j; _dbg_out_stream << " bpp: " << std::setw(8) << result.bpp; _dbg_out_stream << std::endl; } #endif // обратный вызов пользовательской функции if (0 != _optimize_callback) { _optimize_callback(result, _optimize_callback_param); } // возврат результата return result; } /*! \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. \param[in] models Описание моделей арифметического кодера, которые необходимо использовать для проведения оптимизации \param[in] refresh_wtree Если <i>true</i>, то перед началом кодирования будет вызвана функция wtree::filling_refresh(), которая сбросит спекрт в начальное состояние. Используется при выполнении нескольких операций оптимизации над одним спектром (например, в целях подбора оптимального значение параметра <i>lambda</i>). \param[in] virtual_encode Если <i>true</i>, то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). При включённом виртуальном кодировании, поле _optimize_result_t::bpp выставляется в 0, так как без проведения реального кодирование невозможно оценить битовые затраты. \param[in] precise_bpp Если <i>true</i>, то после этапа оптимизации будет проведён этап уточнения битовых затрат, заключающийся в том, что модели арифметического кодера будут уменьшены функцией _setup_acoder_post_models(), а затем будет произведено реальное кодирование всех деревьев спектра (с оптимизированной топологией). См. функцию _real_encode_tight() для дополнительной информации. Стоит очень осторожно относиться к этому параметру, так как при выставлении его в <i>true</i> модели арифметического кодера изменяются, что затрудняет использование этой функции в процедурах подбора параметров кодирования. Однако, также есть и приемущества. Если параметр выставлен в <i>true</i>, то после проведённой оптимизации можно не производить реальное кодирование, так как оно уже сделано (о чем будет указывать поле результата optimize_result_t::real_encoded). \sa _optimize_wtree() */ encoder::optimize_result_t encoder::_optimize_wtree_m(const lambda_t &lambda, const models_desc_t &models, const bool refresh_wtree, const bool virtual_encode, const bool precise_bpp) { // Установка моделей арифметического кодера _acoder.use(_mk_acoder_models(models)); // проведение оптимизации топологии return _optimize_wtree(lambda, refresh_wtree, virtual_encode, precise_bpp); } /*! \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD</i> критерия (функции Лагранжа). Представляет собой баланс между ошибкой и битовыми затратами. \param[in] q Квантователь \param[in] virtual_encode Если <i>true</i> то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). \param[in] precise_bpp Если <i>true</i>, будет произведено уточнение битовых затрат путем проведения реального кодирования с ужатыми моделями арифметического кодера (см. _real_encode_tight). В этом случае, после этапа оптимизации нет нужды производить реальное кодирование, так как оно уже произведено функцией _real_encode_tight. Однако следует обратить внимание, что текущие модели арифметического кодера после выполнения функции изменяются. \return Результат проведённой оптимизации Эта версия функции <i>%encoder::_optimize_wtree()</i> сама производит квантование и настройку моделей арифметического кодера. Для корректной работы функции достаточно загруженных коэффициентов в поле wnode::w элементов спектра. */ encoder::optimize_result_t encoder::_optimize_wtree_q(const lambda_t &lambda, const q_t &q, const bool virtual_encode, const bool precise_bpp) { // квантование коэффициентов _wtree.quantize(q); // загрузка моделей в арифметический кодер const models_desc_t models = _setup_acoder_models(false); // оптимизация топологии ветвей optimize_result_t result = _optimize_wtree_m(lambda, models, false, virtual_encode, precise_bpp); // Сохранение описания моделей арифметического кодера if (MODELS_DESC_NONE == result.models.version) { result.models = models; } // возврат результата return result; } /*! \param[in] lambda Параметр <i>lambda</i> используемый для вычисления <i>RD критерия</i> (<i>функции Лагранжа</i>). Представляет собой баланс между ошибкой и битовыми затратами. Меньшие значения <i>lambda</i> соответствуют большему значению результиру<i>bpp</i>. \param[in] q_min Нижняя граница интервала поиска (минимальное значение) \param[in] q_max Верхняя граница интервала поиска (максимальное значение) \param[in] q_eps Необходимая погрешность определения квантователя <i>q</i> при котором значение <i>RD функции Лагранжа</i> минимально (при фиксированном параметре <i>lambda</i>). \param[in] j_eps Необходимая погрешность нахождения минимума <i>RD функции Лагранжа</i>. Так как абсолютная величина функции <i>J</i> зависит от многих факторов (таких как размер изображения, его тип, величины параметра <i>lambda</i>), использовать это параметр затруднительно. Поэтому его значение по умолчанию равно <i>0</i>, чтобы при поиске оптимального квантователя учитывалась только погрешность параметра <i>q</i>. \param[in] virtual_encode Если <i>true</i> то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). Виртуальное кодирование немного быстрее, но его использование делает невозможным определение средних битовых затрат на кодирование одного пиксела изображения. \param[in] max_iterations Максимальное количество итераций нахождения минимума <i>RD функции Лагранжа</i>. Если это значение равно <i>0</i>, количество выполняемых итераций не ограничено. \param[in] precise_bpp Если <i>true</i>, при выполнении операции оптимизации топологии будет производиться уточнение битовых затрат путем проведения реального кодирования с ужатыми моделями арифметического кодера (см. _real_encode_tight). В этом случае, после этапа оптимизации нет нужды производить реальное кодирование, так как оно уже произведено функцией _real_encode_tight. \return Результат произведённого поиска Данная функция использует метод золотого сечения для поиска минимума <i>RD функции Лагранжа</i>: \verbatim j|___ ______/ | \_ __/ | | \___ / | | | \____ / | | | | \___ ______/ | | | | \_/ | | | | | | | | ---+-------+---+-------+------+---------+----------> q 0| a b j_min c d \endverbatim \note Для корректной работы этой функции необходимо, чтобы поле wnode::w элементов спектра было корректно. Для этого можно использовать функцию wtree::load_field(). \note Если определён макрос #LIBWIC_DEBUG, функция будет выводить специальную отладочную информацию. */ encoder::optimize_result_t encoder::_search_q_min_j(const lambda_t &lambda, const q_t &q_min, const q_t &q_max, const q_t &q_eps, const j_t &j_eps, const bool virtual_encode, const sz_t &max_iterations, const bool precise_bpp) { // проверка утверждений assert(0 <= lambda); assert(1 <= q_min && q_min <= q_max); assert(0 <= q_eps && 0 <= j_eps); // коэффициенты золотого сечения static const q_t factor_b = (q_t(3) - sqrt(q_t(5))) / q_t(2); static const q_t factor_c = (sqrt(q_t(5)) - q_t(1)) / q_t(2); // установка диапазона для поиска q_t q_a = q_min; q_t q_d = q_max; // вычисление значений в первых двух точках q_t q_b = q_a + factor_b * (q_d - q_a); q_t q_c = q_a + factor_c * (q_d - q_a); optimize_result_t result_b = _optimize_wtree_q(lambda, q_b, virtual_encode, precise_bpp); optimize_result_t result_c = _optimize_wtree_q(lambda, q_c, virtual_encode, precise_bpp); // запоминание предыдущего и последнего результатов optimize_result_t result_prev = result_b; optimize_result_t result = result_c; // подсчёт количества итераций sz_t iterations = 0; // поиск оптимального значения q for (;;) { // проверка, достигнута ли нужная точность if (q_eps >= abs(q_c - q_b) || j_eps >= abs(result.j - result_prev.j)) { break; } if (0 < max_iterations && max_iterations <= iterations) { break; } // скоро будет получен новый результат result_prev = result; // выбор очередного значения q if (result_b.j < result_c.j) { q_d = q_c; q_c = q_b; q_b = q_a + factor_b*(q_d - q_a); result_c = result_b; result = result_b = _optimize_wtree_q(lambda, q_b, virtual_encode, precise_bpp); } else { q_a = q_b; q_b = q_c; q_c = q_a + factor_c*(q_d - q_a); result_b = result_c; result = result_c = _optimize_wtree_q(lambda, q_c, virtual_encode, precise_bpp); } // увеличение количества итераций ++iterations; } // вывод отладочной информации #ifdef LIBWIC_DEBUG if (_dbg_out_stream.good()) { _dbg_out_stream << "[SQMJ]:"; _dbg_out_stream << " q: " << std::setw(8) << result.q; _dbg_out_stream << " lambda: " << std::setw(8) << result.lambda; _dbg_out_stream << " j: " << std::setw(8) << result.j; _dbg_out_stream << " bpp: " << std::setw(8) << result.bpp; _dbg_out_stream << std::endl; } #endif // возвращение полученного результата return result; } /*! \param[in] bpp Необходимый битрейт (Bits Per Pixel), для достижения которого будет подбираться параметр <i>lambda</i> \param[in] bpp_eps Необходимая точность, c которой <i>bpp</i> полученный в результате поиска параметра <i>lambda</i> будет соответствовать заданному. \param[in] lambda_min Нижняя граница интервала поиска (минимальное значение) \param[in] lambda_max Верхняя граница интервала поиска (максимальное значение) \param[in] lambda_eps Точность, с которой будет подбираться параметр <i>lambda</i>. \param[in] virtual_encode Если <i>true</i> то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). \param[in] max_iterations Максимальное количество итераций нахождения минимума <i>RD функции Лагранжа</i>. Если это значение равно <i>0</i>, количество выполняемых итераций не ограничено. \param[in] precise_bpp Если <i>true</i>, при выполнении операции оптимизации топологии будет производиться уточнение битовых затрат путем проведения реального кодирования с ужатыми моделями арифметического кодера (см. _real_encode_tight). В этом случае, после этапа оптимизации нет нужды производить реальное кодирование, так как оно уже произведено функцией _real_encode_tight. \return Результат проведённого поиска. Возможна ситуация, когда нужная <i>lambda</i> лежит вне указанного диапазона. В этом случае, функция подберёт такую <i>lambda</i>, которая максимально удовлетворяет условиям поиска. Поиск оптимального значения <i>lambda</i> производится дихотомией (методом половинного деления). Поиск будет считаться успешным, если найдено такое значение <i>lambda</i>, при котором полученный <i>bpp</i> меньше чем на <i>bpp_eps</i> отличается от заданного <i>или</i> в процессе поиска диапазон значений <i>lambda</i> сузился до <i>lambda_eps</i>. Меньшие значения <i>lambda</i> соответствуют большему значению <i>bpp</i>: \verbatim |_____ | \________ | | \_________ bpp+-------+----------------\----------------------- | | \_______ | | | \______________ ---+-------+-------------------+-------------------- 0| lambda_min lambda_max \endverbatim \note Для корректной работы этой функции необходимо, чтобы поля wnode::w и wnode::wq элементов спектра были корректны. Для этого можно использовать функцию wtree::cheap_load(). Также очень важно, чтобы модели арифметического кодера были хорошо настроены (а их начальные характеристика запомнены). Для этого можно воспользоваться кодом следующего вида: \code // описание моделей, которое будет использовано в дальнейшем при // декодировании models_desc_t models; // создание описания моделей исходя из характеристик спектра models = _mk_acoder_smart_models(); // конвертация описания моделей в формат приемлемый для арифметического // кодера и предписание ему начать использовать полученные модели для // кодирования или декодирования _acoder.use(_mk_acoder_models(models)); \endcode \note Если определён макрос #LIBWIC_DEBUG, функция будет выводить специальную отладочную информацию. */ encoder::optimize_result_t encoder::_search_lambda_at_bpp( const h_t &bpp, const h_t &bpp_eps, const lambda_t &lambda_min, const lambda_t &lambda_max, const lambda_t &lambda_eps, const bool virtual_encode, const sz_t &max_iterations, const bool precise_bpp) { // проверка утверждений assert(0 < bpp); assert(0 <= lambda_min && lambda_min <= lambda_max); assert(0 <= bpp_eps && 0 <= lambda_eps); // установка диапазона для поиска lambda_t lambda_a = lambda_min; lambda_t lambda_b = lambda_max; // Запоминание текущих моделей арифметического кодера const acoder::models_t original_models = _acoder.models(); // результат последней оптимизации optimize_result_t result; result.q = 0; result.lambda = 0; result.j = 0; result.bpp = 0; result.real_encoded = false; // счётчик итераций sz_t iterations = 0; // небольшая хитрость, позволяющая использовать удобный оператор // break do { // вычисление значений bpp на левой границе диапазона. Тут нет нужды // использовать функцию _optimize_wtree_m() так как модели // арифметического кодера ещё не испорчены optimize_result_t result_a = _optimize_wtree(lambda_a, true, virtual_encode, precise_bpp); // проверка на допустимость входного диапазона if (result_a.bpp <= (bpp + bpp_eps)) { result = result_a; break; } // восстановление моделей арифметического кодера, если они были // изменены функцией оптимизации топологии _restore_spoiled_models(result_a, original_models); // вычисление значений bpp на правой границе диапазона optimize_result_t result_b = _optimize_wtree(lambda_b, true, virtual_encode, precise_bpp); // проверка на допустимость входного диапазона if (result_b.bpp >= (bpp - bpp_eps)) { result = result_b; break; } // Внимание: здесь переменная result не обязательно инициализированна, // но даже будучи инициализированной она не пригодна для возврата // в качестве результата так как может отражать результат предыдущей // оптимизации, а не последней!!! // Ввиду выше описанного нет ничего повинного в следующей строчке, // которая нужна чтобы упростить дальнейшую логику восстановления // моделей арифметического кодера, для которой необходимо, чтобы в // переменной result был результат последней проведённой оптимизации result = result_b; // поиск оптимального значения lamda (дихотомия) for (;;) { // подсчёт значения bpp для середины диапазона const lambda_t lambda_c = (lambda_b + lambda_a) / 2; // восстановление моделей арифметического кодера, если они были // изменены функцией оптимизации топологии _restore_spoiled_models(result, original_models); // оптимизация топологии ветвей result = _optimize_wtree(lambda_c, true, virtual_encode, precise_bpp); // проверить, достигнута ли нужная точность по bpp if (bpp_eps >= abs(result.bpp - bpp)) break; // проверить, не превышен ли лимит по итерациям if (0 < max_iterations && max_iterations <= iterations) break; // сужение диапазона поиска if (bpp > result.bpp) lambda_b = lambda_c; else lambda_a = lambda_c; // проверить, достигнута ли нужная точность по lambda if (lambda_eps >= abs(lambda_b - lambda_a)) break; // Увеличение счётчика итераций ++iterations; } } while (false); // вывод отладочной информации #ifdef LIBWIC_DEBUG if (_dbg_out_stream.good()) { _dbg_out_stream << "[SLAB]: "; _dbg_out_stream << "q: " << std::setw(8) << result.q; _dbg_out_stream << " lambda: " << std::setw(8) << result.lambda; _dbg_out_stream << " j: " << std::setw(8) << result.j; _dbg_out_stream << " bpp: " << std::setw(8) << result.bpp; _dbg_out_stream << std::endl; } #endif // возвращение полученного результата return result; } /*! \param[in] q Квантователь, который будет использован для квантования спектра вейвлет коэффициентов \param[in] bpp Целевые битовые затраты на кодирование изображения. При поиске параметра <i>lambda</i> функцией _search_lambda_at_bpp() будет использовано это значение в качестве соответствующего аргумента. \param[in] bpp_eps Допустимая погрешность достижения заданных битовых затрат. При поиске параметра <i>lambda</i> функцией _search_lambda_at_bpp() будет использовано это значение в качестве соответствующего аргумента. \param[in] lambda_eps Точность, с которой будет подбираться параметр <i>lambda</i> \param[out] models Описание моделей арифметического кодера, которое необходимо для последующего декодирования изображения \param[out] d Среднеквадратичное отклонение оптимизированного спектра от исходного. Играет роль ошибки, вносимой алгоритмом сжатия. \param[out] deviation Отклонение от заданного <i>bpp</i>. Если результирующий <i>bpp</i> находится в пределах погрешности <i>bpp_eps</i> этот аргумент выставляется в <i>0</i>. Иначе аргумент выставляется в значение разности между желаемым <i>bpp</i> и полученным в процессе поиска параметра <i>lambda</i>. Таким образом, получение отрицательных значений аргумента означает, что полученный <i>bpp</i> больше желаемого и параметр <i>q</i> необходимо увеличить (или поднять верхнию границу диапазона поиска параметра <i>lambda</i>). Если же агрумент получит положительное значение, то параметр <i>q</i> необходимо уменьшить (или опустить нижнию границу диапазона поиска параметра <i>lambda</i>). \param[in] virtual_encode Если <i>true</i> то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). Виртуальное кодирование немного быстрее, но его использование делает невозможным определение средних битовых затрат на кодирование одного пиксела изображения. \param[in] max_iterations Максимальное количество итераций, выполняемых функцией _search_lambda_at_bpp() \param[in] precise_bpp Если <i>true</i>, при выполнении операции оптимизации топологии будет производиться уточнение битовых затрат путем проведения реального кодирования с ужатыми моделями арифметического кодера (см. _real_encode_tight). В этом случае, после этапа оптимизации нет нужды производить реальное кодирование, так как оно уже произведено функцией _real_encode_tight. \return Результат произведённого поиска Параметр <i>lambda</i> будет искаться в диапазоне <i>[LAMBDA_SEARCH_K_LOW*q*q, LAMBDA_SEARCH_K_HIGHT*q*q]</i>. \note Для корректной работы, функции необходимо, чтобы значения полей wnode::w были корректны (содержали в себе коэффициенты исходного спектра). \sa _search_lambda_at_bpp(), _search_q_lambda_for_bpp() */ encoder::optimize_result_t encoder::_search_q_lambda_for_bpp_iter( const q_t &q, const h_t &bpp, const h_t &bpp_eps, const lambda_t &lambda_eps, models_desc_t &models, w_t &d, h_t &deviation, const bool virtual_encode, const sz_t &max_iterations, const bool precise_bpp) { // квантование спектра _wtree.quantize(q); // определение характеристик моделей арифметического кодера models = _setup_acoder_models(); // выбор диапазона поиска параметра lambda const lambda_t lambda_min = lambda_t(LAMBDA_SEARCH_K_LOW * q*q); const lambda_t lambda_max = lambda_t(LAMBDA_SEARCH_K_HIGHT * q*q); // вывод отладочной информации #ifdef LIBWIC_DEBUG if (_dbg_out_stream.good()) { _dbg_out_stream << "[SQLI]: "; _dbg_out_stream << "q: " << std::setw(8) << q; _dbg_out_stream << " lambda_min: " << std::setw(8) << lambda_min; _dbg_out_stream << " lambda_max: " << std::setw(8) << lambda_max; _dbg_out_stream << std::endl; } #endif // поиск параметра lambda const optimize_result_t result = _search_lambda_at_bpp(bpp, bpp_eps, lambda_min, lambda_max, lambda_eps, virtual_encode, max_iterations, precise_bpp); // подсчёт среднеквадратичного отклонения (ошибки) d = _wtree.distortion_wc<w_t>(); // установка параметра отклонения if (result.bpp > bpp + bpp_eps) deviation = (bpp - result.bpp); // q необходимо увеличить (-1) else if (result.bpp < bpp - bpp_eps) deviation = (bpp - result.bpp); // q необходимо уменьшить (+1) else deviation = 0; // q удовлетворительное // вывод отладочной информации #ifdef LIBWIC_DEBUG if (_dbg_out_stream.good()) { _dbg_out_stream << "[SQLI]: "; _dbg_out_stream << "q: " << std::setw(8) << result.q; _dbg_out_stream << " lambda: " << std::setw(8) << result.lambda; _dbg_out_stream << " j: " << std::setw(8) << result.j; _dbg_out_stream << " bpp: " << std::setw(8) << result.bpp; _dbg_out_stream << " d: " << std::setw(8) << d; _dbg_out_stream << " deviation: " << std::setw(8) << deviation; _dbg_out_stream << std::endl; } #endif // возврат результата return result; } /*! \param[in] bpp Необходимый битрейт (Bits Per Pixel), для достижения которого будут подбираться параметры <i>q</i> и <i>lambda</i>. \param[in] bpp_eps Необходимая точность, c которой <i>bpp</i> полученный в результате поиска параметров <i>q</i> и <i>lambda</i> будет соответствовать заданному. \param[in] q_min Нижняя граница интервала поиска (минимальное значение) \param[in] q_max Верхняя граница интервала поиска (максимальное значение) \param[in] q_eps Необходимая погрешность определения квантователя <i>q</i> при котором значение <i>RD функции Лагранжа</i> минимально (при фиксированном параметре <i>lambda</i>). \param[in] lambda_eps Точность, с которой будет подбираться параметр <i>lambda</i> \param[out] models Описание моделей арифметического кодера, которое необходимо для последующего декодирования изображения \param[in] virtual_encode Если <i>true</i> то будет производиться виртуальное кодирование (только перенастройка моделей, без помещения кодируемого символа в выходной поток). Виртуальное кодирование немного быстрее, но его использование делает невозможным определение средних битовых затрат на кодирование одного пиксела изображения. \param[in] precise_bpp Если <i>true</i>, при выполнении операции оптимизации топологии будет производиться уточнение битовых затрат путем проведения реального кодирования с ужатыми моделями арифметического кодера (см. _real_encode_tight). В этом случае, после этапа оптимизации нет нужды производить реальное кодирование, так как оно уже произведено функцией _real_encode_tight. Функция использует метод золотого сечения для подбора параметра <i>q</i>, а для подбора параметра <i>lambda</i> использует функцию _search_q_lambda_for_bpp_iter(). \sa _search_q_lambda_for_bpp_iter(), _search_q_lambda_for_bpp() */ encoder::optimize_result_t encoder::_search_q_lambda_for_bpp( const h_t &bpp, const h_t &bpp_eps, const q_t &q_min, const q_t &q_max, const q_t &q_eps, const lambda_t &lambda_eps, models_desc_t &models, const bool virtual_encode, const bool precise_bpp) { // максимальное количество итераций для подбора параметра lambda static const sz_t max_iterations = 0; // коэффициенты золотого сечения static const q_t factor_b = q_t((3.0 - sqrt(5.0)) / 2.0); static const q_t factor_c = q_t((sqrt(5.0) - 1.0) / 2.0); // верхняя и нижняя граница поиска параметра q q_t q_a = q_min; q_t q_d = q_max; // вычисление значений в первых двух точках q_t q_b = q_a + factor_b * (q_d - q_a); q_t q_c = q_a + factor_c * (q_d - q_a); // подбор параметра lambda в первой точке w_t dw_b = 0; h_t deviation_b = 0; optimize_result_t result_b = _search_q_lambda_for_bpp_iter( q_b, bpp, bpp_eps, lambda_eps, models, dw_b, deviation_b, virtual_encode, max_iterations, precise_bpp); // подбор параметра lambda во второй точке w_t dw_c = 0; h_t deviation_c = 0; optimize_result_t result_c = _search_q_lambda_for_bpp_iter( q_c, bpp, bpp_eps, lambda_eps, models, dw_c, deviation_c, virtual_encode, max_iterations, precise_bpp); // результаты последнего поиска параметра lambda h_t deviation = deviation_c; optimize_result_t result = result_c; // сужение диапазона поиска методом золотого сечения while (q_eps < abs(q_a - q_d)) { // вывод отладочной информации #ifdef LIBWIC_DEBUG if (_dbg_out_stream.good()) { _dbg_out_stream << "> "; _dbg_out_stream << " q_a=" << std::setw(8) << q_a; _dbg_out_stream << " q_b=" << std::setw(8) << q_b; _dbg_out_stream << " q_c=" << std::setw(8) << q_c; _dbg_out_stream << " q_d=" << std::setw(8) << q_d; _dbg_out_stream << " dev=" << std::setw(8) << deviation; _dbg_out_stream << " dw_b=" << std::setw(8) << dw_b; _dbg_out_stream << " dw_c=" << std::setw(8) << dw_c; _dbg_out_stream << std::flush; } #endif // if (0 == deviation) break; if (deviation > 0 || (0 == deviation && dw_b <= dw_c)) { // вывод отладочной информации #ifdef LIBWIC_DEBUG if (_dbg_out_stream.good()) { _dbg_out_stream << " way[a] (a * b c d)" << std::endl; } #endif q_d = q_c; q_c = q_b; dw_c = dw_b; q_b = q_a + factor_b * (q_d - q_a); // a b c d // a b c d result = result_b = _search_q_lambda_for_bpp_iter( q_b, bpp, bpp_eps, lambda_eps, models, dw_b, deviation_b, virtual_encode, max_iterations, precise_bpp); deviation = deviation_b; } else { // вывод отладочной информации #ifdef LIBWIC_DEBUG if (_dbg_out_stream.good()) { _dbg_out_stream << " way[b] (a b c * d)" << std::endl; } #endif q_a = q_b; q_b = q_c; dw_b = dw_c; q_c = q_a + factor_c * (q_d - q_a); // a b c d // a b c d result = result_c = _search_q_lambda_for_bpp_iter( q_c, bpp, bpp_eps, lambda_eps, models, dw_c, deviation_b, virtual_encode, max_iterations, precise_bpp); deviation = deviation_c; } } return result; } /*! \return Средние битовые затраты на кодирование спектра вейвлет коэффициентов Данная функция использует текущие настройки моделей арифметического кодера и не изменяет их. */ h_t encoder::_real_encode() { #ifdef LIBWIC_USE_DBG_SURFACE #endif // кодирование всего дерева _acoder.encode_start(); _encode_wtree(); _acoder.encode_stop(); // подсчёт и возврат средних битовых затрат return _calc_encoded_bpp(); } /*! \param[out] desc Описание моделей арифметического кодера, которые были использованый при кодировании \param[in] double_path Если <i>true</i> кодирование будет производится в два прохода. При первом проходе кодирования производится настройка моделей. Сейчас нет возможности кодировать в один проход (что быстрее) так как возможен перескок коэффициентов из одной модели в другую. Связано это с тем, что на этапе оптимизации нам ещё не известны финальные значения всех коэффициентов и как следствие значение вычисляемых прогнозов. \return Средние битовые затраты на кодирование спектра вейвлет коэффициентов \attention Следует очень осторожно использовать эту функцию так как она изменяет модели, используемые арифметическим кодером. */ h_t encoder::_real_encode_tight(models_desc_t &desc, const bool double_path) { // двойной проход должен быть включён при текущем положении дел assert(double_path); // выполнение первого прохода, если необходимо if (double_path) { _setup_acoder_models(); _real_encode(); } // Определение и установка моделей арифметического кодера desc = _setup_acoder_post_models(); return _real_encode(); } /*! \param[in] including_tunes Если этот параметр равен <i>true</i> в расчёте <i>bpp</i> будет принят во внимание размер дополнительный данных, необходимых для восстановления изображения, определённых в структуре tunes_t \return Среднее количество бит, затрачиваемых на кодирование одного пикселя */ h_t encoder::_calc_encoded_bpp(const bool including_tunes) { const sz_t data_sz = coder().encoded_sz() + ((including_tunes)? sizeof(tunes_t): 0); return h_t(data_sz * BITS_PER_BYTE) / h_t(_wtree.nodes_count()); } /*! */ void encoder::_test_wc_136_0() { assert(0 != _wtree.at(136, 0).wc); } } // end of namespace wic

d75a5c9f2955c4d61704ff87e2b2d893353483f3

bd89d3607e32d7ebb8898f5e2d3445d524010850

/adaptationlayer/modematadaptation/modematcontroller_dll/src/csignalindreq.cpp

4634178471fb45ddedcda4bb61670b5541d1c915

no_license

wannaphong/symbian-incubation-projects.fcl-modemadaptation

9b9c61ba714ca8a786db01afda8f5a066420c0db

0e6894da14b3b096cffe0182cedecc9b6dac7b8d

refs/heads/master

UTF-8

C++

cpp

/* * Copyright (c) 2009 Nokia Corporation and/or its subsidiary(-ies). * All rights reserved. * This component and the accompanying materials are made available * under the terms of the License "Eclipse Public License v1.0" * which accompanies this distribution, and is available * at the URL "http://www.eclipse.org/legal/epl-v10.html". * * Initial Contributors: * Nokia Corporation - initial contribution. * * Contributors: * * Description: * */ #include "csignalindreq.h" #include "modemattrace.h" #include "modematclientsrv.h" #include "rmodematcontroller.h" #include "OstTraceDefinitions.h" #ifdef OST_TRACE_COMPILER_IN_USE #include "csignalindreqTraces.h" #endif CSignalIndReq::CSignalIndReq( RModemAtController* aClient) : CActive(EPriorityNormal), iClient(aClient) { OstTrace1( TRACE_NORMAL, CSIGNALINDREQ_CSIGNALINDREQ, "CSignalIndReq::CSignalIndReq;aClient=%x", aClient ); C_TRACE((_L("CSignalIndReq::CSignalIndReq(0x%x)"), aClient)); CActiveScheduler::Add( this ); aClient->SendReceiveSignalInd( iStatus ); SetActive(); } CSignalIndReq::~CSignalIndReq() { OstTrace0( TRACE_NORMAL, DUP1_CSIGNALINDREQ_CSIGNALINDREQ, "CSignalIndReq::~CSignalIndReq" ); C_TRACE((_L("CSignalIndReq::~CSignalIndReq()"))); Cancel(); } void CSignalIndReq::DoCancel() { OstTrace0( TRACE_NORMAL, CSIGNALINDREQ_DOCANCEL, "CSignalIndReq::DoCancel" ); C_TRACE((_L("CSignalIndReq::DoCancel()"))); iClient->SendReceiveSignalIndCancel(); } void CSignalIndReq::RunL() { OstTrace0( TRACE_NORMAL, CSIGNALINDREQ_RUNL, "CSignalIndReq::RunL" ); C_TRACE((_L("CSignalIndReq::RunL()"))); if( iStatus.Int() == KErrNone || iStatus.Int() > 0 ) { OstTrace1( TRACE_NORMAL, DUP1_CSIGNALINDREQ_RUNL, "CSignalIndReq::RunL - Completing with;iStatus.Int()=%d", iStatus.Int() ); C_TRACE((_L("Completing with %d"), iStatus.Int())); iClient->SignalIndReceived( iStatus.Int() ); iClient->SendReceiveSignalInd( iStatus ); SetActive(); } else { OstTrace1( TRACE_NORMAL, DUP2_CSIGNALINDREQ_RUNL, "CSignalIndReq::RunL - delete;iStatus.Int()=%d", iStatus.Int() ); C_TRACE((_L("CSignalIndReq RunL delete %d"), iStatus.Int())); delete this; } }

271476d2fa0b101c8169f7470ce49ab3a26765ad

7202223bb84abe3f0e4fec236e0b7530ce07bb0a

/astprint.cxx

6916559f5a85dc2547a644377a1bebcc60b6b843

permissive

wilx/c2pas

ec75c57284a1f2a8dbf9b555bdd087f9025daf0c

3d4b9e4bd187e5b12cec0afc368168aca634ac4a

refs/heads/master

UTF-8

C++

cxx

/* Copyright (c) 1997-2007, Václav Haisman All rights reserved. Redistribution and use in source and binary forms, with or without modification, are permitted provided that the following conditions are met: * Redistributions of source code must retain the above copyright notice, this list of conditions and the following disclaimer. * Redistributions in binary form must reproduce the above copyright notice, this list of conditions and the following disclaimer in the documentation and/or other materials provided with the distribution. THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. */ #include <list> #include <algorithm> #include <cctype> #include <stdlib.h> #include <sstream> #include <iostream> #include "astprint.hxx" #include "join.hxx" #include "switch.hxx" static std::list<int> blocklist; static int blocks; static std::list<int> blockstack; std::map<std::string, ASTInfo *> pidents; std::list<const CDecl *> decls; std::list<const CBinOp *> initlist; //std::list<std::string, IdentInfo *> allidents; std::list<std::string> labels; IdentInfo::IdentInfo (CTypeSpec * td, const std::string & n) : tspec(td), name(n) { } ASTInfo::ASTInfo(const ASTInfo * p, int b, const CStatement * s) : parent((ASTInfo *)p), block(b), astmt((CStatement *)s) { idents = new std::map<std::string, IdentInfo *>(); } ASTInfo::ASTInfo(const CStatement * s, const ASTInfo * ai) : parent((ASTInfo *)ai->parent), block(ai->block), idents(ai->idents), astmt((CStatement *)s) { } LabelInfo::LabelInfo (const CStatement * s, const std::string & n) : stmt(s), name(n) { } static inline char mytolower (char ch) { return std::tolower(ch); } std::string strtolower (const std::string & s) { std::string ls(s.size(), ' '); std::transform(s.begin(), s.end(), ls.begin(), mytolower); return ls; } /*std::string escident (const std::string & s) { std::ostringstream es; for (std::string::const_iterator i = s.begin(); i != s.end(); ++i) { if (std::isupper(*i) || *i == '_') es << '_'; es << *i; } return es.str(); }*/ std::pair<std::string, ASTInfo *> findident (const std::string & id, const ASTInfo * ai, bool clrlist = true) { if (clrlist) blocklist.clear(); if (ai->block != 0) blocklist.push_back(ai->block); std::map<std::string, IdentInfo *>::const_iterator i = ai->idents->find(id); if (i != ai->idents->end()) //return make_pair(i->second->name, const_cast<ASTInfo *>(ai)); return make_pair(i->second->name, const_cast<ASTInfo *>(ai)); else { if (ai->parent != NULL) return findident(id, ai->parent, false); else return make_pair(std::string(""), (ASTInfo *)NULL); } } ASTInfo * findpident (const std::string & pid) { std::map<std::string, ASTInfo *>::const_iterator i = pidents.find(pid); if (i != pidents.end()) return i->second; else return NULL; } /** Z C identifikatoru a seznamu bloku odspoda nahoru vytvori Pascalsky identifikator. */ std::string mangleident (const std::string & s, const std::list<int> & l) { if (l.empty()) return s; std::ostringstream str; str << "_"; for (std::list<int>::const_reverse_iterator i = l.rbegin(); i != l.rend(); ++i) { str << *i << "_"; } str << s; return str.str(); } std::pair<std::string, ASTInfo *> insertident (const std::string id, const CTypeSpec * ts, ASTInfo * ai) { std::pair<std::string, ASTInfo *> rec = findident(id, ai); std::string mident(mangleident(id, blockstack)); if (rec.second && rec.second->block != ai->block) { /* C identifikator nalezen, ale v nadrazenem bloku */ std::string lmident(strtolower(mident)); ASTInfo * pai = findpident(lmident); if (pai) { /* Nalezli jsme kolidujici pascalske jmeno */ throw std::string("Error: Collision of Pascal identifiers '") + lmident + std::string("'"); } /* Muzeme vlozit zaznam o identifikatoru. */ ai->idents->insert( make_pair(id, new IdentInfo(new CTypeSpec(*ts), lmident))); pidents.insert(make_pair(lmident, ai)); return make_pair(lmident, ai); } if (rec.second != NULL && rec.second->block == ai->block) { /* C identifikator nalezen v aktualnim bloku */ return make_pair(rec.first, ai); } if (rec.second == NULL) { /* Zadny takovy C identifikator nenalezen */ std::string lident(strtolower(id)); ASTInfo * pid = findpident(lident); if (pid) { /* Uz takovy pascalsky identifikator mame, zkus upravit jmeno */ std::string lmident(strtolower(mident)); pid = findpident(lmident); if (pid) { throw std::string("Error: Collision of Pascal identifiers '") + lmident + std::string("'"); } lident = lmident; } ai->idents->insert( make_pair(id, new IdentInfo(new CTypeSpec(*ts), lident))); pidents.insert(make_pair(lident, ai)); return make_pair(lident, ai); } else { throw std::string("Pro odstraneni warningu"); } } CDecl * gentmpdecl (const CTypeSpec * ts) { static int tmpcount = 0; std::ostringstream str; str << "__c2pas_tmpvar_" << (++tmpcount); return new CDecl(ts, new CInitDecl(new CDeclarator(CDeclarator::DirectDecl, new CIdent(str.str())), NULL, NULL), NULL); } /** Pri generovani vystupu tela funkce zaznamena deklarace pro pozdejsi vystup. */ void recordidents (const CDecl * dcl, ASTInfo * ai) { const CInitDecl * idcl = dcl->initdecl(); while (idcl) { /* vloz identifikator do prekladove tabulky identifikatoru */ std::pair<std::string, ASTInfo *> p; p = insertident(idcl->declarator()->ident()->name(), (CTypeSpec *)dcl->declspec()->clone(), ai); /* zarad deklaraci s prelozenym identifikatorem pro pozdejsi pouziti */ if (! (CTypeSpec *)dcl->declspec()) throw std::string("declspec == NULL"); //CExpr * init = idcl-> decls.push_back( new CDecl((CTypeSpec *)dcl->declspec(), new CInitDecl(new CDeclarator(CDeclarator::DirectDecl, new CIdent(p.first)), idcl && idcl->initializer() ? (CExpr *)idcl->initializer()->clone() : NULL, NULL), NULL)); /* pokracuj dalsim CInitDecl */ idcl = dynamic_cast<const CInitDecl *>(idcl->next()); } } CTypeSpec::Type getexprtype (const CExpr *, const ASTInfo *); CTypeSpec::Type getexprtype (const COp * o, const ASTInfo * ai) { switch (o->op_type()) { case COp::Unary: return getexprtype(static_cast<const CUnOp *>(o)->arg(), ai); case COp::Binary: { const CBinOp * bo = static_cast<const CBinOp *>(o); const CTypeSpec::Type lt = getexprtype(bo->leftArg(), ai), rt = getexprtype(bo->rightArg(), ai); if (lt == rt) return lt; else if ((lt == CTypeSpec::Float && (rt == CTypeSpec::Int || rt == CTypeSpec::Unsigned)) || (rt == CTypeSpec::Float && (lt == CTypeSpec::Int || lt == CTypeSpec::Unsigned))) return CTypeSpec::Float; else throw std::string("Unsupported combination of types " "in getexprtype()"); } default: throw std::string("'Ternary' operation not supported"); } } CTypeSpec::Type getexprtype (const CExpr * e, const ASTInfo * ai) { switch (e->expr_type()) { case CExpr::Ident: { const std::string id = static_cast<CIdentExpr const*>(e)->ident()->name(); std::pair<std::string, ASTInfo *> ainfo = findident(id, ai); if (! ainfo.second) throw std::string("Identifier not found"); return ainfo.second->idents->operator[](id)->tspec->typespec_type(); } case CExpr::Op: return getexprtype(static_cast<COp const *>(e), ai); case CExpr::Const: { switch (static_cast<CConstExpr const *>(e)->const_type()) { case CConstExpr::Int: return CTypeSpec::Int; case CConstExpr::UInt: return CTypeSpec::Unsigned; case CConstExpr::Float: return CTypeSpec::Float; default: throw std::string("Unsupported type in getexprtype()"); } } default: throw std::string("Unknown CExpr type!"); } } void astprint_comp_statement (const CCompoundStatement * cs, ASTInfo * ai, std::ostream & out); void astprint_sel_statement (const CSelectionStatement * cs, ASTInfo * ai, std::ostream & out); void astprint_expr_statement (const CExprStatement *, ASTInfo *, std::ostream &); void astprint_iter_statement (const CIterationStatement *, ASTInfo *, std::ostream &); void astprint_jump_statement (const CJumpStatement *, ASTInfo *, std::ostream &); void astprint_expr (const CExpr *, ASTInfo *, std::ostream &); void astprint_op (const COp *, ASTInfo *, std::ostream &); void astprint_const_expr (const CConstExpr *, ASTInfo *, std::ostream &); void astprint_unop (const CUnOp *, ASTInfo *, std::ostream &); void astprint_binop (const CBinOp *, ASTInfo *, std::ostream &); void astprint_statement (const CStatement * s, ASTInfo * ai, std::ostream & out) { if (! s) return; CStatement const * stmt = s; while (stmt) { switch (stmt->stmt_type()) { case CStatement::Labeled: throw std::string("'Labeled' statement handled within 'Selection' " "statement only"); case CStatement::Compound: astprint_comp_statement (static_cast<const CCompoundStatement *>(stmt), new ASTInfo(ai, ++blocks, stmt), out); break; case CStatement::Expr: astprint_expr_statement(static_cast<const CExprStatement *>(stmt), new ASTInfo(stmt, ai), out); break; case CStatement::Iteration: astprint_iter_statement (static_cast<const CIterationStatement *>(stmt), new ASTInfo(stmt, ai), out); break; case CStatement::Jump: astprint_jump_statement(static_cast<const CJumpStatement *>(stmt), new ASTInfo(stmt, ai), out); break; case CStatement::Selection: astprint_sel_statement (static_cast<const CSelectionStatement *>(stmt), new ASTInfo(stmt, ai), out); } // pokracuj na dalsi CStatement v seznamu stmt = stmt->next (); } } void astprint_expr_statement (const CExprStatement * es, ASTInfo * ai, std::ostream & out) { out << ";" << std::endl; if (! es) return; astprint_expr(es->expr(), ai, out); } void astprint_iter_statement (const CIterationStatement * is, ASTInfo * ai, std::ostream & out) { out << ";" << std::endl; if (! is) return; if (is->iterationstmt_type() != CIterationStatement::While) throw std::string("Only 'While' iteration statement supported"); out << "while "; astprint_expr(is->cond(), ai, out); out << " do begin "; astprint_statement(is->statement(), ai, out); out << ";" << std::endl << "end"; } void astprint_jump_statement (const CJumpStatement * js, ASTInfo *, std::ostream & out) { out << ";" << std::endl; if (! js) return; switch(js->jumpstmt_type()) { case CJumpStatement::Break: out << "break"; break; case CJumpStatement::Continue: out << "continue"; break; case CJumpStatement::Return: out << "exit(1)"; break; default: throw std::string("'Goto' jump statement not supported"); } } void astprint_comp_statement (const CCompoundStatement * cs, ASTInfo * ai, std::ostream & out) { out << ";" << std::endl; if (cs == NULL) return; /* vloz cislo bloku na vrchol zasobniku */ blockstack.push_back(ai->block); /* projdi deklarace a uloz je pro pozdejsi pouziti */ const CDecl * dcl = cs->declarations(); while (dcl != NULL) { recordidents(dcl, ai); dcl = (CDecl *)dcl->next(); } /* vystup bloku */ out << "begin" << std::endl; const CStatement * const stmt = cs->statements(); astprint_statement(stmt, ai, out); /*while (stmt != NULL) { out << ";" << std::endl; astprint(stmt, ai, out); stmt = (CStatement *)stmt->next(); }*/ out << ";" << std::endl << "end"; if (! blockstack.empty()) /* odstran cislo bloku z vrcholu zasobniku */ blockstack.erase(--blockstack.end()); } void astprint_sel_statement (const CSelectionStatement * ss, ASTInfo * ai, std::ostream & out) { out << ";" << std::endl; if (! ss) return; if (ss->selectionstmt_type() != CSelectionStatement::Switch) throw std::string("'If' statement not supported"); const CIdentExpr * swexpr; if (ss->expr()->expr_type() != CExpr::Ident) { /* Vytvor docasnou promennou a prirazeni pokud je argument switche slozitejsi nez pouhy identifikator aby jsme ho nevyhodnocovali vicekrat */ CDecl * const tmpdecl = gentmpdecl(new CTypeSpec(CTypeSpec::Long, NULL)); decls.push_back(tmpdecl); const CIdent * const tmpident = (CIdent *)tmpdecl->initdecl()->declarator()->ident(); const CIdentExpr * const idexpr = new CIdentExpr(new CIdent(*tmpident)); const CBinOp * const tmpass = new CBinOp(CBinOp::Assign, idexpr, ss->expr()); const CExprStatement * const estmt = new CExprStatement(new CBinOp(*tmpass), NULL); astprint_expr_statement(estmt, ai, out); swexpr = idexpr; } else { swexpr = dynamic_cast<const CIdentExpr *>(ss->expr()); } if (ss->statement1()->stmt_type() != CStatement::Compound) throw std::string("Only 'Compound' statement can follow 'switch'"); CCompoundStatement const * swstmt = dynamic_cast<const CCompoundStatement *>(ss->statement1()); CLabeledStatement const * lstmt; const CStatement * stmt = swstmt->statements(); std::list<std::string> labels2; std::list<const CLabeledStatement *> lstmts; std::string default_label; scan_for_cases (stmt, labels2, lstmts, default_label); labels.insert (labels.end (), labels2.begin(), labels2.end ()); // Rozskok. std::list<std::string>::const_iterator label_it = labels2.begin (); std::list<const CLabeledStatement *>::const_iterator stmt_it = lstmts.begin (); //std::cerr << "lstmts.size ()" << lstmts.size () << std::endl; for (; label_it != labels2.end () && stmt_it != lstmts.end (); ++label_it, ++stmt_it) { if (*label_it == default_label) { out << "goto " << default_label << ";" << std::endl; } else { //std::cerr << "*stmt_it: " << (void *)(*stmt_it) << std::endl; const CBinOp * const tmp = new CBinOp(CBinOp::Eq, swexpr, (*stmt_it)->expr ()); out << "if "; astprint_binop (tmp, ai, out); out << " then goto " << *label_it << ";" << std::endl; } } label_it = labels2.begin (); stmt_it = lstmts.begin (); stmt = swstmt->statements(); while (stmt) { switch (stmt->stmt_type()) { case CStatement::Labeled: lstmt = static_cast<const CLabeledStatement *>(stmt); if (lstmt->labeledstmt_type() == CLabeledStatement::Case) { out << ";" << std::endl; out << *label_it << ": begin" << std::endl; astprint_statement(lstmt->statement(), ai, out); out << std::endl << "end"; } else if (lstmt->labeledstmt_type() == CLabeledStatement::Default) { out << ";" << std::endl; out << default_label << ": begin" << std::endl; astprint_statement(lstmt->statement(), ai, out); out << std::endl << "end"; } else throw std::string("Only 'Case' and 'Default' labeled statement" " within 'switch' supported"); //out << ";" << std::endl; break; default: throw std::string("Only 'Labeled' statement within 'switch' " "supported"); } stmt = static_cast<CStatement const *>(stmt->next()); ++label_it; ++stmt_it; } } bool iskindofassign (const CExpr * o) { if (o->expr_type() != CExpr::Op) return false; if (static_cast<const COp *>(o)->op_type() != COp::Binary) return false; switch (static_cast<const CBinOp *>(o)->binop_type()) { case CBinOp::Assign: case CBinOp::MultAss: case CBinOp::DivAss: case CBinOp::ModAss: case CBinOp::PlusAss: case CBinOp::MinusAss: case CBinOp::LShiftAss: case CBinOp::RShift: case CBinOp::BAndAss: case CBinOp::BOrAss: case CBinOp::XorAss: return true; default: return false; } } void astprint_expr (const CExpr * e, ASTInfo * ai, std::ostream & out) { switch (e->expr_type()) { case CExpr::Ident: { const std::string id = static_cast<const CIdentExpr *>(e)->ident()->name(); const std::pair<std::string, ASTInfo *> ainf = findident(id, ai); if (! ainf.second) { throw std::string("Identifier '") + id + std::string("' not declared ?!"); } out << ainf.first; break; } case CExpr::Op: /*if (((COp *)e)->op_type() == COp::Binary && ((CBinOp *)e)->binop_type() == CBinOp::Assign) { astprint((CBinOp *)e, ai, out); }*/ if (iskindofassign(e)) astprint_binop(static_cast<const CBinOp *>(e), ai, out); else { out << "("; astprint_op(static_cast<const COp *>(e), ai, out); out << ")"; } break; case CExpr::Const: astprint_const_expr (static_cast<const CConstExpr *>(e), ai, out); break; } } void astprint_op (const COp * o, ASTInfo * ai, std::ostream & out) { switch (o->op_type()) { case COp::Unary: astprint_unop(static_cast<const CUnOp *>(o), ai, out); break; case COp::Binary: astprint_binop(static_cast<const CBinOp *>(o), ai, out); break; case COp::Ternary: throw std::string("'Ternary' operation not supported"); } } void astprint_const_expr (const CConstExpr * x, ASTInfo *, std::ostream & out) { switch (x->const_type()) { case CConstExpr::Float: out << (long double)x->value(); break; case CConstExpr::Int: out << (long long int)x->value(); break; case CConstExpr::UInt: out << (unsigned long long int)x->value(); break; default: throw std::string("'Char', 'Bool' and 'String' constants " "not supported."); } } void astprint_unop (const CUnOp * o, ASTInfo * ai, std::ostream & out) { switch (o->unop_type()) { case CUnOp::Tilde: out << "not("; astprint_expr(o->arg(), ai, out); out << ")"; break; case CUnOp::Excl: out << "not(boolean("; astprint_expr(o->arg(), ai, out); out << "))"; break; case CUnOp::Plus: if (o->arg()->expr_type() == CExpr::Op) { out << "("; astprint_expr(o->arg(), ai, out); out << ")"; } else { astprint_expr(o->arg(), ai, out); } break; case CUnOp::Minus: if (o->arg()->expr_type() == CExpr::Op) { out << "-("; astprint_expr(o->arg(), ai, out); out << ")"; } else { out << "-"; astprint_expr(o->arg(), ai, out); } break; case CUnOp::PostInc: { if (o->arg()->expr_type() != CExpr::Ident) throw std::string("Cannot post increment non-identifier"); /* Vytvoreni prirazeni ktere se zaradi za aktualni statement a tak castecne simuluje postinkrement. */ const CBinOp * const tmpass = new CBinOp(CBinOp::Assign, new CIdentExpr(*(CIdentExpr *)o->arg()), new CBinOp(CBinOp::Plus, new CIdentExpr( *(CIdentExpr *)o->arg()), new CUIntExpr(1))); CExprStatement * const estmt = new CExprStatement(new CBinOp(*tmpass), NULL); const CStatement * const old = (CStatement *)ai->astmt->next(); ai->astmt->set_next(estmt); estmt->set_next(old); astprint_expr(o->arg(), ai, out); break; } case CUnOp::PostDec: { if (o->arg()->expr_type() != CExpr::Ident) throw std::string("Cannot post increment non-identifier"); /* Vytbvoreni prirazeni ktere se zaradi za aktualni statement a tak castecne simuluje postdekrement. */ CBinOp * tmpass = new CBinOp(CBinOp::Assign, new CIdentExpr(*(const CIdentExpr *)o->arg()), new CBinOp(CBinOp::Minus, new CIdentExpr( *(const CIdentExpr *)o->arg()), new CUIntExpr(1))); CExprStatement * estmt = new CExprStatement(new CBinOp(*tmpass), NULL); CStatement * old = (CStatement *)ai->astmt->next(); ai->astmt->set_next(estmt); estmt->set_next(old); astprint_expr(o->arg(), ai, out); break; } case CUnOp::PreInc: case CUnOp::PreDec: case CUnOp::Star: case CUnOp::And: throw std::string("Unsupported unary operation"); } } CBinOp::Type getassignoptype (const CBinOp * o) { switch (o->binop_type()) { case CBinOp::MultAss: return CBinOp::Mult; case CBinOp::DivAss: return CBinOp::Div; case CBinOp::ModAss: return CBinOp::Mod; case CBinOp::PlusAss: return CBinOp::Plus; case CBinOp::MinusAss: return CBinOp::Minus; case CBinOp::LShiftAss: return CBinOp::LShift; case CBinOp::RShift: return CBinOp::RShift; case CBinOp::BAndAss: return CBinOp::BAnd; case CBinOp::BOrAss: return CBinOp::BOr; case CBinOp::XorAss: return CBinOp::Xor; default: throw std::string("Use of getassignoptype() with CBinOp of bad type."); } } void astprint_binop (const CBinOp * o, ASTInfo * ai, std::ostream & out) { switch (o->binop_type()) { case CBinOp::Plus: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")+("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::Minus: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")-("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::Mult: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")*("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::Div: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")"; if (getexprtype(o->leftArg(), ai) == CTypeSpec::Float || getexprtype(o->rightArg(), ai) == CTypeSpec::Float) out << "/"; else out << " div "; out << "("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::Mod: out << "("; astprint_expr(o->leftArg(), ai, out); out << ") mod ("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::LShift: out << "("; astprint_expr(o->leftArg(), ai, out); out << ") lsh ("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::RShift: out << "("; astprint_expr(o->leftArg(), ai, out); out << ") rsh ("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::BAnd: out << "("; astprint_expr(o->leftArg(), ai, out); out << ") and ("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::BOr: out << "("; astprint_expr(o->leftArg(), ai, out); out << ") or ("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::LAnd: out << "boolean("; astprint_expr(o->leftArg(), ai, out); out << ") and boolean("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::LOr: out << "boolean("; astprint_expr(o->leftArg(), ai, out); out << ") and boolean("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::Eq: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")=("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::NEq: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")<>("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::LEq: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")<=("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::GEq: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")>=("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::Lt: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")<("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::Gt: out << "("; astprint_expr(o->leftArg(), ai, out); out << ")>("; astprint_expr(o->rightArg(), ai, out); out << ")"; break; case CBinOp::Xor: out << "(("; out << "("; astprint_expr(o->leftArg(), ai, out); out << ") and not("; astprint_expr(o->rightArg(), ai, out); out << ")) or (not("; astprint_expr(o->leftArg(), ai, out); out << ") and ("; astprint_expr(o->rightArg(), ai, out); out << ")))"; break; case CBinOp::Assign: astprint_expr(o->leftArg(), ai, out); out << ":="; astprint_expr(o->rightArg(), ai, out); break; case CBinOp::MultAss: case CBinOp::DivAss: case CBinOp::ModAss: case CBinOp::PlusAss: case CBinOp::MinusAss: case CBinOp::LShiftAss: case CBinOp::RShiftAss: case CBinOp::BAndAss: case CBinOp::BOrAss: case CBinOp::XorAss: { const CBinOp * const tmpex = new CBinOp(CBinOp::Assign, (const CExpr *)o->leftArg()->clone(), new CBinOp(getassignoptype(o), (const CExpr *)o->leftArg()->clone(), (const CExpr *)o->rightArg()->clone())); astprint_expr(tmpex, ai, out); } } } void declsprint (std::list<const CDecl *> & dcls, std::ostream & out) { for (std::list<const CDecl *>::iterator idecl = dcls.begin(); idecl != dcls.end(); ++idecl) { const CTypeSpec * const ts = (CTypeSpec *)(*idecl)->declspec(); const CInitDecl * const indcl = (*idecl)->initdecl(); out << indcl->declarator()->ident()->name() << " : "; switch (ts->typespec_type()) { case CTypeSpec::Int: out << "longint"; break; case CTypeSpec::Unsigned: out << "cardinal"; break; case CTypeSpec::Float: out << "double"; break; default: throw std::string("Unsupported type in declsprint()"); } out << ";" << std::endl; if (indcl && indcl->declarator() && indcl->initializer()) initlist.push_back (new CBinOp(CBinOp::Assign, new CIdentExpr( (CIdent *) indcl->declarator()->ident()->clone()), (CExpr *)indcl->initializer()->clone())); } } void labelsprint (std::list<std::string> const & labels, std::ostream & out) { out << "label " << join_into_stream (labels, ", ") << ";" << std::endl; } /* void initsprint (std::list<CBinOp *> & il, std::ostream & out) { throw std::string("Inicializacne nepodporovana :("); for (std::list<CBinOp *> ibo = il.begin(); ibo != il.end(); ++ibo) { astprint( } } */

aa9b3643676b97ec945811b49fed9a42cf00fdf5

f73eca356aba8cbc5c0cbe7527c977f0e7d6a116

/Glop/third_party/raknet/TableSerializer.h

517fbd2d44e76bdd378e416fa52ecb0ac0ed7a7d

permissive

zorbathut/glop

40737587e880e557f1f69c3406094631e35e6bb5

762d4f1e070ce9c7180a161b521b05c45bde4a63

refs/heads/master

UTF-8

C++

h

#ifndef __TABLE_SERIALIZER_H #define __TABLE_SERIALIZER_H #include "RakMemoryOverride.h" #include "DS_Table.h" #include "Export.h" namespace RakNet { class BitStream; } class RAK_DLL_EXPORT TableSerializer : public RakNet::RakMemoryOverride { public: static void SerializeTable(DataStructures::Table *in, RakNet::BitStream *out); static bool DeserializeTable(unsigned char *serializedTable, unsigned int dataLength, DataStructures::Table *out); static bool DeserializeTable(RakNet::BitStream *in, DataStructures::Table *out); static void SerializeColumns(DataStructures::Table *in, RakNet::BitStream *out); static void SerializeColumns(DataStructures::Table *in, RakNet::BitStream *out, DataStructures::List<int> &skipColumnIndices); static bool DeserializeColumns(RakNet::BitStream *in, DataStructures::Table *out); static void SerializeRow(DataStructures::Table::Row *in, unsigned keyIn, DataStructures::List<DataStructures::Table::ColumnDescriptor> &columns, RakNet::BitStream *out); static void SerializeRow(DataStructures::Table::Row *in, unsigned keyIn, DataStructures::List<DataStructures::Table::ColumnDescriptor> &columns, RakNet::BitStream *out, DataStructures::List<int> &skipColumnIndices); static bool DeserializeRow(RakNet::BitStream *in, DataStructures::Table *out); static void SerializeCell(RakNet::BitStream *out, DataStructures::Table::Cell *cell, DataStructures::Table::ColumnType columnType); static bool DeserializeCell(RakNet::BitStream *in, DataStructures::Table::Cell *cell, DataStructures::Table::ColumnType columnType); static void SerializeFilterQuery(RakNet::BitStream *in, DataStructures::Table::FilterQuery *query); // Note that this allocates query->cell->c! static bool DeserializeFilterQuery(RakNet::BitStream *out, DataStructures::Table::FilterQuery *query); static void SerializeFilterQueryList(RakNet::BitStream *in, DataStructures::Table::FilterQuery *query, unsigned int numQueries, unsigned int maxQueries); // Note that this allocates queries, cells, and query->cell->c!. Use DeallocateQueryList to free. static bool DeserializeFilterQueryList(RakNet::BitStream *out, DataStructures::Table::FilterQuery **query, unsigned int *numQueries, unsigned int maxQueries, int allocateExtraQueries=0); static void DeallocateQueryList(DataStructures::Table::FilterQuery *query, unsigned int numQueries); }; #endif // Test code for the table /* #include "LightweightDatabaseServer.h" #include "LightweightDatabaseClient.h" #include "TableSerializer.h" #include "BitStream.h" #include "StringCompressor.h" #include "DS_Table.h" void main(void) { DataStructures::Table table; DataStructures::Table::Row *row; unsigned int dummydata=12345; // Add columns Name (string), IP (binary), score (int), and players (int). table.AddColumn("Name", DataStructures::Table::STRING); table.AddColumn("IP", DataStructures::Table::BINARY); table.AddColumn("Score", DataStructures::Table::NUMERIC); table.AddColumn("Players", DataStructures::Table::NUMERIC); table.AddColumn("Empty Test Column", DataStructures::Table::STRING); assert(table.GetColumnCount()==5); row=table.AddRow(0); assert(row); row->UpdateCell(0,"Kevin Jenkins"); row->UpdateCell(1,sizeof(dummydata), (char*)&dummydata); row->UpdateCell(2,5); row->UpdateCell(3,10); //row->UpdateCell(4,"should be unique"); row=table.AddRow(1); row->UpdateCell(0,"Kevin Jenkins"); row->UpdateCell(1,sizeof(dummydata), (char*)&dummydata); row->UpdateCell(2,5); row->UpdateCell(3,15); row=table.AddRow(2); row->UpdateCell(0,"Kevin Jenkins"); row->UpdateCell(1,sizeof(dummydata), (char*)&dummydata); row->UpdateCell(2,5); row->UpdateCell(3,20); row=table.AddRow(3); assert(row); row->UpdateCell(0,"Kevin Jenkins"); row->UpdateCell(1,sizeof(dummydata), (char*)&dummydata); row->UpdateCell(2,15); row->UpdateCell(3,5); row->UpdateCell(4,"col index 4"); row=table.AddRow(4); assert(row); row->UpdateCell(0,"Kevin Jenkins"); row->UpdateCell(1,sizeof(dummydata), (char*)&dummydata); //row->UpdateCell(2,25); row->UpdateCell(3,30); //row->UpdateCell(4,"should be unique"); row=table.AddRow(5); assert(row); row->UpdateCell(0,"Kevin Jenkins"); row->UpdateCell(1,sizeof(dummydata), (char*)&dummydata); //row->UpdateCell(2,25); row->UpdateCell(3,5); //row->UpdateCell(4,"should be unique"); row=table.AddRow(6); assert(row); row->UpdateCell(0,"Kevin Jenkins"); row->UpdateCell(1,sizeof(dummydata), (char*)&dummydata); row->UpdateCell(2,35); //row->UpdateCell(3,40); //row->UpdateCell(4,"should be unique"); row=table.AddRow(7); assert(row); row->UpdateCell(0,"Bob Jenkins"); row=table.AddRow(8); assert(row); row->UpdateCell(0,"Zack Jenkins"); // Test multi-column sorting DataStructures::Table::Row *rows[30]; DataStructures::Table::SortQuery queries[4]; queries[0].columnIndex=0; queries[0].operation=DataStructures::Table::QS_INCREASING_ORDER; queries[1].columnIndex=1; queries[1].operation=DataStructures::Table::QS_INCREASING_ORDER; queries[2].columnIndex=2; queries[2].operation=DataStructures::Table::QS_INCREASING_ORDER; queries[3].columnIndex=3; queries[3].operation=DataStructures::Table::QS_DECREASING_ORDER; table.SortTable(queries, 4, rows); unsigned i; char out[256]; RAKNET_DEBUG_PRINTF("Sort: Ascending except for column index 3\n"); for (i=0; i < table.GetRowCount(); i++) { table.PrintRow(out,256,',',true, rows[i]); RAKNET_DEBUG_PRINTF("%s\n", out); } // Test query: // Don't return column 3, and swap columns 0 and 2 unsigned columnsToReturn[4]; columnsToReturn[0]=2; columnsToReturn[1]=1; columnsToReturn[2]=0; columnsToReturn[3]=4; DataStructures::Table resultsTable; table.QueryTable(columnsToReturn,4,0,0,&resultsTable); RAKNET_DEBUG_PRINTF("Query: Don't return column 3, and swap columns 0 and 2:\n"); for (i=0; i < resultsTable.GetRowCount(); i++) { resultsTable.PrintRow(out,256,',',true, resultsTable.GetRowByIndex(i)); RAKNET_DEBUG_PRINTF("%s\n", out); } // Test filter: // Only return rows with column index 4 empty DataStructures::Table::FilterQuery inclusionFilters[3]; inclusionFilters[0].columnIndex=4; inclusionFilters[0].operation=DataStructures::Table::QF_IS_EMPTY; // inclusionFilters[0].cellValue; // Unused for IS_EMPTY table.QueryTable(0,0,inclusionFilters,1,&resultsTable); RAKNET_DEBUG_PRINTF("Filter: Only return rows with column index 4 empty:\n"); for (i=0; i < resultsTable.GetRowCount(); i++) { resultsTable.PrintRow(out,256,',',true, resultsTable.GetRowByIndex(i)); RAKNET_DEBUG_PRINTF("%s\n", out); } // Column 5 empty and column 0 == Kevin Jenkins inclusionFilters[0].columnIndex=4; inclusionFilters[0].operation=DataStructures::Table::QF_IS_EMPTY; inclusionFilters[1].columnIndex=0; inclusionFilters[1].operation=DataStructures::Table::QF_EQUAL; inclusionFilters[1].cellValue.Set("Kevin Jenkins"); table.QueryTable(0,0,inclusionFilters,2,&resultsTable); RAKNET_DEBUG_PRINTF("Filter: Column 5 empty and column 0 == Kevin Jenkins:\n"); for (i=0; i < resultsTable.GetRowCount(); i++) { resultsTable.PrintRow(out,256,',',true, resultsTable.GetRowByIndex(i)); RAKNET_DEBUG_PRINTF("%s\n", out); } RakNet::BitStream bs; RAKNET_DEBUG_PRINTF("PreSerialize:\n"); for (i=0; i < table.GetRowCount(); i++) { table.PrintRow(out,256,',',true, table.GetRowByIndex(i)); RAKNET_DEBUG_PRINTF("%s\n", out); } StringCompressor::AddReference(); TableSerializer::Serialize(&table, &bs); TableSerializer::Deserialize(&bs, &table); StringCompressor::RemoveReference(); RAKNET_DEBUG_PRINTF("PostDeserialize:\n"); for (i=0; i < table.GetRowCount(); i++) { table.PrintRow(out,256,',',true, table.GetRowByIndex(i)); RAKNET_DEBUG_PRINTF("%s\n", out); } int a=5; } */

bac2fc630f297cd34a91a06cb68425e9cb48f16e

5e2940026151c566d2d979fbf776a4e62aa68099

/ClientSocket.cpp

8e49bcd29f6558a61e90add3e51110cde741ab92

no_license

MatthewChan/Softlumos

f2ed6627d7a77c21bb78c954e6314db46841567d

ede766095e155aa1004a5ccde2c867a18eb3d260

refs/heads/master

UTF-8

C++

cpp

// ClientSocket.cpp : implementation file // #include "stdafx.h" #include "NetDiskTool.h" #include "ClientSocket.h" #include "netdisktooldoc.h" #ifdef _DEBUG #define new DEBUG_NEW #undef THIS_FILE static char THIS_FILE[] = __FILE__; #endif ///////////////////////////////////////////////////////////////////////////// // CClientSocket CClientSocket::CClientSocket(CNetDiskToolDoc* pDoc) { m_pDoc = pDoc; } CClientSocket::~CClientSocket() { } // Do not edit the following lines, which are needed by ClassWizard. #if 0 BEGIN_MESSAGE_MAP(CClientSocket, CSocket) //{{AFX_MSG_MAP(CClientSocket) //}}AFX_MSG_MAP END_MESSAGE_MAP() #endif // 0 ///////////////////////////////////////////////////////////////////////////// // CClientSocket member functions void CClientSocket::OnReceive(int nErrorCode) { // TODO: Add your specialized code here and/or call the base class m_pDoc->ProcessPendingRead(); CAsyncSocket::OnReceive(nErrorCode); } void CClientSocket::OnClose(int nErrorCode) { // TODO: Add your specialized code here and/or call the base class m_pDoc->CloseConncet(); CAsyncSocket::OnClose(nErrorCode); }

c9d09ef0ca7e263786b1b31c7bcc9af629367a47

709cd826da3ae55945fd7036ecf872ee7cdbd82a

/Term/WildMagic2/Applications/Physics/WrigglingSnake/WrigglingSnake.cpp

19729c7b3cb21674e0bbce1510558317ad356b6c

no_license

argapratama/kucgbowling

20dbaefe1596358156691e81ccceb9151b15efb0

65e40b6f33c5511bddf0fa350c1eefc647ace48a

refs/heads/master

UTF-8

C++

cpp

// Magic Software, Inc. // http://www.magic-software.com // http://www.wild-magic.com // Copyright (c) 2003. All Rights Reserved // // The Game Physics source code is supplied under the terms of the license // agreement http://www.magic-software.com/License/GamePhysics.pdf and may not // be copied or disclosed except in accordance with the terms of that // agreement. #include "WrigglingSnake.h" WrigglingSnake g_kTheApp; float WrigglingSnake::ms_fRadius = 0.0625f; //#define SINGLE_STEP //---------------------------------------------------------------------------- WrigglingSnake::WrigglingSnake () : Application("WrigglingSnake",0,0,640,480, ColorRGB(1.0f,0.823529f,0.607843f)) { m_iNumCtrl = 32; m_iDegree = 3; m_pkCenter = NULL; m_afAmplitude = new float[m_iNumCtrl]; m_afPhase = new float[m_iNumCtrl]; m_iShellQuantity = 4; } //---------------------------------------------------------------------------- WrigglingSnake::~WrigglingSnake () { delete[] m_afAmplitude; delete[] m_afPhase; } //---------------------------------------------------------------------------- bool WrigglingSnake::OnInitialize () { if ( !Application::OnInitialize() ) return false; m_spkScene = new Node(1); m_spkTrnNode = new Node(1); m_spkScene->AttachChild(m_spkTrnNode); m_spkWireframe = new WireframeState; m_spkScene->SetRenderState(m_spkWireframe); ZBufferState* pkZBuffer = new ZBufferState; pkZBuffer->Enabled() = true; pkZBuffer->Writeable() = true; pkZBuffer->Compare() = ZBufferState::CF_LEQUAL; m_spkScene->SetRenderState(pkZBuffer); CreateSnake(); // center-and-fit for camera viewing m_spkScene->UpdateGS(0.0f); Bound kWBound = m_spkScene->WorldBound(); m_spkTrnNode->Translate() = -kWBound.Center(); ms_spkCamera->SetFrustum(1.0f,100.0f,-0.55f,0.55f,0.4125f,-0.4125f); Vector3f kCLeft(1.0f,0.0f,0.0f); Vector3f kCUp(0.0f,0.0f,1.0f); Vector3f kCDir(0.0f,-1.0f,0.0f); Vector3f kCLoc = -3.0f*kWBound.Radius()*kCDir; ms_spkCamera->SetFrame(kCLoc,kCLeft,kCUp,kCDir); // initial update of objects ms_spkCamera->Update(); m_spkScene->UpdateGS(0.0f); m_spkScene->UpdateRS(); // camera turret and tumble mode m_spkMotionObject = m_spkScene; m_fTrnSpeed = 0.01f; m_fRotSpeed = 0.001f; m_bTurretActive = true; SetTurretAxes(); return true; } //---------------------------------------------------------------------------- void WrigglingSnake::OnTerminate () { m_spkScene = NULL; m_spkTrnNode = NULL; m_spkSnakeRoot = NULL; m_spkSnakeBody = NULL; m_spkSnakeHead = NULL; m_spkWireframe = NULL; Application::OnTerminate(); } //---------------------------------------------------------------------------- void WrigglingSnake::OnIdle () { MeasureTime(); MoveCamera(); if ( MoveObject() ) m_spkScene->UpdateGS(0.0f); #ifndef SINGLE_STEP ModifyCurve(); #endif ms_spkRenderer->ClearBuffers(); if ( ms_spkRenderer->BeginScene() ) { ms_spkRenderer->Draw(m_spkScene); DrawFrameRate(8,GetHeight()-8,ColorRGB::BLACK); ms_spkRenderer->EndScene(); } ms_spkRenderer->DisplayBackBuffer(); UpdateClicks(); } //---------------------------------------------------------------------------- void WrigglingSnake::OnKeyDown (unsigned char ucKey, int, int) { if ( ucKey == 'q' || ucKey == 'Q' || ucKey == KEY_ESCAPE ) { RequestTermination(); return; } switch ( ucKey ) { case 'w': // toggle wireframe case 'W': m_spkWireframe->Enabled() = !m_spkWireframe->Enabled(); break; #ifdef SINGLE_STEP case 'g': case 'G': ModifyCurve(); break; #endif } } //---------------------------------------------------------------------------- float WrigglingSnake::Radial (float fT) { return ms_fRadius*(2.0f*fT)/(1.0f+fT); } //---------------------------------------------------------------------------- void WrigglingSnake::CreateSnake () { m_spkSnakeRoot = new Node(2); m_spkTrnNode->AttachChild(m_spkSnakeRoot); CreateSnakeBody(); CreateSnakeHead(); } //---------------------------------------------------------------------------- void WrigglingSnake::CreateSnakeBody () { // create the B-spline curve for the snake body Vector3f* akCtrl = new Vector3f[m_iNumCtrl]; int i; for (i = 0; i < m_iNumCtrl; i++) { // control points for a snake float fRatio = ((float)i)/(float)(m_iNumCtrl-1); float fX = -1.0f + 2.0f*fRatio; float fXMod = 10.0f*fX - 4.0f; akCtrl[i].X() = fX; akCtrl[i].Y() = ms_fRadius*(1.5f + Mathf::ATan(fXMod)/Mathf::PI); akCtrl[i].Z() = 0.0f; // sinusoidal motion for snake m_afAmplitude[i] = 0.1f+fRatio*Mathf::Exp(-fRatio); m_afPhase[i] = 1.5f*fRatio*Mathf::TWO_PI; } // the control points are copied by the curve objects m_pkCenter = new BSplineCurve3f(m_iNumCtrl,akCtrl,m_iDegree,false,true); delete[] akCtrl; // generate a tube surface bool bClosed = false; Vector3f kUpVector = Vector3f::UNIT_Y; int iMedialSamples = 128; int iSliceSamples = 32; bool bWantNormals = true; bool bWantColors = false; bool bSampleByArcLength = false; bool bInsideView = false; Vector2f kTextureMin(0.0f,0.0f), kTextureMax(1.0f,16.0f); m_spkSnakeBody = new TubeSurface(m_pkCenter,Radial,bClosed,kUpVector, iMedialSamples,iSliceSamples,bWantNormals,bWantColors, bSampleByArcLength,bInsideView,&kTextureMin,&kTextureMax); // attach a texture for the snake body Texture* pkTexture = new Texture; pkTexture->SetImage(Image::Load("snake.mif")); pkTexture->Filter() = Texture::FM_LINEAR; pkTexture->Mipmap() = Texture::MM_LINEAR_LINEAR; pkTexture->Apply() = Texture::AM_REPLACE; pkTexture->Wrap() = Texture::WM_WRAP_S_WRAP_T; TextureState* pkTS = new TextureState; pkTS->Set(0,pkTexture); //m_spkSnakeBody->SetRenderState(pkTS); // Set up a light map to add to the current color. pkTexture = new Texture; pkTexture->SetImage(Image::Load("LightMap.mif")); pkTexture->Filter() = Texture::FM_LINEAR; pkTexture->Mipmap() = Texture::MM_LINEAR_LINEAR; pkTexture->Apply() = Texture::AM_ADD; pkTexture->Envmap() = Texture::EM_SPHERE; pkTS->Set(1,pkTexture); m_spkSnakeBody->SetRenderState(pkTS); m_spkSnakeRoot->AttachChild(m_spkSnakeBody); } //---------------------------------------------------------------------------- void WrigglingSnake::CreateSnakeHead () { // Create the snake head as a paraboloid that is attached to the last // ring of vertices on the snake body. These vertices are generated // for t = 1. int iSliceSamples = m_spkSnakeBody->GetSliceSamples(); // number of rays (determined by slice samples of tube surface) int iRQ = iSliceSamples - 1; // number of shells (your choice, specified in application constructor) int iSQ = m_iShellQuantity, iSQm1 = iSQ-1; // generate vertices (to be filled in by UpdateSnakeHead) int iVQuantity = 1 + iRQ*iSQm1; Vector3f* akVertex = new Vector3f[iVQuantity]; // generate vertex colors coordinates ColorRGB* akColor = new ColorRGB[iVQuantity]; for (int i = 0; i < iVQuantity; i++) akColor[i] = ColorRGB(0.0f,0.25f,0.0f); // generate triangles int iTQuantity = iRQ*(2*iSQm1-1); int* aiConnect = new int[3*iTQuantity]; int* piConnect = aiConnect; int iT = 0; for (int iR0 = iRQ-1, iR1 = 0; iR1 < iRQ; iR0 = iR1++) { *piConnect++ = 0; *piConnect++ = 1+iSQm1*iR0; *piConnect++ = 1+iSQm1*iR1; iT++; for (int iS = 1; iS < iSQm1 ; iS++) { int i00 = iS+iSQm1*iR0; int i01 = iS+iSQm1*iR1; int i10 = i00+1; int i11 = i01+1; *piConnect++ = i00; *piConnect++ = i10; *piConnect++ = i11; *piConnect++ = i00; *piConnect++ = i11; *piConnect++ = i01; iT += 2; } } assert( iT == iTQuantity ); m_spkSnakeHead = new TriMesh(iVQuantity,akVertex,NULL,akColor,NULL, iTQuantity,aiConnect); m_spkSnakeRoot->AttachChild(m_spkSnakeHead); UpdateSnakeHead(); } //---------------------------------------------------------------------------- void WrigglingSnake::UpdateSnake () { // The order of calls is important since the snake head uses the last // ring of vertices in the tube surface of the snake body. UpdateSnakeBody(); UpdateSnakeHead(); m_spkSnakeRoot->UpdateGS(0.0f); } //---------------------------------------------------------------------------- void WrigglingSnake::UpdateSnakeBody () { m_spkSnakeBody->UpdateSurface(); } //---------------------------------------------------------------------------- void WrigglingSnake::UpdateSnakeHead () { // get the ring of vertices at the head-end of the tube int iSliceSamples = m_spkSnakeBody->GetSliceSamples(); Vector3f* akSlice = new Vector3f[iSliceSamples+1]; m_spkSnakeBody->GetTMaxSlice(akSlice); // compute the center of the slice vertices Vector3f kCenter = akSlice[0]; int i; for (i = 1; i <= iSliceSamples; i++) kCenter += akSlice[i]; kCenter /= (float)(iSliceSamples+1); // Compute a unit-length normal of the plane of the vertices. The normal // points away from tube and is used to extrude the paraboloid surface // for the head. Vector3f kEdge1 = akSlice[1] - akSlice[0]; Vector3f kEdge2 = akSlice[2] - akSlice[0]; Vector3f kNormal = kEdge1.UnitCross(kEdge2); // Adjust the normal length to include the height of the ellipsoid vertex // above the plane of the slice. kNormal *= 3.0f*ms_fRadius; Vector3f* akVertex = m_spkSnakeHead->Vertices(); // origin akVertex[0] = kCenter + kNormal; // remaining shells const int iSQm1 = m_iShellQuantity - 1; float fFactor = 1.0f/iSQm1; for (int iR = 0; iR < iSliceSamples-1; iR++) { for (int iS = 1; iS < m_iShellQuantity; iS++) { float fT = fFactor*iS, fOmT = 1.0f - fT; i = iS + iSQm1*iR; akVertex[i] = fOmT*kCenter + fT*akSlice[iR] + Mathf::Pow(fOmT,0.25f)*kNormal; } } delete[] akSlice; m_spkSnakeHead->UpdateModelBound(); } //---------------------------------------------------------------------------- void WrigglingSnake::ModifyCurve () { // perturb the snake medial curve float fTime = GetTimeInSeconds(); for (int i = 0; i < m_iNumCtrl; i++) { Vector3f kCtrl = m_pkCenter->GetControlPoint(i); kCtrl.Z() = m_afAmplitude[i]*Mathf::Sin(3.0f*fTime+m_afPhase[i]); m_pkCenter->SetControlPoint(i,kCtrl); } UpdateSnake(); } //----------------------------------------------------------------------------

7010bb3ea037a1f2fafe455d4c05c53f67a35b80

ffd731ace66892b070eac3abe27169bcb53cc989

/Rendering/Raytracer/raytrace/RenderEngine.cpp

887494e0f60d931f7f445a46565cadd0be8d9961

no_license

nical/DTU-school-projetcs

5496666a0de67312befc094ec070ce2897eaebc7

b9b4b6921838968e0f7370320f87244992f03989

refs/heads/master

UTF-8

C++

cpp

// 02562 Rendering Framework // Written by Jeppe Revall Frisvad, 2011 // Copyright (c) DTU Informatics 2011 #include <iostream> #include <algorithm> #include <list> #include <string> #include "my_glut.h" #include <optix_world.h> #include "../SOIL/stb_image_write.h" #include "string_utils.h" #include "Timer.h" #include "mt_random.h" #include "Directional.h" #include "PointLight.h" #include "RenderEngine.h" #ifdef _OPENMP #include <omp.h> #endif using namespace std; using namespace optix; RenderEngine render_engine; namespace { // String utilities void lower_case(char& x) { x = tolower(x); } inline void lower_case_string(std::string& s) { for_each(s.begin(), s.end(), lower_case); } } ////////////////////////////////////////////////////////////////////// // Initialization ////////////////////////////////////////////////////////////////////// RenderEngine::RenderEngine() : win(optix::make_uint2(512, 512)), // Default window size res(optix::make_uint2(512, 512)), // Default render resolution image(res.x*res.y), image_tex(0), scene(&cam), filename("out.ppm"), // Default output file name tracer(res.x, res.y, &scene, 100000), // Maximum number of photons in map max_to_trace(500000), // Maximum number of photons to trace caustics_particles(20000), // Desired number of caustics photons done(false), light_pow(optix::make_float3(M_PIf)), // Power of the default light light_dir(optix::make_float3(-1.0f)), // Direction of the default light default_light(&tracer, light_pow, light_dir), // Construct default light use_default_light(true), // Choose whether to use the default light or not shadows_on(true), background(optix::make_float3(0.1f, 0.3f, 0.6f)), // Background color bgtex_filename(""), // Background texture file name current_shader(0), lambertian(scene.get_lights()), photon_caustics(&tracer, scene.get_lights(), 1.0f, 50), // Max distance and number of photons to search for glossy(&tracer, scene.get_lights()), mirror(&tracer), transparent(&tracer), volume(&tracer), glossy_volume(&tracer, scene.get_lights()), tone_map(2.5) // Gamma for gamma correction { shaders.push_back(&reflectance); // number key 0 (reflectance only) shaders.push_back(&lambertian); // number key 1 (direct lighting) shaders.push_back(&photon_caustics); // number key 2 (photon map caustics) } void RenderEngine::load_files(int argc, char** argv) { if(argc > 1) { for(int i = 1; i < argc; ++i) { // Retrieve filename without path list<string> path_split; split(argv[i], path_split, "\\"); filename = path_split.back(); if(filename.find("/") != filename.npos) { path_split.clear(); split(filename, path_split, "/"); filename = path_split.back(); } lower_case_string(filename); Matrix4x4 transform = Matrix4x4::identity(); // Special rules for some meshes if(char_traits<char>::compare(filename.c_str(), "cornell", 7) == 0) transform = Matrix4x4::scale(make_float3(0.025f))*Matrix4x4::rotate(M_PIf, make_float3(0.0f, 1.0f, 0.0f)); else if(char_traits<char>::compare(filename.c_str(), "bunny", 5) == 0) transform = Matrix4x4::translate(make_float3(-3.0f, -0.85f, -8.0f))*Matrix4x4::scale(make_float3(25.0f)); else if(char_traits<char>::compare(filename.c_str(), "justelephant", 12) == 0) transform = Matrix4x4::translate(make_float3(-10.0f, 3.0f, -2.0f))*Matrix4x4::rotate(0.5f, make_float3(0.0f, 1.0f, 0.0f)); // Load the file into the scene scene.load_mesh(argv[i], transform); } init_view(); } else { // Insert default scene scene.add_plane(make_float3(0.0f, 0.0f, 0.0f), normalize(make_float3(0.0f, 1.0f, 0.0f)), "../models/default_scene.mtl", 1, 0.2f); //scene.add_plane(make_float3(0.0f, 0.0f, 0.0f), make_float3(1.0f, 0.0f, 0.0f), "../models/default_scene.mtl", 1, 0.2f); scene.add_sphere(make_float3(0.0f, 0.5f, 0.0f), 0.3f, "../models/default_scene.mtl", 2); scene.add_triangle(make_float3(-0.2f, 0.1f, 0.9f), make_float3(0.2f, 0.1f, 0.9f), make_float3(-0.2f, 0.1f, -0.1f), "../models/default_scene.mtl", 3); scene.add_light(new PointLight(&tracer, make_float3(M_PIf), make_float3(0.0f, 1.0f, 0.0f))); cam.set(make_float3(2.0f, 1.5f, 2.0f), make_float3(0.0f, 0.5, 0.0f), make_float3(0.0f, 1.0f, 0.0f), 1.0f); } } void RenderEngine::init_GLUT(int argc, char** argv) { glutInit(&argc, argv); glutInitDisplayMode(GLUT_RGBA | GLUT_DOUBLE | GLUT_DEPTH); glutInitWindowSize(win.x, win.y); glutCreateWindow("02562 Render Framework"); glutDisplayFunc(display); glutReshapeFunc(reshape); glutKeyboardFunc(keyboard); } void RenderEngine::init_GL() { glEnable(GL_CULL_FACE); glTexEnvi(GL_TEXTURE_ENV, GL_TEXTURE_ENV_MODE, GL_REPLACE); } void RenderEngine::init_view() { float3 c; float r; scene.get_bsphere(c, r); r *= 1.75f; // Initialize corresponding camera for tracer cam.set(c + make_float3(0.0f, 0.0f, r), c, make_float3(0.0f, 1.0f, 0.0f), 1.0f); } void RenderEngine::init_tracer() { clear_image(); // Insert background texture/color tracer.set_background(background); if(!bgtex_filename.empty()) { list<string> dot_split; split(bgtex_filename, dot_split, "."); if(dot_split.back() == "hdr") bgtex.load_hdr(bgtex_filename.c_str()); else bgtex.load(bgtex_filename.c_str()); tracer.set_background(&bgtex); } // Set shaders scene.set_shader(0, shaders[current_shader]); // shader for illum 0 (chosen by number key) scene.set_shader(1, shaders[current_shader]); // shader for illum 1 (chosen by number key) scene.set_shader(2, &glossy); // shader for illum 2 (calls lambertian until implemented) scene.set_shader(3, &mirror); // shader for illum 3 scene.set_shader(4, &transparent); // shader for illum 4 scene.set_shader(11, &volume); // shader for illum 11 scene.set_shader(12, &glossy_volume); // shader for illum 12 // Load material textures scene.load_textures(); // Add polygons with an ambient material as area light sources unsigned int lights_in_scene = scene.extract_area_lights(&tracer, 8); // Set number of samples per light source here // If no light in scene, add default light source (shadow off) if(lights_in_scene == 0 && use_default_light) { cout << "Adding default light: " << default_light.describe() << endl; scene.add_light(&default_light); } // Build acceleration data structure Timer timer; cout << "Building acceleration structure..."; timer.start(); scene.init_accelerator(); timer.stop(); cout << "(time: " << timer.get_time() << ")" << endl; // Build photon maps cout << "Building photon maps... " << endl; timer.start(); tracer.build_maps(caustics_particles, max_to_trace); timer.stop(); cout << "Building time: " << timer.get_time() << endl; } void RenderEngine::init_texture() { if(!glIsTexture(image_tex)) glGenTextures(1, &image_tex); glBindTexture(GL_TEXTURE_2D, image_tex); glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MAG_FILTER, GL_NEAREST); glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MIN_FILTER, GL_NEAREST); // load the texture image glTexImage2D(GL_TEXTURE_2D, 0, GL_RGB, res.x, res.y, 0, GL_RGB, GL_FLOAT, &image[0].x); } ////////////////////////////////////////////////////////////////////// // Rendering ////////////////////////////////////////////////////////////////////// void RenderEngine::apply_tone_map() { if(done) { tone_map.apply(&image[0].x, res.x, res.y, 3); init_texture(); glutPostRedisplay(); } } void RenderEngine::unapply_tone_map() { if(done) { tone_map.unapply(&image[0].x, res.x, res.y, 3); init_texture(); glutPostRedisplay(); } } void RenderEngine::add_textures() { reflectance.set_textures(scene.get_textures()); lambertian.set_textures(scene.get_textures()); glossy.set_textures(scene.get_textures()); glossy_volume.set_textures(scene.get_textures()); photon_caustics.set_textures(scene.get_textures()); } void RenderEngine::render() { cout << "Raytracing"; Timer timer; timer.start(); #pragma omp parallel for private(randomizer) for(int i = 0; i < static_cast<int>(res.y); ++i) { // Insert the inner loop that computes a row of pixels // and stores the results in the image vector. // // Relevant data fields that are available (see RenderEngine.h) // res (image resolution) // tracer (ray tracer with access to the function compute_pixel) for ( int j = 0; j < res.x; ++j ) { //float3 temp = tracer.compute_pixel(j,i); image[j + i*res.x] = tracer.compute_pixel(j,i); } if(((i + 1) % 50) == 0) cerr << "."; } timer.stop(); cout << " - " << timer.get_time() << " secs " << endl; init_texture(); done = true; } ////////////////////////////////////////////////////////////////////// // Export/import ////////////////////////////////////////////////////////////////////// void RenderEngine::save_as_bitmap() { string png_name = "out.png"; if(!filename.empty()) { list<string> dot_split; split(filename, dot_split, "."); png_name = dot_split.front() + ".png"; } unsigned char* data = new unsigned char[res.x*res.y*3]; for(unsigned int j = 0; j < res.y; ++j) for(unsigned int i = 0; i < res.x; ++i) { unsigned int d_idx = (i + res.x*j)*3; unsigned int i_idx = i + res.x*(res.y - j - 1); data[d_idx + 0] = static_cast<unsigned int>(std::min(image[i_idx].x, 1.0f)*255.0f + 0.5f); data[d_idx + 1] = static_cast<unsigned int>(std::min(image[i_idx].y, 1.0f)*255.0f + 0.5f); data[d_idx + 2] = static_cast<unsigned int>(std::min(image[i_idx].z, 1.0f)*255.0f + 0.5f); } stbi_write_png(png_name.c_str(), res.x, res.y, 3, data, res.x*3); delete [] data; cout << "Rendered image stored in " << png_name << "." << endl; } ////////////////////////////////////////////////////////////////////// // Draw functions ////////////////////////////////////////////////////////////////////// void RenderEngine::set_gl_ortho_proj() { glMatrixMode(GL_PROJECTION); glLoadIdentity(); glOrtho(0.0, 1.0, 0.0, 1.0, -1.0, 1.0); glMatrixMode(GL_MODELVIEW); } void RenderEngine::draw_texture() { static GLfloat verts[] = { 0.0f, 0.0f, 1.0f, 0.0f, 0.0f, 1.0f, 1.0f, 1.0f }; glColor4f(1.0f, 1.0f, 1.0f, 1.0f); glBindTexture(GL_TEXTURE_2D, image_tex); glEnable(GL_TEXTURE_2D); glEnableClientState(GL_VERTEX_ARRAY); glEnableClientState(GL_TEXTURE_COORD_ARRAY); glVertexPointer(2, GL_FLOAT, 0, verts); glTexCoordPointer(2, GL_FLOAT, 0, verts); glDrawArrays(GL_TRIANGLE_STRIP, 0, 4); glDisableClientState(GL_VERTEX_ARRAY); glDisableClientState(GL_TEXTURE_COORD_ARRAY); glDisable(GL_TEXTURE_2D); } void RenderEngine::draw() { if(shaders[current_shader] == &photon_caustics) tracer.draw_caustics_map(); else scene.draw(); } ////////////////////////////////////////////////////////////////////// // GLUT callback functions ////////////////////////////////////////////////////////////////////// void RenderEngine::display() { if(render_engine.is_done()) { render_engine.set_gl_ortho_proj(); glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT); glLoadIdentity(); render_engine.draw_texture(); } else { glEnable(GL_DEPTH_TEST); render_engine.set_gl_perspective(); render_engine.set_gl_clearcolor(); glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT); glLoadIdentity(); render_engine.set_gl_camera(); render_engine.draw(); glDisable(GL_DEPTH_TEST); } glutSwapBuffers(); } void RenderEngine::reshape(int width, int height) { render_engine.set_window_size(width, height); glViewport(0, 0, width, height); } void RenderEngine::keyboard(unsigned char key, int x, int y) { // The shader to be used when rendering a material is chosen // by setting the "illum" property of the material. This // property is part of the MTL file format ("illum" is short // for "illumination model"). The shader to be used with // each illumination model is specified in the init_tracer // function above. // // Number keys switch the shader used for illumination // models 0 and 1 to the shader at the corresponding index // in the array "shaders" at the top of this file. // // When you switch shaders all previous rendering results // will be erased! if(key >= 48 && key < 48 + static_cast<unsigned char>(render_engine.no_of_shaders())) { unsigned int shader_no = key - 48; if(shader_no != render_engine.get_current_shader()) { render_engine.set_current_shader(shader_no); render_engine.clear_image(); render_engine.redo_display_list(); cout << "Switched to shader number " << shader_no << endl; glutPostRedisplay(); } } switch(key) { // Use '+' and '-' to increase or decrease the number of // jitter samples per pixel in a simple ray tracing case '+': render_engine.increment_pixel_subdivs(); break; case '-': render_engine.decrement_pixel_subdivs(); break; // Press '*' to apply tone mapping case '*': render_engine.apply_tone_map(); break; // Press '/' to unapply tone mapping case '/': render_engine.unapply_tone_map(); break; // Press 'b' to save a bitmap called the same as the last loaded .obj file. case 'b': render_engine.save_as_bitmap(); break; // Press 'r' to start a simple ray tracing (one pass -> done). // To switch back to preview mode after the ray tracing is done // press 'r' again. case 'r': if(render_engine.is_done()) render_engine.undo(); else render_engine.render(); glutPostRedisplay(); break; // Press 's' to toggle shadows on/off case 's': { bool shadows_on = render_engine.toggle_shadows(); render_engine.clear_image(); render_engine.redo_display_list(); cout << "Toggled shadows " << (shadows_on ? "on" : "off") << endl; glutPostRedisplay(); } break; // Press 'x' to switch on material textures. case 'x': render_engine.add_textures(); cout << "Toggled textures on." << endl; break; // Press 'z' to zoom in. case 'z': { render_engine.set_focal_dist(render_engine.get_focal_dist()*1.05f); glutPostRedisplay(); } break; // Press 'Z' to zoom out. case 'Z': { render_engine.set_focal_dist(render_engine.get_focal_dist()/1.05f); glutPostRedisplay(); } break; // Press 'SPACE' to switch between pre-view and your last tracing result. case 32: render_engine.undo(); glutPostRedisplay(); break; // Press 'ESC' to exit the program. case 27: exit(0); } } void RenderEngine::set_current_shader(unsigned int shader) { current_shader = shader; for(int i = 0; i < 2; ++i) scene.set_shader(i, shaders[current_shader]); }

cb4250f84d646fdff63e7c293eca7f2e6c679e96

20bf3095aa164d0d3431b73ead8a268684f14976

/cpp-labs/BINSEARC.CPP

11031f2f490ca7807b57f57bfabe76de39f3537a

no_license

collage-lab/mcalab-cpp

eb5518346f5c3b7c1a96627c621a71cc493de76d

c642f1f009154424f243789014c779b9fc938ce4

refs/heads/master

UTF-8

C++

cpp

#include<iostream.h> #include<conio.h> void search(int prr[],int size,int se) { int ll,ul,mid,j; ll=0;ul=size-1; mid=(ul+ll)/2; for(j=1;j<=size;j++) { mid=(ul+ll)/2; if(se<prr[mid]) ul=(mid-1); else if(se>prr[mid]) ll=(mid+1); else { cout<<"Element found at location "<<mid; break; } } } void main() { int arr[100],i,e,m; clrscr(); cout<<"Enter array size:"; cin>>m; for(i=0;i<m;i++) { cout<<endl<<"Element["<<i<<"]:-"; cin>>arr[i]; } cout<<endl<<"Element to be found:"; cin>>e; search(arr,m,e); getch(); }

b3da75f477fe932eeae81db1dd4d2c0c054dab33

037faae47a5b22d3e283555e6b5ac2a0197faf18

/pcsx2v2/windows/libs/pthread.h

e206de0a8cb75d07e4d0d04c15363099822b8df0

no_license

isabella232/pcsx2-sourceforge

6e5aac8d0b476601bfc8fa83ded66c1564b8c588

dbb2c3a010081b105a8cba0c588f1e8f4e4505c6

refs/heads/master

UTF-8

C++

h

/* This is an implementation of the threads API of POSIX 1003.1-2001. * * -------------------------------------------------------------------------- * * Pthreads-win32 - POSIX Threads Library for Win32 * Copyright(C) 1998 John E. Bossom * Copyright(C) 1999,2005 Pthreads-win32 contributors * * Contact Email: [email protected] * * The current list of contributors is contained * in the file CONTRIBUTORS included with the source * code distribution. The list can also be seen at the * following World Wide Web location: * http://sources.redhat.com/pthreads-win32/contributors.html * * This library is free software; you can redistribute it and/or * modify it under the terms of the GNU Lesser General Public * License as published by the Free Software Foundation; either * version 2 of the License, or (at your option) any later version. * * This library is distributed in the hope that it will be useful, * but WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU * Lesser General Public License for more details. * * You should have received a copy of the GNU Lesser General Public * License along with this library in the file COPYING.LIB; * if not, write to the Free Software Foundation, Inc., * 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA */ #if !defined( PTHREAD_H ) #define PTHREAD_H /* * See the README file for an explanation of the pthreads-win32 version * numbering scheme and how the DLL is named etc. */ #define PTW32_VERSION 2,7,0,0 #define PTW32_VERSION_STRING "2, 7, 0, 0\0" /* There are three implementations of cancel cleanup. * Note that pthread.h is included in both application * compilation units and also internally for the library. * The code here and within the library aims to work * for all reasonable combinations of environments. * * The three implementations are: * * WIN32 SEH * C * C++ * * Please note that exiting a push/pop block via * "return", "exit", "break", or "continue" will * lead to different behaviour amongst applications * depending upon whether the library was built * using SEH, C++, or C. For example, a library built * with SEH will call the cleanup routine, while both * C++ and C built versions will not. */ /* * Define defaults for cleanup code. * Note: Unless the build explicitly defines one of the following, then * we default to standard C style cleanup. This style uses setjmp/longjmp * in the cancelation and thread exit implementations and therefore won't * do stack unwinding if linked to applications that have it (e.g. * C++ apps). This is currently consistent with most/all commercial Unix * POSIX threads implementations. */ #if !defined( __CLEANUP_SEH ) && !defined( __CLEANUP_CXX ) && !defined( __CLEANUP_C ) # define __CLEANUP_C #endif #if defined( __CLEANUP_SEH ) && ( !defined( _MSC_VER ) && !defined(PTW32_RC_MSC)) #error ERROR [__FILE__, line __LINE__]: SEH is not supported for this compiler. #endif /* * Stop here if we are being included by the resource compiler. */ #ifndef RC_INVOKED #undef PTW32_LEVEL #if defined(_POSIX_SOURCE) #define PTW32_LEVEL 0 /* Early POSIX */ #endif #if defined(_POSIX_C_SOURCE) && _POSIX_C_SOURCE >= 199309 #undef PTW32_LEVEL #define PTW32_LEVEL 1 /* Include 1b, 1c and 1d */ #endif #if defined(INCLUDE_NP) #undef PTW32_LEVEL #define PTW32_LEVEL 2 /* Include Non-Portable extensions */ #endif #define PTW32_LEVEL_MAX 3 #if !defined(PTW32_LEVEL) #define PTW32_LEVEL PTW32_LEVEL_MAX /* Include everything */ #endif #ifdef _UWIN # define HAVE_STRUCT_TIMESPEC 1 # define HAVE_SIGNAL_H 1 # undef HAVE_CONFIG_H # pragma comment(lib, "pthread") #endif /* * ------------------------------------------------------------- * * * Module: pthread.h * * Purpose: * Provides an implementation of PThreads based upon the * standard: * * POSIX 1003.1-2001 * and * The Single Unix Specification version 3 * * (these two are equivalent) * * in order to enhance code portability between Windows, * various commercial Unix implementations, and Linux. * * See the ANNOUNCE file for a full list of conforming * routines and defined constants, and a list of missing * routines and constants not defined in this implementation. * * Authors: * There have been many contributors to this library. * The initial implementation was contributed by * John Bossom, and several others have provided major * sections or revisions of parts of the implementation. * Often significant effort has been contributed to * find and fix important bugs and other problems to * improve the reliability of the library, which sometimes * is not reflected in the amount of code which changed as * result. * As much as possible, the contributors are acknowledged * in the ChangeLog file in the source code distribution * where their changes are noted in detail. * * Contributors are listed in the CONTRIBUTORS file. * * As usual, all bouquets go to the contributors, and all * brickbats go to the project maintainer. * * Maintainer: * The code base for this project is coordinated and * eventually pre-tested, packaged, and made available by * * Ross Johnson <[email protected]> * * QA Testers: * Ultimately, the library is tested in the real world by * a host of competent and demanding scientists and * engineers who report bugs and/or provide solutions * which are then fixed or incorporated into subsequent * versions of the library. Each time a bug is fixed, a * test case is written to prove the fix and ensure * that later changes to the code don't reintroduce the * same error. The number of test cases is slowly growing * and therefore so is the code reliability. * * Compliance: * See the file ANNOUNCE for the list of implemented * and not-implemented routines and defined options. * Of course, these are all defined is this file as well. * * Web site: * The source code and other information about this library * are available from * * http://sources.redhat.com/pthreads-win32/ * * ------------------------------------------------------------- */ /* Try to avoid including windows.h */ #if defined(__MINGW32__) && defined(__cplusplus) #define PTW32_INCLUDE_WINDOWS_H #endif #ifdef PTW32_INCLUDE_WINDOWS_H #include <windows.h> #endif #if defined(_MSC_VER) && _MSC_VER < 1300 || defined(__DMC__) /* * VC++6.0 or early compiler's header has no DWORD_PTR type. */ typedef unsigned long DWORD_PTR; #endif /* * ----------------- * autoconf switches * ----------------- */ #if HAVE_CONFIG_H #include "config.h" #endif /* HAVE_CONFIG_H */ #ifndef NEED_FTIME #include <time.h> #else /* NEED_FTIME */ /* use native WIN32 time API */ #endif /* NEED_FTIME */ #if HAVE_SIGNAL_H #include <signal.h> #endif /* HAVE_SIGNAL_H */ #include <setjmp.h> #include <limits.h> /* * Boolean values to make us independent of system includes. */ enum { PTW32_FALSE = 0, PTW32_TRUE = (! PTW32_FALSE) }; /* * This is a duplicate of what is in the autoconf config.h, * which is only used when building the pthread-win32 libraries. */ #ifndef PTW32_CONFIG_H # if defined(WINCE) # define NEED_ERRNO # define NEED_SEM # endif # if defined(_UWIN) || defined(__MINGW32__) # define HAVE_MODE_T # endif #endif /* * */ #if PTW32_LEVEL >= PTW32_LEVEL_MAX #ifdef NEED_ERRNO #include "need_errno.h" #else #include <errno.h> #endif #endif /* PTW32_LEVEL >= PTW32_LEVEL_MAX */ /* * Several systems don't define some error numbers. */ #ifndef ENOTSUP # define ENOTSUP 48 /* This is the value in Solaris. */ #endif #ifndef ETIMEDOUT # define ETIMEDOUT 10060 /* This is the value in winsock.h. */ #endif #ifndef ENOSYS # define ENOSYS 140 /* Semi-arbitrary value */ #endif #ifndef EDEADLK # ifdef EDEADLOCK # define EDEADLK EDEADLOCK # else # define EDEADLK 36 /* This is the value in MSVC. */ # endif #endif #include <sched.h> /* * To avoid including windows.h we define only those things that we * actually need from it. */ #ifndef PTW32_INCLUDE_WINDOWS_H #ifndef HANDLE # define PTW32__HANDLE_DEF # define HANDLE void * #endif #ifndef DWORD # define PTW32__DWORD_DEF # define DWORD unsigned long #endif #endif #ifndef HAVE_STRUCT_TIMESPEC #define HAVE_STRUCT_TIMESPEC 1 struct timespec { long tv_sec; long tv_nsec; }; #endif /* HAVE_STRUCT_TIMESPEC */ #ifndef SIG_BLOCK #define SIG_BLOCK 0 #endif /* SIG_BLOCK */ #ifndef SIG_UNBLOCK #define SIG_UNBLOCK 1 #endif /* SIG_UNBLOCK */ #ifndef SIG_SETMASK #define SIG_SETMASK 2 #endif /* SIG_SETMASK */ #ifdef __cplusplus extern "C" { #endif /* __cplusplus */ /* * ------------------------------------------------------------- * * POSIX 1003.1-2001 Options * ========================= * * Options are normally set in <unistd.h>, which is not provided * with pthreads-win32. * * For conformance with the Single Unix Specification (version 3), all of the * options below are defined, and have a value of either -1 (not supported) * or 200112L (supported). * * These options can neither be left undefined nor have a value of 0, because * either indicates that sysconf(), which is not implemented, may be used at * runtime to check the status of the option. * * _POSIX_THREADS (== 200112L) * If == 200112L, you can use threads * * _POSIX_THREAD_ATTR_STACKSIZE (== 200112L) * If == 200112L, you can control the size of a thread's * stack * pthread_attr_getstacksize * pthread_attr_setstacksize * * _POSIX_THREAD_ATTR_STACKADDR (== -1) * If == 200112L, you can allocate and control a thread's * stack. If not supported, the following functions * will return ENOSYS, indicating they are not * supported: * pthread_attr_getstackaddr * pthread_attr_setstackaddr * * _POSIX_THREAD_PRIORITY_SCHEDULING (== -1) * If == 200112L, you can use realtime scheduling. * This option indicates that the behaviour of some * implemented functions conforms to the additional TPS * requirements in the standard. E.g. rwlocks favour * writers over readers when threads have equal priority. * * _POSIX_THREAD_PRIO_INHERIT (== -1) * If == 200112L, you can create priority inheritance * mutexes. * pthread_mutexattr_getprotocol + * pthread_mutexattr_setprotocol + * * _POSIX_THREAD_PRIO_PROTECT (== -1) * If == 200112L, you can create priority ceiling mutexes * Indicates the availability of: * pthread_mutex_getprioceiling * pthread_mutex_setprioceiling * pthread_mutexattr_getprioceiling * pthread_mutexattr_getprotocol + * pthread_mutexattr_setprioceiling * pthread_mutexattr_setprotocol + * * _POSIX_THREAD_PROCESS_SHARED (== -1) * If set, you can create mutexes and condition * variables that can be shared with another * process.If set, indicates the availability * of: * pthread_mutexattr_getpshared * pthread_mutexattr_setpshared * pthread_condattr_getpshared * pthread_condattr_setpshared * * _POSIX_THREAD_SAFE_FUNCTIONS (== 200112L) * If == 200112L you can use the special *_r library * functions that provide thread-safe behaviour * * _POSIX_READER_WRITER_LOCKS (== 200112L) * If == 200112L, you can use read/write locks * * _POSIX_SPIN_LOCKS (== 200112L) * If == 200112L, you can use spin locks * * _POSIX_BARRIERS (== 200112L) * If == 200112L, you can use barriers * * + These functions provide both 'inherit' and/or * 'protect' protocol, based upon these macro * settings. * * ------------------------------------------------------------- */ /* * POSIX Options */ #undef _POSIX_THREADS #define _POSIX_THREADS 200112L #undef _POSIX_READER_WRITER_LOCKS #define _POSIX_READER_WRITER_LOCKS 200112L #undef _POSIX_SPIN_LOCKS #define _POSIX_SPIN_LOCKS 200112L #undef _POSIX_BARRIERS #define _POSIX_BARRIERS 200112L #undef _POSIX_THREAD_SAFE_FUNCTIONS #define _POSIX_THREAD_SAFE_FUNCTIONS 200112L #undef _POSIX_THREAD_ATTR_STACKSIZE #define _POSIX_THREAD_ATTR_STACKSIZE 200112L /* * The following options are not supported */ #undef _POSIX_THREAD_ATTR_STACKADDR #define _POSIX_THREAD_ATTR_STACKADDR -1 #undef _POSIX_THREAD_PRIO_INHERIT #define _POSIX_THREAD_PRIO_INHERIT -1 #undef _POSIX_THREAD_PRIO_PROTECT #define _POSIX_THREAD_PRIO_PROTECT -1 /* TPS is not fully supported. */ #undef _POSIX_THREAD_PRIORITY_SCHEDULING #define _POSIX_THREAD_PRIORITY_SCHEDULING -1 #undef _POSIX_THREAD_PROCESS_SHARED #define _POSIX_THREAD_PROCESS_SHARED -1 /* * POSIX 1003.1-2001 Limits * =========================== * * These limits are normally set in <limits.h>, which is not provided with * pthreads-win32. * * PTHREAD_DESTRUCTOR_ITERATIONS * Maximum number of attempts to destroy * a thread's thread-specific data on * termination (must be at least 4) * * PTHREAD_KEYS_MAX * Maximum number of thread-specific data keys * available per process (must be at least 128) * * PTHREAD_STACK_MIN * Minimum supported stack size for a thread * * PTHREAD_THREADS_MAX * Maximum number of threads supported per * process (must be at least 64). * * SEM_NSEMS_MAX * The maximum number of semaphores a process can have. * (must be at least 256) * * SEM_VALUE_MAX * The maximum value a semaphore can have. * (must be at least 32767) * */ #undef _POSIX_THREAD_DESTRUCTOR_ITERATIONS #define _POSIX_THREAD_DESTRUCTOR_ITERATIONS 4 #undef PTHREAD_DESTRUCTOR_ITERATIONS #define PTHREAD_DESTRUCTOR_ITERATIONS _POSIX_THREAD_DESTRUCTOR_ITERATIONS #undef _POSIX_THREAD_KEYS_MAX #define _POSIX_THREAD_KEYS_MAX 128 #undef PTHREAD_KEYS_MAX #define PTHREAD_KEYS_MAX _POSIX_THREAD_KEYS_MAX #undef PTHREAD_STACK_MIN #define PTHREAD_STACK_MIN 0 #undef _POSIX_THREAD_THREADS_MAX #define _POSIX_THREAD_THREADS_MAX 64 /* Arbitrary value */ #undef PTHREAD_THREADS_MAX #define PTHREAD_THREADS_MAX 2019 #undef _POSIX_SEM_NSEMS_MAX #define _POSIX_SEM_NSEMS_MAX 256 /* Arbitrary value */ #undef SEM_NSEMS_MAX #define SEM_NSEMS_MAX 1024 #undef _POSIX_SEM_VALUE_MAX #define _POSIX_SEM_VALUE_MAX 32767 #undef SEM_VALUE_MAX #define SEM_VALUE_MAX INT_MAX #if __GNUC__ && ! defined (__declspec) # error Please upgrade your GNU compiler to one that supports __declspec. #endif /* * When building the DLL code, you should define PTW32_BUILD so that * the variables/functions are exported correctly. When using the DLL, * do NOT define PTW32_BUILD, and then the variables/functions will * be imported correctly. */ #ifndef PTW32_STATIC_LIB # ifdef PTW32_BUILD # define PTW32_DLLPORT __declspec (dllexport) # else # define PTW32_DLLPORT __declspec (dllimport) # endif #else # define PTW32_DLLPORT #endif /* * The Open Watcom C/C++ compiler uses a non-standard calling convention * that passes function args in registers unless __cdecl is explicitly specified * in exposed function prototypes. * * We force all calls to cdecl even though this could slow Watcom code down * slightly. If you know that the Watcom compiler will be used to build both * the DLL and application, then you can probably define this as a null string. * Remember that pthread.h (this file) is used for both the DLL and application builds. */ #define PTW32_CDECL __cdecl #if defined(_UWIN) && PTW32_LEVEL >= PTW32_LEVEL_MAX # include <sys/types.h> #else /* * Generic handle type - intended to extend uniqueness beyond * that available with a simple pointer. It should scale for either * IA-32 or IA-64. */ typedef struct { void * p; /* Pointer to actual object */ unsigned int x; /* Extra information - reuse count etc */ } ptw32_handle_t; typedef ptw32_handle_t pthread_t; typedef struct pthread_attr_t_ * pthread_attr_t; typedef struct pthread_once_t_ pthread_once_t; typedef struct pthread_key_t_ * pthread_key_t; typedef struct pthread_mutex_t_ * pthread_mutex_t; typedef struct pthread_mutexattr_t_ * pthread_mutexattr_t; typedef struct pthread_cond_t_ * pthread_cond_t; typedef struct pthread_condattr_t_ * pthread_condattr_t; #endif typedef struct pthread_rwlock_t_ * pthread_rwlock_t; typedef struct pthread_rwlockattr_t_ * pthread_rwlockattr_t; typedef struct pthread_spinlock_t_ * pthread_spinlock_t; typedef struct pthread_barrier_t_ * pthread_barrier_t; typedef struct pthread_barrierattr_t_ * pthread_barrierattr_t; /* * ==================== * ==================== * POSIX Threads * ==================== * ==================== */ enum { /* * pthread_attr_{get,set}detachstate */ PTHREAD_CREATE_JOINABLE = 0, /* Default */ PTHREAD_CREATE_DETACHED = 1, /* * pthread_attr_{get,set}inheritsched */ PTHREAD_INHERIT_SCHED = 0, PTHREAD_EXPLICIT_SCHED = 1, /* Default */ /* * pthread_{get,set}scope */ PTHREAD_SCOPE_PROCESS = 0, PTHREAD_SCOPE_SYSTEM = 1, /* Default */ /* * pthread_setcancelstate paramters */ PTHREAD_CANCEL_ENABLE = 0, /* Default */ PTHREAD_CANCEL_DISABLE = 1, /* * pthread_setcanceltype parameters */ PTHREAD_CANCEL_ASYNCHRONOUS = 0, PTHREAD_CANCEL_DEFERRED = 1, /* Default */ /* * pthread_mutexattr_{get,set}pshared * pthread_condattr_{get,set}pshared */ PTHREAD_PROCESS_PRIVATE = 0, PTHREAD_PROCESS_SHARED = 1, /* * pthread_barrier_wait */ PTHREAD_BARRIER_SERIAL_THREAD = -1 }; /* * ==================== * ==================== * Cancelation * ==================== * ==================== */ #define PTHREAD_CANCELED ((void *) -1) /* * ==================== * ==================== * Once Key * ==================== * ==================== */ #define PTHREAD_ONCE_INIT { PTW32_FALSE, 0, 0, 0} struct pthread_once_t_ { int done; /* indicates if user function has been executed */ void * lock; int reserved1; int reserved2; }; /* * ==================== * ==================== * Object initialisers * ==================== * ==================== */ #define PTHREAD_MUTEX_INITIALIZER ((pthread_mutex_t) -1) #define PTHREAD_RECURSIVE_MUTEX_INITIALIZER ((pthread_mutex_t) -2) #define PTHREAD_ERRORCHECK_MUTEX_INITIALIZER ((pthread_mutex_t) -3) /* * Compatibility with LinuxThreads */ #define PTHREAD_RECURSIVE_MUTEX_INITIALIZER_NP PTHREAD_RECURSIVE_MUTEX_INITIALIZER #define PTHREAD_ERRORCHECK_MUTEX_INITIALIZER_NP PTHREAD_ERRORCHECK_MUTEX_INITIALIZER #define PTHREAD_COND_INITIALIZER ((pthread_cond_t) -1) #define PTHREAD_RWLOCK_INITIALIZER ((pthread_rwlock_t) -1) #define PTHREAD_SPINLOCK_INITIALIZER ((pthread_spinlock_t) -1) /* * Mutex types. */ enum { /* Compatibility with LinuxThreads */ PTHREAD_MUTEX_FAST_NP, PTHREAD_MUTEX_RECURSIVE_NP, PTHREAD_MUTEX_ERRORCHECK_NP, PTHREAD_MUTEX_TIMED_NP = PTHREAD_MUTEX_FAST_NP, PTHREAD_MUTEX_ADAPTIVE_NP = PTHREAD_MUTEX_FAST_NP, /* For compatibility with POSIX */ PTHREAD_MUTEX_NORMAL = PTHREAD_MUTEX_FAST_NP, PTHREAD_MUTEX_RECURSIVE = PTHREAD_MUTEX_RECURSIVE_NP, PTHREAD_MUTEX_ERRORCHECK = PTHREAD_MUTEX_ERRORCHECK_NP, PTHREAD_MUTEX_DEFAULT = PTHREAD_MUTEX_NORMAL }; typedef struct ptw32_cleanup_t ptw32_cleanup_t; #if defined(_MSC_VER) /* Disable MSVC 'anachronism used' warning */ #pragma warning( disable : 4229 ) #endif typedef void (* PTW32_CDECL ptw32_cleanup_callback_t)(void *); #if defined(_MSC_VER) #pragma warning( default : 4229 ) #endif struct ptw32_cleanup_t { ptw32_cleanup_callback_t routine; void *arg; struct ptw32_cleanup_t *prev; }; #ifdef __CLEANUP_SEH /* * WIN32 SEH version of cancel cleanup. */ #define pthread_cleanup_push( _rout, _arg ) \ { \ ptw32_cleanup_t _cleanup; \ \ _cleanup.routine = (ptw32_cleanup_callback_t)(_rout); \ _cleanup.arg = (_arg); \ __try \ { \ #define pthread_cleanup_pop( _execute ) \ } \ __finally \ { \ if( _execute || AbnormalTermination()) \ { \ (*(_cleanup.routine))( _cleanup.arg ); \ } \ } \ } #else /* __CLEANUP_SEH */ #ifdef __CLEANUP_C /* * C implementation of PThreads cancel cleanup */ #define pthread_cleanup_push( _rout, _arg ) \ { \ ptw32_cleanup_t _cleanup; \ \ ptw32_push_cleanup( &_cleanup, (ptw32_cleanup_callback_t) (_rout), (_arg) ); \ #define pthread_cleanup_pop( _execute ) \ (void) ptw32_pop_cleanup( _execute ); \ } #else /* __CLEANUP_C */ #ifdef __CLEANUP_CXX /* * C++ version of cancel cleanup. * - John E. Bossom. */ class PThreadCleanup { /* * PThreadCleanup * * Purpose * This class is a C++ helper class that is * used to implement pthread_cleanup_push/ * pthread_cleanup_pop. * The destructor of this class automatically * pops the pushed cleanup routine regardless * of how the code exits the scope * (i.e. such as by an exception) */ ptw32_cleanup_callback_t cleanUpRout; void * obj; int executeIt; public: PThreadCleanup() : cleanUpRout( 0 ), obj( 0 ), executeIt( 0 ) /* * No cleanup performed */ { } PThreadCleanup( ptw32_cleanup_callback_t routine, void * arg ) : cleanUpRout( routine ), obj( arg ), executeIt( 1 ) /* * Registers a cleanup routine for 'arg' */ { } ~PThreadCleanup() { if ( executeIt && ((void *) cleanUpRout != (void *) 0) ) { (void) (*cleanUpRout)( obj ); } } void execute( int exec ) { executeIt = exec; } }; /* * C++ implementation of PThreads cancel cleanup; * This implementation takes advantage of a helper * class who's destructor automatically calls the * cleanup routine if we exit our scope weirdly */ #define pthread_cleanup_push( _rout, _arg ) \ { \ PThreadCleanup cleanup((ptw32_cleanup_callback_t)(_rout), \ (void *) (_arg) ); #define pthread_cleanup_pop( _execute ) \ cleanup.execute( _execute ); \ } #else #error ERROR [__FILE__, line __LINE__]: Cleanup type undefined. #endif /* __CLEANUP_CXX */ #endif /* __CLEANUP_C */ #endif /* __CLEANUP_SEH */ /* * =============== * =============== * Methods * =============== * =============== */ /* * PThread Attribute Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_attr_init (pthread_attr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_attr_destroy (pthread_attr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_attr_getdetachstate (const pthread_attr_t * attr, int *detachstate); PTW32_DLLPORT int PTW32_CDECL pthread_attr_getstackaddr (const pthread_attr_t * attr, void **stackaddr); PTW32_DLLPORT int PTW32_CDECL pthread_attr_getstacksize (const pthread_attr_t * attr, size_t * stacksize); PTW32_DLLPORT int PTW32_CDECL pthread_attr_setdetachstate (pthread_attr_t * attr, int detachstate); PTW32_DLLPORT int PTW32_CDECL pthread_attr_setstackaddr (pthread_attr_t * attr, void *stackaddr); PTW32_DLLPORT int PTW32_CDECL pthread_attr_setstacksize (pthread_attr_t * attr, size_t stacksize); PTW32_DLLPORT int PTW32_CDECL pthread_attr_getschedparam (const pthread_attr_t *attr, struct sched_param *param); PTW32_DLLPORT int PTW32_CDECL pthread_attr_setschedparam (pthread_attr_t *attr, const struct sched_param *param); PTW32_DLLPORT int PTW32_CDECL pthread_attr_setschedpolicy (pthread_attr_t *, int); PTW32_DLLPORT int PTW32_CDECL pthread_attr_getschedpolicy (pthread_attr_t *, int *); PTW32_DLLPORT int PTW32_CDECL pthread_attr_setinheritsched(pthread_attr_t * attr, int inheritsched); PTW32_DLLPORT int PTW32_CDECL pthread_attr_getinheritsched(pthread_attr_t * attr, int * inheritsched); PTW32_DLLPORT int PTW32_CDECL pthread_attr_setscope (pthread_attr_t *, int); PTW32_DLLPORT int PTW32_CDECL pthread_attr_getscope (const pthread_attr_t *, int *); /* * PThread Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_create (pthread_t * tid, const pthread_attr_t * attr, void *(*start) (void *), void *arg); PTW32_DLLPORT int PTW32_CDECL pthread_detach (pthread_t tid); PTW32_DLLPORT int PTW32_CDECL pthread_equal (pthread_t t1, pthread_t t2); PTW32_DLLPORT void PTW32_CDECL pthread_exit (void *value_ptr); PTW32_DLLPORT int PTW32_CDECL pthread_join (pthread_t thread, void **value_ptr); PTW32_DLLPORT pthread_t PTW32_CDECL pthread_self (void); PTW32_DLLPORT int PTW32_CDECL pthread_cancel (pthread_t thread); PTW32_DLLPORT int PTW32_CDECL pthread_setcancelstate (int state, int *oldstate); PTW32_DLLPORT int PTW32_CDECL pthread_setcanceltype (int type, int *oldtype); PTW32_DLLPORT void PTW32_CDECL pthread_testcancel (void); PTW32_DLLPORT int PTW32_CDECL pthread_once (pthread_once_t * once_control, void (*init_routine) (void)); #if PTW32_LEVEL >= PTW32_LEVEL_MAX PTW32_DLLPORT ptw32_cleanup_t * PTW32_CDECL ptw32_pop_cleanup (int execute); PTW32_DLLPORT void PTW32_CDECL ptw32_push_cleanup (ptw32_cleanup_t * cleanup, void (*routine) (void *), void *arg); #endif /* PTW32_LEVEL >= PTW32_LEVEL_MAX */ /* * Thread Specific Data Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_key_create (pthread_key_t * key, void (*destructor) (void *)); PTW32_DLLPORT int PTW32_CDECL pthread_key_delete (pthread_key_t key); PTW32_DLLPORT int PTW32_CDECL pthread_setspecific (pthread_key_t key, const void *value); PTW32_DLLPORT void * PTW32_CDECL pthread_getspecific (pthread_key_t key); /* * Mutex Attribute Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_mutexattr_init (pthread_mutexattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_mutexattr_destroy (pthread_mutexattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_mutexattr_getpshared (const pthread_mutexattr_t * attr, int *pshared); PTW32_DLLPORT int PTW32_CDECL pthread_mutexattr_setpshared (pthread_mutexattr_t * attr, int pshared); PTW32_DLLPORT int PTW32_CDECL pthread_mutexattr_settype (pthread_mutexattr_t * attr, int kind); PTW32_DLLPORT int PTW32_CDECL pthread_mutexattr_gettype (pthread_mutexattr_t * attr, int *kind); /* * Barrier Attribute Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_barrierattr_init (pthread_barrierattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_barrierattr_destroy (pthread_barrierattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_barrierattr_getpshared (const pthread_barrierattr_t * attr, int *pshared); PTW32_DLLPORT int PTW32_CDECL pthread_barrierattr_setpshared (pthread_barrierattr_t * attr, int pshared); /* * Mutex Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_mutex_init (pthread_mutex_t * mutex, const pthread_mutexattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_mutex_destroy (pthread_mutex_t * mutex); PTW32_DLLPORT int PTW32_CDECL pthread_mutex_lock (pthread_mutex_t * mutex); PTW32_DLLPORT int PTW32_CDECL pthread_mutex_timedlock(pthread_mutex_t *mutex, const struct timespec *abstime); PTW32_DLLPORT int PTW32_CDECL pthread_mutex_trylock (pthread_mutex_t * mutex); PTW32_DLLPORT int PTW32_CDECL pthread_mutex_unlock (pthread_mutex_t * mutex); /* * Spinlock Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_spin_init (pthread_spinlock_t * lock, int pshared); PTW32_DLLPORT int PTW32_CDECL pthread_spin_destroy (pthread_spinlock_t * lock); PTW32_DLLPORT int PTW32_CDECL pthread_spin_lock (pthread_spinlock_t * lock); PTW32_DLLPORT int PTW32_CDECL pthread_spin_trylock (pthread_spinlock_t * lock); PTW32_DLLPORT int PTW32_CDECL pthread_spin_unlock (pthread_spinlock_t * lock); /* * Barrier Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_barrier_init (pthread_barrier_t * barrier, const pthread_barrierattr_t * attr, unsigned int count); PTW32_DLLPORT int PTW32_CDECL pthread_barrier_destroy (pthread_barrier_t * barrier); PTW32_DLLPORT int PTW32_CDECL pthread_barrier_wait (pthread_barrier_t * barrier); /* * Condition Variable Attribute Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_condattr_init (pthread_condattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_condattr_destroy (pthread_condattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_condattr_getpshared (const pthread_condattr_t * attr, int *pshared); PTW32_DLLPORT int PTW32_CDECL pthread_condattr_setpshared (pthread_condattr_t * attr, int pshared); /* * Condition Variable Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_cond_init (pthread_cond_t * cond, const pthread_condattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_cond_destroy (pthread_cond_t * cond); PTW32_DLLPORT int PTW32_CDECL pthread_cond_wait (pthread_cond_t * cond, pthread_mutex_t * mutex); PTW32_DLLPORT int PTW32_CDECL pthread_cond_timedwait (pthread_cond_t * cond, pthread_mutex_t * mutex, const struct timespec *abstime); PTW32_DLLPORT int PTW32_CDECL pthread_cond_signal (pthread_cond_t * cond); PTW32_DLLPORT int PTW32_CDECL pthread_cond_broadcast (pthread_cond_t * cond); /* * Scheduling */ PTW32_DLLPORT int PTW32_CDECL pthread_setschedparam (pthread_t thread, int policy, const struct sched_param *param); PTW32_DLLPORT int PTW32_CDECL pthread_getschedparam (pthread_t thread, int *policy, struct sched_param *param); PTW32_DLLPORT int PTW32_CDECL pthread_setconcurrency (int); PTW32_DLLPORT int PTW32_CDECL pthread_getconcurrency (void); /* * Read-Write Lock Functions */ PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_init(pthread_rwlock_t *lock, const pthread_rwlockattr_t *attr); PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_destroy(pthread_rwlock_t *lock); PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_tryrdlock(pthread_rwlock_t *); PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_trywrlock(pthread_rwlock_t *); PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_rdlock(pthread_rwlock_t *lock); PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_timedrdlock(pthread_rwlock_t *lock, const struct timespec *abstime); PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_wrlock(pthread_rwlock_t *lock); PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_timedwrlock(pthread_rwlock_t *lock, const struct timespec *abstime); PTW32_DLLPORT int PTW32_CDECL pthread_rwlock_unlock(pthread_rwlock_t *lock); PTW32_DLLPORT int PTW32_CDECL pthread_rwlockattr_init (pthread_rwlockattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_rwlockattr_destroy (pthread_rwlockattr_t * attr); PTW32_DLLPORT int PTW32_CDECL pthread_rwlockattr_getpshared (const pthread_rwlockattr_t * attr, int *pshared); PTW32_DLLPORT int PTW32_CDECL pthread_rwlockattr_setpshared (pthread_rwlockattr_t * attr, int pshared); #if PTW32_LEVEL >= PTW32_LEVEL_MAX - 1 /* * Signal Functions. Should be defined in <signal.h> but MSVC and MinGW32 * already have signal.h that don't define these. */ PTW32_DLLPORT int PTW32_CDECL pthread_kill(pthread_t thread, int sig); /* * Non-portable functions */ /* * Compatibility with Linux. */ PTW32_DLLPORT int PTW32_CDECL pthread_mutexattr_setkind_np(pthread_mutexattr_t * attr, int kind); PTW32_DLLPORT int PTW32_CDECL pthread_mutexattr_getkind_np(pthread_mutexattr_t * attr, int *kind); /* * Possibly supported by other POSIX threads implementations */ PTW32_DLLPORT int PTW32_CDECL pthread_delay_np (struct timespec * interval); PTW32_DLLPORT int PTW32_CDECL pthread_num_processors_np(void); /* * Useful if an application wants to statically link * the lib rather than load the DLL at run-time. */ PTW32_DLLPORT int PTW32_CDECL pthread_win32_process_attach_np(void); PTW32_DLLPORT int PTW32_CDECL pthread_win32_process_detach_np(void); PTW32_DLLPORT int PTW32_CDECL pthread_win32_thread_attach_np(void); PTW32_DLLPORT int PTW32_CDECL pthread_win32_thread_detach_np(void); /* * Features that are auto-detected at load/run time. */ PTW32_DLLPORT int PTW32_CDECL pthread_win32_test_features_np(int); enum ptw32_features { PTW32_SYSTEM_INTERLOCKED_COMPARE_EXCHANGE = 0x0001, /* System provides it. */ PTW32_ALERTABLE_ASYNC_CANCEL = 0x0002 /* Can cancel blocked threads. */ }; /* * Register a system time change with the library. * Causes the library to perform various functions * in response to the change. Should be called whenever * the application's top level window receives a * WM_TIMECHANGE message. It can be passed directly to * pthread_create() as a new thread if desired. */ PTW32_DLLPORT void * PTW32_CDECL pthread_timechange_handler_np(void *); #endif /*PTW32_LEVEL >= PTW32_LEVEL_MAX - 1 */ #if PTW32_LEVEL >= PTW32_LEVEL_MAX /* * Returns the Win32 HANDLE for the POSIX thread. */ PTW32_DLLPORT HANDLE PTW32_CDECL pthread_getw32threadhandle_np(pthread_t thread); /* * Protected Methods * * This function blocks until the given WIN32 handle * is signaled or pthread_cancel had been called. * This function allows the caller to hook into the * PThreads cancel mechanism. It is implemented using * * WaitForMultipleObjects * * on 'waitHandle' and a manually reset WIN32 Event * used to implement pthread_cancel. The 'timeout' * argument to TimedWait is simply passed to * WaitForMultipleObjects. */ PTW32_DLLPORT int PTW32_CDECL pthreadCancelableWait (HANDLE waitHandle); PTW32_DLLPORT int PTW32_CDECL pthreadCancelableTimedWait (HANDLE waitHandle, DWORD timeout); #endif /* PTW32_LEVEL >= PTW32_LEVEL_MAX */ /* * Thread-Safe C Runtime Library Mappings. */ #ifndef _UWIN # if defined(NEED_ERRNO) PTW32_DLLPORT int * PTW32_CDECL _errno( void ); # else # ifndef errno # if (defined(_MT) || defined(_DLL)) __declspec(dllimport) extern int * __cdecl _errno(void); # define errno (*_errno()) # endif # endif # endif #endif /* * WIN32 C runtime library had been made thread-safe * without affecting the user interface. Provide * mappings from the UNIX thread-safe versions to * the standard C runtime library calls. * Only provide function mappings for functions that * actually exist on WIN32. */ #if !defined(__MINGW32__) #define strtok_r( _s, _sep, _lasts ) \ ( *(_lasts) = strtok( (_s), (_sep) ) ) #endif /* !__MINGW32__ */ #define asctime_r( _tm, _buf ) \ ( strcpy( (_buf), asctime( (_tm) ) ), \ (_buf) ) #define ctime_r( _clock, _buf ) \ ( strcpy( (_buf), ctime( (_clock) ) ), \ (_buf) ) #define gmtime_r( _clock, _result ) \ ( *(_result) = *gmtime( (_clock) ), \ (_result) ) #define localtime_r( _clock, _result ) \ ( *(_result) = *localtime( (_clock) ), \ (_result) ) #define rand_r( _seed ) \ ( _seed == _seed? rand() : rand() ) /* * Some compiler environments don't define some things. */ #if defined(__BORLANDC__) # define _ftime ftime # define _timeb timeb #endif #ifdef __cplusplus /* * Internal exceptions */ class ptw32_exception {}; class ptw32_exception_cancel : public ptw32_exception {}; class ptw32_exception_exit : public ptw32_exception {}; #endif #if PTW32_LEVEL >= PTW32_LEVEL_MAX /* FIXME: This is only required if the library was built using SEH */ /* * Get internal SEH tag */ PTW32_DLLPORT DWORD PTW32_CDECL ptw32_get_exception_services_code(void); #endif /* PTW32_LEVEL >= PTW32_LEVEL_MAX */ #ifndef PTW32_BUILD #ifdef __CLEANUP_SEH /* * Redefine the SEH __except keyword to ensure that applications * propagate our internal exceptions up to the library's internal handlers. */ #define __except( E ) \ __except( ( GetExceptionCode() == ptw32_get_exception_services_code() ) \ ? EXCEPTION_CONTINUE_SEARCH : ( E ) ) #endif /* __CLEANUP_SEH */ #ifdef __CLEANUP_CXX /* * Redefine the C++ catch keyword to ensure that applications * propagate our internal exceptions up to the library's internal handlers. */ #ifdef _MSC_VER /* * WARNING: Replace any 'catch( ... )' with 'PtW32CatchAll' * if you want Pthread-Win32 cancelation and pthread_exit to work. */ #ifndef PtW32NoCatchWarn #pragma message("Specify \"/DPtW32NoCatchWarn\" compiler flag to skip this message.") #pragma message("------------------------------------------------------------------") #pragma message("When compiling applications with MSVC++ and C++ exception handling:") #pragma message(" Replace any 'catch( ... )' in routines called from POSIX threads") #pragma message(" with 'PtW32CatchAll' or 'CATCHALL' if you want POSIX thread") #pragma message(" cancelation and pthread_exit to work. For example:") #pragma message("") #pragma message(" #ifdef PtW32CatchAll") #pragma message(" PtW32CatchAll") #pragma message(" #else") #pragma message(" catch(...)") #pragma message(" #endif") #pragma message(" {") #pragma message(" /* Catchall block processing */") #pragma message(" }") #pragma message("------------------------------------------------------------------") #endif #define PtW32CatchAll \ catch( ptw32_exception & ) { throw; } \ catch( ... ) #else /* _MSC_VER */ #define catch( E ) \ catch( ptw32_exception & ) { throw; } \ catch( E ) #endif /* _MSC_VER */ #endif /* __CLEANUP_CXX */ #endif /* ! PTW32_BUILD */ #ifdef __cplusplus } /* End of extern "C" */ #endif /* __cplusplus */ #ifdef PTW32__HANDLE_DEF # undef HANDLE #endif #ifdef PTW32__DWORD_DEF # undef DWORD #endif #undef PTW32_LEVEL #undef PTW32_LEVEL_MAX #endif /* ! RC_INVOKED */ #endif /* PTHREAD_H */

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c5ecda551cefa7aaa54b787850b55a2d8fd12387

/src/UILayer/CtrlEx/TabItem_MainTabBn.h

83578b658fc6f0575c798eeb31e17420439ef77f

no_license

firespeed79/easymule

b2520bfc44977c4e0643064bbc7211c0ce30cf66

3f890fa7ed2526c782cfcfabb5aac08c1e70e033

refs/heads/master

WINDOWS-1252

C++

h

#pragma once // CTabItem_MainTabBn ÃüÁîÄ¿±ê #include "TabItem.h" class CTabItem_MainTabBn : public CTabItem { DECLARE_DYNCREATE(CTabItem_MainTabBn) public: CTabItem_MainTabBn(); virtual ~CTabItem_MainTabBn(); virtual int GetDesireLength(void){return 20;} virtual void Paint(CDC* pDC); virtual void OnLButtonDown(UINT nFlags, CPoint point); virtual void OnMouseHover(void); virtual void OnMouseLeave(void); protected: virtual BOOL CanActive(){return FALSE;} protected: void DrawActiveBk(CDC* pDC, const CRect &rect); void DrawInactiveBk(CDC* pDC, const CRect &rect); void DrawHover(CDC* pDC, const CRect &rect); void DrawTriangle(CDC* pDC, CRect &rect); };

a8a36182f304a717f1efff4645455d2b6aef83f3

8b506bf34b36af04fa970f2749e0c8033f1a9d7a

/Code/C++/enDList.cpp

6f9db02be26aff887d2e1ceb3cb427a2bcf1f7c9

no_license

gunstar/Prototype

a5155e25d7d54a1991425e7be85bfc7da42c634f

a4448b5f6d18048ecaedf26c71e2b107e021ea6e

refs/heads/master

UTF-8

C++

cpp

#include "enDList.h"

beccfd05a1a2cf05993efbd658b7287e0725b5b1

64d7fa49d314ce17ffb7f7610a8f290656b27459

/Dogfight/EventListener.h

180bcbae1881c400168f7a614296bd61cd29f5bd

no_license

DavidVondras/dogfight2d

7aa684cb2e53c1a56eeb2c3ce132010b1c920259

8853878ba05440d1a091cb8eb772dc75aad9e87c

refs/heads/master

UTF-8

C++

h

#ifndef EVENTLISTENER_H #define EVENTLISTENER_H #include <SFML\Window.hpp> /// /// Input events interface /// class EventListener { private: int _inputClose, _inputLeft, _inputRight, _inputUp, _inputDown, _inputPropNum, _inputPropNumValue, _inputZoomIn, _inputZoomOut; sf::RenderWindow* const _renderWindow; public: //Initialization EventListener(sf::RenderWindow* const renderWindow) :_renderWindow(renderWindow), _inputPropNumValue(0), _inputClose(false){} ~EventListener(void){} //Render properties float GetEllapsedTime(void) const { return _renderWindow->GetFrameTime(); } //Input Properties int GetInputClose(void) const { return _inputClose; } int GetInputLeft(void) const { return _inputLeft; } int GetInputRight(void) const { return _inputRight; } int GetInputUp(void) const { return _inputUp; } int GetInputDown(void) const { return _inputDown; } int GetInputPropNum(void) const { return _inputPropNum; } int GetInputPropNumValue(void) const { return _inputPropNumValue; } int GetInputZoomIn(void) const { return _inputZoomIn; } int GetInputZoomOut(void) const { return _inputZoomOut; } //Methods void CheckEvents(void); }; #endif

49eb8b85ad3d61f13b7cf524c866a4b22f7834e8

91b964984762870246a2a71cb32187eb9e85d74e

/SRC/OFFI SRC!/_Interface/WndMapEx.h

71da475379e5c694d57e334bd6d846325ad62bee

no_license

willrebuild/flyffsf

e5911fb412221e00a20a6867fd00c55afca593c7

d38cc11790480d617b38bb5fc50729d676aef80d

refs/heads/master

UTF-8

C++

h

#ifndef __WND_MAP_EX_H__ #define __WND_MAP_EX_H__ #ifdef __IMPROVE_MAP_SYSTEM #ifdef __CLIENT #include "TeleportationIconInfo.h" #include "WndUserMarkNameChanger.h" class CWndMapEx : public CWndNeuz { public: enum ConstructionMode { NORMAL, TELEPORTATION, DESTINATION }; public: CWndMapEx( void ); ~CWndMapEx( void ); public: virtual BOOL Initialize( CWndBase* pWndParent = NULL, DWORD nType = MB_OK ); virtual void OnInitialUpdate( void ); virtual BOOL Process( void ); virtual void OnDraw( C2DRender* p2DRender ); virtual void PaintFrame( C2DRender* p2DRender ); virtual BOOL OnCommand( UINT nID, DWORD dwMessage, CWndBase* pWndBase ); virtual BOOL OnChildNotify( UINT message, UINT nID, LRESULT* pLResult ); virtual void SetWndRect( CRect rectWnd, BOOL bOnSize = TRUE ); virtual void OnLButtonDown( UINT nFlags, CPoint point ); virtual void OnRButtonDown( UINT nFlags, CPoint point ); public: void SetConstructionMode( ConstructionMode eConstructionMode ); void InitializeTeleportationInformation( CMover* const pFocusMover ); void UpdateDestinationPosition( void ); private: void InitializeMapComboBoxSelecting( void ); void ResetMapInformation( void ); void ResetNPCPosition( void ); void RearrangeComboBoxData( DWORD dwParentSelectedListItemData, DWORD dwComboBoxWIDC , MapComboBoxDataVector* pMapComboBoxDataVector ); void ProcessMapSizeInformation( void ); void ProcessMonsterInformationToolTip( void ); void ProcessUserMarkToolTip( void ); void ProcessIconTextureAlpha( void ); void RenderPlayerPosition( C2DRender* p2DRender, CTexture* pArrowTexture, const D3DXVECTOR3& vPlayerPosition, const D3DXVECTOR3& vCameraPosition, const CString& strName, DWORD dwNameColor ); void RenderMapMonsterInformation( C2DRender* p2DRender ); void RenderRainbowNPCInformation( C2DRender* p2DRender ); void RenderTeleportationPosition( C2DRender* p2DRender ); void RenderDestinationPosition( C2DRender* p2DRender ); void RenderNPCPosition( C2DRender* p2DRender ); void RenderUserMarkPosition( C2DRender* p2DRender ); FLOAT CalculateMapIconRectFromPoint( CRect& rectDestinationIcon, FLOAT fIconPositionX, FLOAT fIconPositionY, const CTexture* const pIconTexture, FLOAT fIconSizeRatio ); FLOAT CalculateMapIconStartPosition( CPoint& pointDestinationPosition, FLOAT fIconPositionX, FLOAT fIconPositionY, const CTexture* const pIconTexture, FLOAT fIconSizeRatio ); const D3DXVECTOR3& ConvertPosition( D3DXVECTOR3& vDestination, const D3DXVECTOR3& vSource, BYTE byLocationID ); const D3DXVECTOR3& ReconvertPosition( D3DXVECTOR3& vDestination, const D3DXVECTOR3& vSource, BYTE byLocationID ); const CRect& ReviseScriptRectInformation( CRect& rectDestination, const CRect& rectSource ); BYTE CWndMapEx::GetMapArea( const D3DXVECTOR3& vPlayerPosition ); void CalculateMaximumWindowTileLength( void ); private: enum { MINIMUM_ICON_TEXTURE_ALPHA = 0, MAXIMUM_ICON_TEXTURE_ALPHA = 255 }; enum { NORMAL_STATE_ALPHA = 255, TRANSPARENT_STATE_ALPHA = 125 }; enum { ID_USER_MARK_MENU_DELETE = 0, ID_USER_MARK_MENU_DELETE_ALL = 1, ID_USER_MARK_MENU_INSERT_CHATTING_WINDOW = 2, ID_USER_MARK_MENU_CHANGE_NAME = 3, }; private: static const FLOAT SOURCE_MAP_SIZE_X; static const FLOAT SOURCE_MAP_SIZE_Y; static const FLOAT ANIMATION_SPEED; static const FLOAT TELEPORTATION_POSITION_TEXTURE_SIZE_RATIO; static const FLOAT EXTEND_RATIO; static const FLOAT EXTEND_TELEPORTATION_POSITION_TEXTURE_SIZE_RATIO; static const FLOAT DESTINATION_POSITION_TEXTURE_SIZE_RATIO; static const FLOAT NPC_POSITION_TEXTURE_SIZE_RATIO; static const FLOAT USER_MARK_POSITION_TEXTURE_SIZE_RATIO; static const int WINDOW_TILE_TEXTURE_SIZE_XY; static const int MINIMUM_WINDOW_TILE_NUMBER_X; static const int MINIMUM_WINDOW_TILE_NUMBER_Y; private: ConstructionMode m_eConstructionMode; CTexture* m_pPCArrowTexture; CTexture* m_pPartyPCArrowTexture; CTexture* m_pMapTexture; CTexture* m_pTeleportationPositionTexture; CTexture* m_pDestinationPositionTexture; CTexture* m_pNPCPositionTexture; CTexture* m_pUserMarkPositionTexture; FLOAT m_fRevisedMapSizeRatio; CRect m_rectRevisedMapPosition; DWORD m_dwSelectedMapID; BYTE m_bySelectedMapLocationID; BOOL m_bMonsterInformationToolTip; int m_nSelectedMonsterIconIndex; DWORD m_dwSelectedUserMarkID; int m_nIconTextureAlpha; DWORD m_tmOld; BOOL m_bAlphaSwitch; OBJID m_idTeleporter; vector< TeleportationIconInfo* > m_vecTeleportationPositionRect; FLOAT m_fDestinationPositionX; FLOAT m_fDestinationPositionY; FLOAT m_fNPCPositionX; FLOAT m_fNPCPositionY; BOOL m_bMapComboBoxInitialization; BYTE m_byTransparentStateAlpha; CWndMenu m_WndMenuUserMark; CWndUserMarkNameChanger* m_pWndUserMarkNameChanger; int m_nMinimumWindowTileWidth; int m_nMinimumWindowTileHeight; int m_nMaximumWindowTileWidth; int m_nMaximumWindowTileHeight; }; #endif // __CLIENT #endif // __IMPROVE_MAP_SYSTEM #endif // __WND_MAP_EX_H__

ed80e6fdecf3158f64d323da0bdd9724c6c548a3

b5ad65ebe6a1148716115e1faab31b5f0de1b493

/src/AranMath/ArnVec4.h

663a08a49cfdec24b2539d242793bcd7e971625b

no_license

gasbank/aran

4360e3536185dcc0b364d8de84b34ae3a5f0855c

01908cd36612379ade220cc09783bc7366c80961

refs/heads/master

UTF-8

C++

h

#pragma once class ArnVec3; class ARANMATH_API ArnVec4 { public: float x, y, z, w; ArnVec4() : x(0), y(0), z(0), w(0) {} ArnVec4(float _x, float _y, float _z, float _w) : x(_x), y(_y), z(_z), w(_w) {} ArnVec4(const ArnVec3& vec3, float _w) : x(vec3.x), y(vec3.y), z(vec3.z), w(_w) {} float operator[](size_t i) const { switch(i) { case 0: return x; case 1: return y; case 2: return z; case 3: return w; default: ARN_THROW_UNEXPECTED_CASE_ERROR } } const float* getRawData() const { return (const float*)&x; } void printFormatString() const { printf("(x %6.3f, y %6.3f, z %6.3f, w %6.3f)\n", x, y, z, w); } }; ARANMATH_API ArnVec4 CreateArnVec4(float x, float y, float z, float w);

3f674af3645a0008b30569e00dddf4a26455397a

99527557aee4f1db979a7627e77bd7d644098411

/utils/textdrawer.h

5aa0427800ed4f87c3f6f889a838904ad0b01664

no_license

GunioRobot/2deffects

7aeb02400090bb7118d23f1fc435ffbdd4417c59

39d8e335102d6a51cab0d47a3a2dc7686d7a7c67

refs/heads/master

UTF-8

C++

h

#ifndef _TEXTDRAWER_H_ #define _TEXTDRAWER_H_ namespace syd { class Bitmap; class PlainBmp; class TextDrawer { unsigned char_width_, char_height_; Bitmap& font_bmp_; public: TextDrawer ( Bitmap& font_bmp, unsigned char_width, unsigned char_height ); ~TextDrawer(); public: TextDrawer& draw ( Bitmap& destbmp, unsigned x, unsigned y, const char* text ); }; } //syd #endif //!defined(_TEXTDRAWER_H_)

106186df752eb89abbc9ba88396120a8e912958f

7f4230cae41e0712d5942960674bfafe4cccd1f1

/code/IFCReaderGen.h

d2f979e46a0a12741ebaac7cf589dfadf0dc665b

permissive

tonttu/assimp

c6941538b3b3c3d66652423415dea098be21f37a

320a7a7a7e0422e4d8d9c2a22b74cb48f74b14ce

refs/heads/master

UTF-8

C++

h

/* Open Asset Import Library (ASSIMP) ---------------------------------------------------------------------- Copyright (c) 2006-2010, ASSIMP Development Team All rights reserved. Redistribution and use of this software in source and binary forms, with or without modification, are permitted provided that the following conditions are met: * Redistributions of source code must retain the above copyright notice, this list of conditions and the following disclaimer. * Redistributions in binary form must reproduce the above copyright notice, this list of conditions and the following disclaimer in the documentation and/or other materials provided with the distribution. * Neither the name of the ASSIMP team, nor the names of its contributors may be used to endorse or promote products derived from this software without specific prior written permission of the ASSIMP Development Team. THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE. ---------------------------------------------------------------------- */ /** MACHINE-GENERATED by scripts/ICFImporter/CppGenerator.py */ #ifndef INCLUDED_IFC_READER_GEN_H #define INCLUDED_IFC_READER_GEN_H #include "STEPFile.h" namespace Assimp { namespace IFC { using namespace STEP; using namespace STEP::EXPRESS; struct NotImplemented : public ObjectHelper<NotImplemented,0> { }; // ****************************************************************************** // IFC Custom data types // ****************************************************************************** // C++ wrapper type for IfcSoundPowerMeasure typedef REAL IfcSoundPowerMeasure; // C++ wrapper type for IfcDoorStyleOperationEnum typedef ENUMERATION IfcDoorStyleOperationEnum; // C++ wrapper type for IfcRotationalFrequencyMeasure typedef REAL IfcRotationalFrequencyMeasure; // C++ wrapper type for IfcCharacterStyleSelect typedef SELECT IfcCharacterStyleSelect; // C++ wrapper type for IfcElectricTimeControlTypeEnum typedef ENUMERATION IfcElectricTimeControlTypeEnum; // C++ wrapper type for IfcAirTerminalTypeEnum typedef ENUMERATION IfcAirTerminalTypeEnum; // C++ wrapper type for IfcProjectOrderTypeEnum typedef ENUMERATION IfcProjectOrderTypeEnum; // C++ wrapper type for IfcSequenceEnum typedef ENUMERATION IfcSequenceEnum; // C++ wrapper type for IfcSpecificHeatCapacityMeasure typedef REAL IfcSpecificHeatCapacityMeasure; // C++ wrapper type for IfcHeatingValueMeasure typedef REAL IfcHeatingValueMeasure; // C++ wrapper type for IfcRibPlateDirectionEnum typedef ENUMERATION IfcRibPlateDirectionEnum; // C++ wrapper type for IfcSensorTypeEnum typedef ENUMERATION IfcSensorTypeEnum; // C++ wrapper type for IfcElectricHeaterTypeEnum typedef ENUMERATION IfcElectricHeaterTypeEnum; // C++ wrapper type for IfcObjectiveEnum typedef ENUMERATION IfcObjectiveEnum; // C++ wrapper type for IfcTextStyleSelect typedef SELECT IfcTextStyleSelect; // C++ wrapper type for IfcColumnTypeEnum typedef ENUMERATION IfcColumnTypeEnum; // C++ wrapper type for IfcGasTerminalTypeEnum typedef ENUMERATION IfcGasTerminalTypeEnum; // C++ wrapper type for IfcMassDensityMeasure typedef REAL IfcMassDensityMeasure; // C++ wrapper type for IfcSimpleValue typedef SELECT IfcSimpleValue; // C++ wrapper type for IfcElectricConductanceMeasure typedef REAL IfcElectricConductanceMeasure; // C++ wrapper type for IfcBuildingElementProxyTypeEnum typedef ENUMERATION IfcBuildingElementProxyTypeEnum; // C++ wrapper type for IfcJunctionBoxTypeEnum typedef ENUMERATION IfcJunctionBoxTypeEnum; // C++ wrapper type for IfcModulusOfElasticityMeasure typedef REAL IfcModulusOfElasticityMeasure; // C++ wrapper type for IfcActionSourceTypeEnum typedef ENUMERATION IfcActionSourceTypeEnum; // C++ wrapper type for IfcSIUnitName typedef ENUMERATION IfcSIUnitName; // C++ wrapper type for IfcRotationalMassMeasure typedef REAL IfcRotationalMassMeasure; // C++ wrapper type for IfcMemberTypeEnum typedef ENUMERATION IfcMemberTypeEnum; // C++ wrapper type for IfcTextDecoration typedef STRING IfcTextDecoration; // C++ wrapper type for IfcPositiveLengthMeasure typedef REAL IfcPositiveLengthMeasure; // C++ wrapper type for IfcAmountOfSubstanceMeasure typedef REAL IfcAmountOfSubstanceMeasure; // C++ wrapper type for IfcDoorStyleConstructionEnum typedef ENUMERATION IfcDoorStyleConstructionEnum; // C++ wrapper type for IfcAngularVelocityMeasure typedef REAL IfcAngularVelocityMeasure; // C++ wrapper type for IfcDirectionSenseEnum typedef ENUMERATION IfcDirectionSenseEnum; // C++ wrapper type for IfcNullStyle typedef ENUMERATION IfcNullStyle; // C++ wrapper type for IfcMonthInYearNumber typedef INTEGER IfcMonthInYearNumber; // C++ wrapper type for IfcRampFlightTypeEnum typedef ENUMERATION IfcRampFlightTypeEnum; // C++ wrapper type for IfcWindowStyleOperationEnum typedef ENUMERATION IfcWindowStyleOperationEnum; // C++ wrapper type for IfcCurvatureMeasure typedef REAL IfcCurvatureMeasure; // C++ wrapper type for IfcBooleanOperator typedef ENUMERATION IfcBooleanOperator; // C++ wrapper type for IfcDuctFittingTypeEnum typedef ENUMERATION IfcDuctFittingTypeEnum; // C++ wrapper type for IfcCurrencyEnum typedef ENUMERATION IfcCurrencyEnum; // C++ wrapper type for IfcObjectTypeEnum typedef ENUMERATION IfcObjectTypeEnum; // C++ wrapper type for IfcThermalLoadTypeEnum typedef ENUMERATION IfcThermalLoadTypeEnum; // C++ wrapper type for IfcIonConcentrationMeasure typedef REAL IfcIonConcentrationMeasure; // C++ wrapper type for IfcObjectReferenceSelect typedef SELECT IfcObjectReferenceSelect; // C++ wrapper type for IfcClassificationNotationSelect typedef SELECT IfcClassificationNotationSelect; // C++ wrapper type for IfcBSplineCurveForm typedef ENUMERATION IfcBSplineCurveForm; // C++ wrapper type for IfcElementCompositionEnum typedef ENUMERATION IfcElementCompositionEnum; // C++ wrapper type for IfcDraughtingCalloutElement typedef SELECT IfcDraughtingCalloutElement; // C++ wrapper type for IfcFillStyleSelect typedef SELECT IfcFillStyleSelect; // C++ wrapper type for IfcHeatFluxDensityMeasure typedef REAL IfcHeatFluxDensityMeasure; // C++ wrapper type for IfcGeometricProjectionEnum typedef ENUMERATION IfcGeometricProjectionEnum; // C++ wrapper type for IfcFontVariant typedef STRING IfcFontVariant; // C++ wrapper type for IfcThermalResistanceMeasure typedef REAL IfcThermalResistanceMeasure; // C++ wrapper type for IfcReflectanceMethodEnum typedef ENUMERATION IfcReflectanceMethodEnum; // C++ wrapper type for IfcSlabTypeEnum typedef ENUMERATION IfcSlabTypeEnum; // C++ wrapper type for IfcPositiveRatioMeasure typedef REAL IfcPositiveRatioMeasure; // C++ wrapper type for IfcInternalOrExternalEnum typedef ENUMERATION IfcInternalOrExternalEnum; // C++ wrapper type for IfcDimensionExtentUsage typedef ENUMERATION IfcDimensionExtentUsage; // C++ wrapper type for IfcPipeFittingTypeEnum typedef ENUMERATION IfcPipeFittingTypeEnum; // C++ wrapper type for IfcSanitaryTerminalTypeEnum typedef ENUMERATION IfcSanitaryTerminalTypeEnum; // C++ wrapper type for IfcMinuteInHour typedef INTEGER IfcMinuteInHour; // C++ wrapper type for IfcWallTypeEnum typedef ENUMERATION IfcWallTypeEnum; // C++ wrapper type for IfcMolecularWeightMeasure typedef REAL IfcMolecularWeightMeasure; // C++ wrapper type for IfcUnitaryEquipmentTypeEnum typedef ENUMERATION IfcUnitaryEquipmentTypeEnum; // C++ wrapper type for IfcProcedureTypeEnum typedef ENUMERATION IfcProcedureTypeEnum; // C++ wrapper type for IfcDistributionChamberElementTypeEnum typedef ENUMERATION IfcDistributionChamberElementTypeEnum; // C++ wrapper type for IfcTextPath typedef ENUMERATION IfcTextPath; // C++ wrapper type for IfcCostScheduleTypeEnum typedef ENUMERATION IfcCostScheduleTypeEnum; // C++ wrapper type for IfcShell typedef SELECT IfcShell; // C++ wrapper type for IfcLinearMomentMeasure typedef REAL IfcLinearMomentMeasure; // C++ wrapper type for IfcElectricCurrentMeasure typedef REAL IfcElectricCurrentMeasure; // C++ wrapper type for IfcDaylightSavingHour typedef INTEGER IfcDaylightSavingHour; // C++ wrapper type for IfcNormalisedRatioMeasure typedef REAL IfcNormalisedRatioMeasure; // C++ wrapper type for IfcFanTypeEnum typedef ENUMERATION IfcFanTypeEnum; // C++ wrapper type for IfcContextDependentMeasure typedef REAL IfcContextDependentMeasure; // C++ wrapper type for IfcAheadOrBehind typedef ENUMERATION IfcAheadOrBehind; // C++ wrapper type for IfcFontStyle typedef STRING IfcFontStyle; // C++ wrapper type for IfcCooledBeamTypeEnum typedef ENUMERATION IfcCooledBeamTypeEnum; // C++ wrapper type for IfcSurfaceStyleElementSelect typedef SELECT IfcSurfaceStyleElementSelect; // C++ wrapper type for IfcYearNumber typedef INTEGER IfcYearNumber; // C++ wrapper type for IfcLabel typedef STRING IfcLabel; // C++ wrapper type for IfcTimeStamp typedef INTEGER IfcTimeStamp; // C++ wrapper type for IfcFireSuppressionTerminalTypeEnum typedef ENUMERATION IfcFireSuppressionTerminalTypeEnum; // C++ wrapper type for IfcDocumentConfidentialityEnum typedef ENUMERATION IfcDocumentConfidentialityEnum; // C++ wrapper type for IfcColourOrFactor typedef SELECT IfcColourOrFactor; // C++ wrapper type for IfcAirTerminalBoxTypeEnum typedef ENUMERATION IfcAirTerminalBoxTypeEnum; // C++ wrapper type for IfcNumericMeasure typedef NUMBER IfcNumericMeasure; // C++ wrapper type for IfcDerivedUnitEnum typedef ENUMERATION IfcDerivedUnitEnum; // C++ wrapper type for IfcCurveOrEdgeCurve typedef SELECT IfcCurveOrEdgeCurve; // C++ wrapper type for IfcLightEmissionSourceEnum typedef ENUMERATION IfcLightEmissionSourceEnum; // C++ wrapper type for IfcKinematicViscosityMeasure typedef REAL IfcKinematicViscosityMeasure; // C++ wrapper type for IfcBoxAlignment typedef STRING IfcBoxAlignment; // C++ wrapper type for IfcDocumentSelect typedef SELECT IfcDocumentSelect; // C++ wrapper type for IfcCableCarrierFittingTypeEnum typedef ENUMERATION IfcCableCarrierFittingTypeEnum; // C++ wrapper type for IfcPumpTypeEnum typedef ENUMERATION IfcPumpTypeEnum; // C++ wrapper type for IfcHourInDay typedef INTEGER IfcHourInDay; // C++ wrapper type for IfcProjectOrderRecordTypeEnum typedef ENUMERATION IfcProjectOrderRecordTypeEnum; // C++ wrapper type for IfcWindowStyleConstructionEnum typedef ENUMERATION IfcWindowStyleConstructionEnum; // C++ wrapper type for IfcPresentationStyleSelect typedef SELECT IfcPresentationStyleSelect; // C++ wrapper type for IfcCableSegmentTypeEnum typedef ENUMERATION IfcCableSegmentTypeEnum; // C++ wrapper type for IfcWasteTerminalTypeEnum typedef ENUMERATION IfcWasteTerminalTypeEnum; // C++ wrapper type for IfcIsothermalMoistureCapacityMeasure typedef REAL IfcIsothermalMoistureCapacityMeasure; // C++ wrapper type for IfcIdentifier typedef STRING IfcIdentifier; // C++ wrapper type for IfcRadioActivityMeasure typedef REAL IfcRadioActivityMeasure; // C++ wrapper type for IfcSymbolStyleSelect typedef SELECT IfcSymbolStyleSelect; // C++ wrapper type for IfcRoofTypeEnum typedef ENUMERATION IfcRoofTypeEnum; // C++ wrapper type for IfcReal typedef REAL IfcReal; // C++ wrapper type for IfcRoleEnum typedef ENUMERATION IfcRoleEnum; // C++ wrapper type for IfcMeasureValue typedef SELECT IfcMeasureValue; // C++ wrapper type for IfcPileTypeEnum typedef ENUMERATION IfcPileTypeEnum; // C++ wrapper type for IfcElectricCurrentEnum typedef ENUMERATION IfcElectricCurrentEnum; // C++ wrapper type for IfcTextTransformation typedef STRING IfcTextTransformation; // C++ wrapper type for IfcFilterTypeEnum typedef ENUMERATION IfcFilterTypeEnum; // C++ wrapper type for IfcTransformerTypeEnum typedef ENUMERATION IfcTransformerTypeEnum; // C++ wrapper type for IfcSurfaceSide typedef ENUMERATION IfcSurfaceSide; // C++ wrapper type for IfcThermalTransmittanceMeasure typedef REAL IfcThermalTransmittanceMeasure; // C++ wrapper type for IfcTubeBundleTypeEnum typedef ENUMERATION IfcTubeBundleTypeEnum; // C++ wrapper type for IfcLightFixtureTypeEnum typedef ENUMERATION IfcLightFixtureTypeEnum; // C++ wrapper type for IfcInductanceMeasure typedef REAL IfcInductanceMeasure; // C++ wrapper type for IfcGlobalOrLocalEnum typedef ENUMERATION IfcGlobalOrLocalEnum; // C++ wrapper type for IfcOutletTypeEnum typedef ENUMERATION IfcOutletTypeEnum; // C++ wrapper type for IfcWorkControlTypeEnum typedef ENUMERATION IfcWorkControlTypeEnum; // C++ wrapper type for IfcWarpingMomentMeasure typedef REAL IfcWarpingMomentMeasure; // C++ wrapper type for IfcDynamicViscosityMeasure typedef REAL IfcDynamicViscosityMeasure; // C++ wrapper type for IfcEnergySequenceEnum typedef ENUMERATION IfcEnergySequenceEnum; // C++ wrapper type for IfcFillAreaStyleTileShapeSelect typedef SELECT IfcFillAreaStyleTileShapeSelect; // C++ wrapper type for IfcPointOrVertexPoint typedef SELECT IfcPointOrVertexPoint; // C++ wrapper type for IfcVibrationIsolatorTypeEnum typedef ENUMERATION IfcVibrationIsolatorTypeEnum; // C++ wrapper type for IfcTankTypeEnum typedef ENUMERATION IfcTankTypeEnum; // C++ wrapper type for IfcTimeSeriesDataTypeEnum typedef ENUMERATION IfcTimeSeriesDataTypeEnum; // C++ wrapper type for IfcSurfaceTextureEnum typedef ENUMERATION IfcSurfaceTextureEnum; // C++ wrapper type for IfcAddressTypeEnum typedef ENUMERATION IfcAddressTypeEnum; // C++ wrapper type for IfcChillerTypeEnum typedef ENUMERATION IfcChillerTypeEnum; // C++ wrapper type for IfcLightDistributionCurveEnum typedef ENUMERATION IfcLightDistributionCurveEnum; // C++ wrapper type for IfcReinforcingBarRoleEnum typedef ENUMERATION IfcReinforcingBarRoleEnum; // C++ wrapper type for IfcResourceConsumptionEnum typedef ENUMERATION IfcResourceConsumptionEnum; // C++ wrapper type for IfcCsgSelect typedef SELECT IfcCsgSelect; // C++ wrapper type for IfcModulusOfLinearSubgradeReactionMeasure typedef REAL IfcModulusOfLinearSubgradeReactionMeasure; // C++ wrapper type for IfcEvaporatorTypeEnum typedef ENUMERATION IfcEvaporatorTypeEnum; // C++ wrapper type for IfcTimeSeriesScheduleTypeEnum typedef ENUMERATION IfcTimeSeriesScheduleTypeEnum; // C++ wrapper type for IfcDayInMonthNumber typedef INTEGER IfcDayInMonthNumber; // C++ wrapper type for IfcElectricMotorTypeEnum typedef ENUMERATION IfcElectricMotorTypeEnum; // C++ wrapper type for IfcThermalConductivityMeasure typedef REAL IfcThermalConductivityMeasure; // C++ wrapper type for IfcEnergyMeasure typedef REAL IfcEnergyMeasure; // C++ wrapper type for IfcRotationalStiffnessMeasure typedef REAL IfcRotationalStiffnessMeasure; // C++ wrapper type for IfcDerivedMeasureValue typedef SELECT IfcDerivedMeasureValue; // C++ wrapper type for IfcDoorPanelOperationEnum typedef ENUMERATION IfcDoorPanelOperationEnum; // C++ wrapper type for IfcCurveStyleFontSelect typedef SELECT IfcCurveStyleFontSelect; // C++ wrapper type for IfcWindowPanelOperationEnum typedef ENUMERATION IfcWindowPanelOperationEnum; // C++ wrapper type for IfcDataOriginEnum typedef ENUMERATION IfcDataOriginEnum; // C++ wrapper type for IfcStairTypeEnum typedef ENUMERATION IfcStairTypeEnum; // C++ wrapper type for IfcRailingTypeEnum typedef ENUMERATION IfcRailingTypeEnum; // C++ wrapper type for IfcPowerMeasure typedef REAL IfcPowerMeasure; // C++ wrapper type for IfcStackTerminalTypeEnum typedef ENUMERATION IfcStackTerminalTypeEnum; // C++ wrapper type for IfcHatchLineDistanceSelect typedef SELECT IfcHatchLineDistanceSelect; // C++ wrapper type for IfcTrimmingSelect typedef SELECT IfcTrimmingSelect; // C++ wrapper type for IfcThermalExpansionCoefficientMeasure typedef REAL IfcThermalExpansionCoefficientMeasure; // C++ wrapper type for IfcLightDistributionDataSourceSelect typedef SELECT IfcLightDistributionDataSourceSelect; // C++ wrapper type for IfcTorqueMeasure typedef REAL IfcTorqueMeasure; // C++ wrapper type for IfcMassPerLengthMeasure typedef REAL IfcMassPerLengthMeasure; // C++ wrapper type for IfcValveTypeEnum typedef ENUMERATION IfcValveTypeEnum; // C++ wrapper type for IfcWindowPanelPositionEnum typedef ENUMERATION IfcWindowPanelPositionEnum; // C++ wrapper type for IfcSurfaceOrFaceSurface typedef SELECT IfcSurfaceOrFaceSurface; // C++ wrapper type for IfcPropertySourceEnum typedef ENUMERATION IfcPropertySourceEnum; // C++ wrapper type for IfcCableCarrierSegmentTypeEnum typedef ENUMERATION IfcCableCarrierSegmentTypeEnum; // C++ wrapper type for IfcCountMeasure typedef NUMBER IfcCountMeasure; // C++ wrapper type for IfcFontWeight typedef STRING IfcFontWeight; // C++ wrapper type for IfcPhysicalOrVirtualEnum typedef ENUMERATION IfcPhysicalOrVirtualEnum; // C++ wrapper type for IfcSpaceTypeEnum typedef ENUMERATION IfcSpaceTypeEnum; // C++ wrapper type for IfcVolumetricFlowRateMeasure typedef REAL IfcVolumetricFlowRateMeasure; // C++ wrapper type for IfcLuminousFluxMeasure typedef REAL IfcLuminousFluxMeasure; // C++ wrapper type for IfcEvaporativeCoolerTypeEnum typedef ENUMERATION IfcEvaporativeCoolerTypeEnum; // C++ wrapper type for IfcLayeredItem typedef SELECT IfcLayeredItem; // C++ wrapper type for IfcModulusOfSubgradeReactionMeasure typedef REAL IfcModulusOfSubgradeReactionMeasure; // C++ wrapper type for IfcHeatExchangerTypeEnum typedef ENUMERATION IfcHeatExchangerTypeEnum; // C++ wrapper type for IfcProtectiveDeviceTypeEnum typedef ENUMERATION IfcProtectiveDeviceTypeEnum; // C++ wrapper type for IfcDamperTypeEnum typedef ENUMERATION IfcDamperTypeEnum; // C++ wrapper type for IfcControllerTypeEnum typedef ENUMERATION IfcControllerTypeEnum; // C++ wrapper type for IfcMassFlowRateMeasure typedef REAL IfcMassFlowRateMeasure; // C++ wrapper type for IfcAssemblyPlaceEnum typedef ENUMERATION IfcAssemblyPlaceEnum; // C++ wrapper type for IfcAreaMeasure typedef REAL IfcAreaMeasure; // C++ wrapper type for IfcServiceLifeFactorTypeEnum typedef ENUMERATION IfcServiceLifeFactorTypeEnum; // C++ wrapper type for IfcVolumeMeasure typedef REAL IfcVolumeMeasure; // C++ wrapper type for IfcBeamTypeEnum typedef ENUMERATION IfcBeamTypeEnum; // C++ wrapper type for IfcStateEnum typedef ENUMERATION IfcStateEnum; // C++ wrapper type for IfcSpaceHeaterTypeEnum typedef ENUMERATION IfcSpaceHeaterTypeEnum; // C++ wrapper type for IfcSectionTypeEnum typedef ENUMERATION IfcSectionTypeEnum; // C++ wrapper type for IfcFootingTypeEnum typedef ENUMERATION IfcFootingTypeEnum; // C++ wrapper type for IfcMonetaryMeasure typedef REAL IfcMonetaryMeasure; // C++ wrapper type for IfcLoadGroupTypeEnum typedef ENUMERATION IfcLoadGroupTypeEnum; // C++ wrapper type for IfcElectricGeneratorTypeEnum typedef ENUMERATION IfcElectricGeneratorTypeEnum; // C++ wrapper type for IfcFlowMeterTypeEnum typedef ENUMERATION IfcFlowMeterTypeEnum; // C++ wrapper type for IfcMaterialSelect typedef SELECT IfcMaterialSelect; // C++ wrapper type for IfcAnalysisModelTypeEnum typedef ENUMERATION IfcAnalysisModelTypeEnum; // C++ wrapper type for IfcTemperatureGradientMeasure typedef REAL IfcTemperatureGradientMeasure; // C++ wrapper type for IfcModulusOfRotationalSubgradeReactionMeasure typedef REAL IfcModulusOfRotationalSubgradeReactionMeasure; // C++ wrapper type for IfcColour typedef SELECT IfcColour; // C++ wrapper type for IfcCurtainWallTypeEnum typedef ENUMERATION IfcCurtainWallTypeEnum; // C++ wrapper type for IfcMetricValueSelect typedef SELECT IfcMetricValueSelect; // C++ wrapper type for IfcTextAlignment typedef STRING IfcTextAlignment; // C++ wrapper type for IfcDoorPanelPositionEnum typedef ENUMERATION IfcDoorPanelPositionEnum; // C++ wrapper type for IfcPlateTypeEnum typedef ENUMERATION IfcPlateTypeEnum; // C++ wrapper type for IfcSectionalAreaIntegralMeasure typedef REAL IfcSectionalAreaIntegralMeasure; // C++ wrapper type for IfcPresentableText typedef STRING IfcPresentableText; // C++ wrapper type for IfcVaporPermeabilityMeasure typedef REAL IfcVaporPermeabilityMeasure; // C++ wrapper type for IfcStructuralSurfaceTypeEnum typedef ENUMERATION IfcStructuralSurfaceTypeEnum; // C++ wrapper type for IfcLinearVelocityMeasure typedef REAL IfcLinearVelocityMeasure; // C++ wrapper type for IfcIntegerCountRateMeasure typedef INTEGER IfcIntegerCountRateMeasure; // C++ wrapper type for IfcAirToAirHeatRecoveryTypeEnum typedef ENUMERATION IfcAirToAirHeatRecoveryTypeEnum; // C++ wrapper type for IfcDocumentStatusEnum typedef ENUMERATION IfcDocumentStatusEnum; // C++ wrapper type for IfcLengthMeasure typedef REAL IfcLengthMeasure; // C++ wrapper type for IfcPlanarForceMeasure typedef REAL IfcPlanarForceMeasure; // C++ wrapper type for IfcBooleanOperand typedef SELECT IfcBooleanOperand; // C++ wrapper type for IfcInteger typedef INTEGER IfcInteger; // C++ wrapper type for IfcRampTypeEnum typedef ENUMERATION IfcRampTypeEnum; // C++ wrapper type for IfcActorSelect typedef SELECT IfcActorSelect; // C++ wrapper type for IfcElectricChargeMeasure typedef REAL IfcElectricChargeMeasure; // C++ wrapper type for IfcGeometricSetSelect typedef SELECT IfcGeometricSetSelect; // C++ wrapper type for IfcConnectionTypeEnum typedef ENUMERATION IfcConnectionTypeEnum; // C++ wrapper type for IfcValue typedef SELECT IfcValue; // C++ wrapper type for IfcCoolingTowerTypeEnum typedef ENUMERATION IfcCoolingTowerTypeEnum; // C++ wrapper type for IfcPlaneAngleMeasure typedef REAL IfcPlaneAngleMeasure; // C++ wrapper type for IfcSwitchingDeviceTypeEnum typedef ENUMERATION IfcSwitchingDeviceTypeEnum; // C++ wrapper type for IfcFlowDirectionEnum typedef ENUMERATION IfcFlowDirectionEnum; // C++ wrapper type for IfcThermalLoadSourceEnum typedef ENUMERATION IfcThermalLoadSourceEnum; // C++ wrapper type for IfcTextFontSelect typedef SELECT IfcTextFontSelect; // C++ wrapper type for IfcSpecularHighlightSelect typedef SELECT IfcSpecularHighlightSelect; // C++ wrapper type for IfcAnalysisTheoryTypeEnum typedef ENUMERATION IfcAnalysisTheoryTypeEnum; // C++ wrapper type for IfcTextFontName typedef STRING IfcTextFontName; // C++ wrapper type for IfcElectricVoltageMeasure typedef REAL IfcElectricVoltageMeasure; // C++ wrapper type for IfcTendonTypeEnum typedef ENUMERATION IfcTendonTypeEnum; // C++ wrapper type for IfcSoundPressureMeasure typedef REAL IfcSoundPressureMeasure; // C++ wrapper type for IfcElectricDistributionPointFunctionEnum typedef ENUMERATION IfcElectricDistributionPointFunctionEnum; // C++ wrapper type for IfcSpecularRoughness typedef REAL IfcSpecularRoughness; // C++ wrapper type for IfcActionTypeEnum typedef ENUMERATION IfcActionTypeEnum; // C++ wrapper type for IfcReinforcingBarSurfaceEnum typedef ENUMERATION IfcReinforcingBarSurfaceEnum; // C++ wrapper type for IfcHumidifierTypeEnum typedef ENUMERATION IfcHumidifierTypeEnum; // C++ wrapper type for IfcIlluminanceMeasure typedef REAL IfcIlluminanceMeasure; // C++ wrapper type for IfcLibrarySelect typedef SELECT IfcLibrarySelect; // C++ wrapper type for IfcText typedef STRING IfcText; // C++ wrapper type for IfcLayerSetDirectionEnum typedef ENUMERATION IfcLayerSetDirectionEnum; // C++ wrapper type for IfcBoilerTypeEnum typedef ENUMERATION IfcBoilerTypeEnum; // C++ wrapper type for IfcTimeMeasure typedef REAL IfcTimeMeasure; // C++ wrapper type for IfcAccelerationMeasure typedef REAL IfcAccelerationMeasure; // C++ wrapper type for IfcElectricFlowStorageDeviceTypeEnum typedef ENUMERATION IfcElectricFlowStorageDeviceTypeEnum; // C++ wrapper type for IfcLuminousIntensityMeasure typedef REAL IfcLuminousIntensityMeasure; // C++ wrapper type for IfcDefinedSymbolSelect typedef SELECT IfcDefinedSymbolSelect; // C++ wrapper type for IfcUnitEnum typedef ENUMERATION IfcUnitEnum; // C++ wrapper type for IfcInventoryTypeEnum typedef ENUMERATION IfcInventoryTypeEnum; // C++ wrapper type for IfcStructuralActivityAssignmentSelect typedef SELECT IfcStructuralActivityAssignmentSelect; // C++ wrapper type for IfcElementAssemblyTypeEnum typedef ENUMERATION IfcElementAssemblyTypeEnum; // C++ wrapper type for IfcServiceLifeTypeEnum typedef ENUMERATION IfcServiceLifeTypeEnum; // C++ wrapper type for IfcCoveringTypeEnum typedef ENUMERATION IfcCoveringTypeEnum; // C++ wrapper type for IfcStairFlightTypeEnum typedef ENUMERATION IfcStairFlightTypeEnum; // C++ wrapper type for IfcSIPrefix typedef ENUMERATION IfcSIPrefix; // C++ wrapper type for IfcElectricCapacitanceMeasure typedef REAL IfcElectricCapacitanceMeasure; // C++ wrapper type for IfcFlowInstrumentTypeEnum typedef ENUMERATION IfcFlowInstrumentTypeEnum; // C++ wrapper type for IfcThermodynamicTemperatureMeasure typedef REAL IfcThermodynamicTemperatureMeasure; // C++ wrapper type for IfcGloballyUniqueId typedef STRING IfcGloballyUniqueId; // C++ wrapper type for IfcLampTypeEnum typedef ENUMERATION IfcLampTypeEnum; // C++ wrapper type for IfcMagneticFluxMeasure typedef REAL IfcMagneticFluxMeasure; // C++ wrapper type for IfcSolidAngleMeasure typedef REAL IfcSolidAngleMeasure; // C++ wrapper type for IfcFrequencyMeasure typedef REAL IfcFrequencyMeasure; // C++ wrapper type for IfcTransportElementTypeEnum typedef ENUMERATION IfcTransportElementTypeEnum; // C++ wrapper type for IfcSoundScaleEnum typedef ENUMERATION IfcSoundScaleEnum; // C++ wrapper type for IfcPHMeasure typedef REAL IfcPHMeasure; // C++ wrapper type for IfcActuatorTypeEnum typedef ENUMERATION IfcActuatorTypeEnum; // C++ wrapper type for IfcPositivePlaneAngleMeasure typedef REAL IfcPositivePlaneAngleMeasure; // C++ wrapper type for IfcAppliedValueSelect typedef SELECT IfcAppliedValueSelect; // C++ wrapper type for IfcSecondInMinute typedef REAL IfcSecondInMinute; // C++ wrapper type for IfcDuctSegmentTypeEnum typedef ENUMERATION IfcDuctSegmentTypeEnum; // C++ wrapper type for IfcThermalAdmittanceMeasure typedef REAL IfcThermalAdmittanceMeasure; // C++ wrapper type for IfcSpecularExponent typedef REAL IfcSpecularExponent; // C++ wrapper type for IfcDateTimeSelect typedef SELECT IfcDateTimeSelect; // C++ wrapper type for IfcTransitionCode typedef ENUMERATION IfcTransitionCode; // C++ wrapper type for IfcDimensionCount typedef INTEGER IfcDimensionCount; // C++ wrapper type for IfcLinearStiffnessMeasure typedef REAL IfcLinearStiffnessMeasure; // C++ wrapper type for IfcCompoundPlaneAngleMeasure typedef ListOf< INTEGER, 3, 3 > IfcCompoundPlaneAngleMeasure; // C++ wrapper type for IfcElectricApplianceTypeEnum typedef ENUMERATION IfcElectricApplianceTypeEnum; // C++ wrapper type for IfcProfileTypeEnum typedef ENUMERATION IfcProfileTypeEnum; // C++ wrapper type for IfcCurveFontOrScaledCurveFontSelect typedef SELECT IfcCurveFontOrScaledCurveFontSelect; // C++ wrapper type for IfcProjectedOrTrueLengthEnum typedef ENUMERATION IfcProjectedOrTrueLengthEnum; // C++ wrapper type for IfcAbsorbedDoseMeasure typedef REAL IfcAbsorbedDoseMeasure; // C++ wrapper type for IfcParameterValue typedef REAL IfcParameterValue; // C++ wrapper type for IfcPileConstructionEnum typedef ENUMERATION IfcPileConstructionEnum; // C++ wrapper type for IfcMotorConnectionTypeEnum typedef ENUMERATION IfcMotorConnectionTypeEnum; // C++ wrapper type for IfcOccupantTypeEnum typedef ENUMERATION IfcOccupantTypeEnum; // C++ wrapper type for IfcUnit typedef SELECT IfcUnit; // C++ wrapper type for IfcLinearForceMeasure typedef REAL IfcLinearForceMeasure; // C++ wrapper type for IfcCondenserTypeEnum typedef ENUMERATION IfcCondenserTypeEnum; // C++ wrapper type for IfcDescriptiveMeasure typedef STRING IfcDescriptiveMeasure; // C++ wrapper type for IfcMomentOfInertiaMeasure typedef REAL IfcMomentOfInertiaMeasure; // C++ wrapper type for IfcDoseEquivalentMeasure typedef REAL IfcDoseEquivalentMeasure; // C++ wrapper type for IfcOrientationSelect typedef SELECT IfcOrientationSelect; // C++ wrapper type for IfcLogical typedef LOGICAL IfcLogical; // C++ wrapper type for IfcSizeSelect typedef SELECT IfcSizeSelect; // C++ wrapper type for IfcEnvironmentalImpactCategoryEnum typedef ENUMERATION IfcEnvironmentalImpactCategoryEnum; // C++ wrapper type for IfcLogicalOperatorEnum typedef ENUMERATION IfcLogicalOperatorEnum; // C++ wrapper type for IfcCompressorTypeEnum typedef ENUMERATION IfcCompressorTypeEnum; // C++ wrapper type for IfcBenchmarkEnum typedef ENUMERATION IfcBenchmarkEnum; // C++ wrapper type for IfcRatioMeasure typedef REAL IfcRatioMeasure; // C++ wrapper type for IfcVectorOrDirection typedef SELECT IfcVectorOrDirection; // C++ wrapper type for IfcConstraintEnum typedef ENUMERATION IfcConstraintEnum; // C++ wrapper type for IfcAlarmTypeEnum typedef ENUMERATION IfcAlarmTypeEnum; // C++ wrapper type for IfcLuminousIntensityDistributionMeasure typedef REAL IfcLuminousIntensityDistributionMeasure; // C++ wrapper type for IfcArithmeticOperatorEnum typedef ENUMERATION IfcArithmeticOperatorEnum; // C++ wrapper type for IfcAxis2Placement typedef SELECT IfcAxis2Placement; // C++ wrapper type for IfcForceMeasure typedef REAL IfcForceMeasure; // C++ wrapper type for IfcTrimmingPreference typedef ENUMERATION IfcTrimmingPreference; // C++ wrapper type for IfcElectricResistanceMeasure typedef REAL IfcElectricResistanceMeasure; // C++ wrapper type for IfcWarpingConstantMeasure typedef REAL IfcWarpingConstantMeasure; // C++ wrapper type for IfcPipeSegmentTypeEnum typedef ENUMERATION IfcPipeSegmentTypeEnum; // C++ wrapper type for IfcConditionCriterionSelect typedef SELECT IfcConditionCriterionSelect; // C++ wrapper type for IfcShearModulusMeasure typedef REAL IfcShearModulusMeasure; // C++ wrapper type for IfcPressureMeasure typedef REAL IfcPressureMeasure; // C++ wrapper type for IfcDuctSilencerTypeEnum typedef ENUMERATION IfcDuctSilencerTypeEnum; // C++ wrapper type for IfcBoolean typedef BOOLEAN IfcBoolean; // C++ wrapper type for IfcSectionModulusMeasure typedef REAL IfcSectionModulusMeasure; // C++ wrapper type for IfcChangeActionEnum typedef ENUMERATION IfcChangeActionEnum; // C++ wrapper type for IfcCoilTypeEnum typedef ENUMERATION IfcCoilTypeEnum; // C++ wrapper type for IfcMassMeasure typedef REAL IfcMassMeasure; // C++ wrapper type for IfcStructuralCurveTypeEnum typedef ENUMERATION IfcStructuralCurveTypeEnum; // C++ wrapper type for IfcPermeableCoveringOperationEnum typedef ENUMERATION IfcPermeableCoveringOperationEnum; // C++ wrapper type for IfcMagneticFluxDensityMeasure typedef REAL IfcMagneticFluxDensityMeasure; // C++ wrapper type for IfcMoistureDiffusivityMeasure typedef REAL IfcMoistureDiffusivityMeasure; // ****************************************************************************** // IFC Entities // ****************************************************************************** struct IfcRoot; struct IfcObjectDefinition; struct IfcTypeObject; struct IfcTypeProduct; struct IfcElementType; struct IfcFurnishingElementType; struct IfcFurnitureType; struct IfcObject; struct IfcProduct; struct IfcGrid; struct IfcRepresentationItem; struct IfcGeometricRepresentationItem; struct IfcOneDirectionRepeatFactor; struct IfcTwoDirectionRepeatFactor; struct IfcElement; struct IfcElementComponent; typedef NotImplemented IfcLocalTime; // (not currently used by Assimp) struct IfcSpatialStructureElementType; struct IfcControl; struct IfcActionRequest; typedef NotImplemented IfcTextureVertex; // (not currently used by Assimp) typedef NotImplemented IfcPropertyDefinition; // (not currently used by Assimp) typedef NotImplemented IfcPropertySetDefinition; // (not currently used by Assimp) typedef NotImplemented IfcFluidFlowProperties; // (not currently used by Assimp) typedef NotImplemented IfcDocumentInformation; // (not currently used by Assimp) typedef NotImplemented IfcCalendarDate; // (not currently used by Assimp) struct IfcDistributionElementType; struct IfcDistributionFlowElementType; struct IfcEnergyConversionDeviceType; struct IfcCooledBeamType; struct IfcCsgPrimitive3D; struct IfcRectangularPyramid; typedef NotImplemented IfcStructuralLoad; // (not currently used by Assimp) typedef NotImplemented IfcStructuralLoadStatic; // (not currently used by Assimp) typedef NotImplemented IfcStructuralLoadLinearForce; // (not currently used by Assimp) struct IfcSurface; struct IfcBoundedSurface; struct IfcRectangularTrimmedSurface; typedef NotImplemented IfcPhysicalQuantity; // (not currently used by Assimp) typedef NotImplemented IfcPhysicalSimpleQuantity; // (not currently used by Assimp) typedef NotImplemented IfcQuantityVolume; // (not currently used by Assimp) typedef NotImplemented IfcQuantityArea; // (not currently used by Assimp) struct IfcGroup; struct IfcRelationship; typedef NotImplemented IfcRelAssigns; // (not currently used by Assimp) typedef NotImplemented IfcRelAssignsToActor; // (not currently used by Assimp) struct IfcHalfSpaceSolid; struct IfcPolygonalBoundedHalfSpace; typedef NotImplemented IfcEnergyProperties; // (not currently used by Assimp) struct IfcAirToAirHeatRecoveryType; struct IfcFlowFittingType; struct IfcPipeFittingType; struct IfcRepresentation; struct IfcStyleModel; struct IfcStyledRepresentation; typedef NotImplemented IfcRelAssignsToControl; // (not currently used by Assimp) typedef NotImplemented IfcRelAssignsToProjectOrder; // (not currently used by Assimp) typedef NotImplemented IfcDimensionalExponents; // (not currently used by Assimp) struct IfcBooleanResult; typedef NotImplemented IfcSoundProperties; // (not currently used by Assimp) struct IfcFeatureElement; struct IfcFeatureElementSubtraction; struct IfcOpeningElement; struct IfcConditionCriterion; struct IfcFlowTerminalType; struct IfcFlowControllerType; struct IfcSwitchingDeviceType; struct IfcSystem; struct IfcElectricalCircuit; typedef NotImplemented IfcActorRole; // (not currently used by Assimp) typedef NotImplemented IfcDateAndTime; // (not currently used by Assimp) typedef NotImplemented IfcDraughtingCalloutRelationship; // (not currently used by Assimp) typedef NotImplemented IfcDimensionCalloutRelationship; // (not currently used by Assimp) typedef NotImplemented IfcDerivedUnitElement; // (not currently used by Assimp) typedef NotImplemented IfcExternalReference; // (not currently used by Assimp) typedef NotImplemented IfcClassificationReference; // (not currently used by Assimp) struct IfcUnitaryEquipmentType; typedef NotImplemented IfcProperty; // (not currently used by Assimp) struct IfcPort; typedef NotImplemented IfcAddress; // (not currently used by Assimp) struct IfcPlacement; typedef NotImplemented IfcPreDefinedItem; // (not currently used by Assimp) typedef NotImplemented IfcPreDefinedColour; // (not currently used by Assimp) typedef NotImplemented IfcDraughtingPreDefinedColour; // (not currently used by Assimp) struct IfcProfileDef; struct IfcArbitraryClosedProfileDef; struct IfcCurve; struct IfcConic; struct IfcCircle; typedef NotImplemented IfcAppliedValue; // (not currently used by Assimp) typedef NotImplemented IfcEnvironmentalImpactValue; // (not currently used by Assimp) typedef NotImplemented IfcSimpleProperty; // (not currently used by Assimp) typedef NotImplemented IfcPropertySingleValue; // (not currently used by Assimp) struct IfcElementarySurface; struct IfcPlane; typedef NotImplemented IfcPropertyBoundedValue; // (not currently used by Assimp) struct IfcCostSchedule; typedef NotImplemented IfcMonetaryUnit; // (not currently used by Assimp) typedef NotImplemented IfcConnectionGeometry; // (not currently used by Assimp) typedef NotImplemented IfcConnectionCurveGeometry; // (not currently used by Assimp) struct IfcRightCircularCone; struct IfcElementAssembly; struct IfcBuildingElement; struct IfcMember; typedef NotImplemented IfcPropertyDependencyRelationship; // (not currently used by Assimp) struct IfcBuildingElementProxy; struct IfcStructuralActivity; struct IfcStructuralAction; struct IfcStructuralPlanarAction; struct IfcTopologicalRepresentationItem; struct IfcConnectedFaceSet; struct IfcSweptSurface; struct IfcSurfaceOfLinearExtrusion; struct IfcArbitraryProfileDefWithVoids; struct IfcProcess; struct IfcProcedure; typedef NotImplemented IfcCurveStyleFontPattern; // (not currently used by Assimp) struct IfcVector; struct IfcFaceBound; struct IfcFaceOuterBound; struct IfcFeatureElementAddition; struct IfcNamedUnit; struct IfcConversionBasedUnit; typedef NotImplemented IfcStructuralLoadSingleForce; // (not currently used by Assimp) struct IfcHeatExchangerType; struct IfcPresentationStyleAssignment; struct IfcFlowTreatmentDeviceType; struct IfcFilterType; struct IfcResource; struct IfcEvaporativeCoolerType; typedef NotImplemented IfcTextureCoordinate; // (not currently used by Assimp) typedef NotImplemented IfcTextureCoordinateGenerator; // (not currently used by Assimp) struct IfcOffsetCurve2D; struct IfcEdge; struct IfcSubedge; struct IfcProxy; struct IfcLine; struct IfcColumn; typedef NotImplemented IfcClassificationNotationFacet; // (not currently used by Assimp) struct IfcObjectPlacement; struct IfcGridPlacement; struct IfcDistributionControlElementType; typedef NotImplemented IfcStructuralLoadSingleForceWarping; // (not currently used by Assimp) typedef NotImplemented IfcExternallyDefinedTextFont; // (not currently used by Assimp) struct IfcRelConnects; typedef NotImplemented IfcRelConnectsElements; // (not currently used by Assimp) typedef NotImplemented IfcRelConnectsWithRealizingElements; // (not currently used by Assimp) typedef NotImplemented IfcConstraintClassificationRelationship; // (not currently used by Assimp) struct IfcAnnotation; struct IfcPlate; struct IfcSolidModel; struct IfcManifoldSolidBrep; typedef NotImplemented IfcPreDefinedCurveFont; // (not currently used by Assimp) typedef NotImplemented IfcBoundaryCondition; // (not currently used by Assimp) typedef NotImplemented IfcBoundaryFaceCondition; // (not currently used by Assimp) struct IfcFlowStorageDeviceType; struct IfcStructuralItem; struct IfcStructuralMember; struct IfcStructuralCurveMember; struct IfcStructuralConnection; struct IfcStructuralSurfaceConnection; struct IfcCoilType; struct IfcDuctFittingType; struct IfcStyledItem; struct IfcAnnotationOccurrence; struct IfcAnnotationCurveOccurrence; struct IfcDimensionCurve; struct IfcBoundedCurve; struct IfcAxis1Placement; typedef NotImplemented IfcLightIntensityDistribution; // (not currently used by Assimp) typedef NotImplemented IfcPreDefinedSymbol; // (not currently used by Assimp) struct IfcStructuralPointAction; struct IfcSpatialStructureElement; struct IfcSpace; typedef NotImplemented IfcContextDependentUnit; // (not currently used by Assimp) typedef NotImplemented IfcVirtualGridIntersection; // (not currently used by Assimp) typedef NotImplemented IfcRelAssociates; // (not currently used by Assimp) typedef NotImplemented IfcRelAssociatesClassification; // (not currently used by Assimp) struct IfcCoolingTowerType; typedef NotImplemented IfcMaterialProperties; // (not currently used by Assimp) typedef NotImplemented IfcGeneralMaterialProperties; // (not currently used by Assimp) struct IfcFacetedBrepWithVoids; typedef NotImplemented IfcProfileProperties; // (not currently used by Assimp) typedef NotImplemented IfcGeneralProfileProperties; // (not currently used by Assimp) typedef NotImplemented IfcStructuralProfileProperties; // (not currently used by Assimp) struct IfcValveType; struct IfcSystemFurnitureElementType; struct IfcDiscreteAccessory; typedef NotImplemented IfcPerson; // (not currently used by Assimp) struct IfcBuildingElementType; struct IfcRailingType; struct IfcGasTerminalType; typedef NotImplemented IfcTimeSeries; // (not currently used by Assimp) typedef NotImplemented IfcIrregularTimeSeries; // (not currently used by Assimp) struct IfcSpaceProgram; struct IfcCovering; typedef NotImplemented IfcShapeAspect; // (not currently used by Assimp) struct IfcPresentationStyle; typedef NotImplemented IfcClassificationItemRelationship; // (not currently used by Assimp) struct IfcElectricHeaterType; struct IfcBuildingStorey; struct IfcVertex; struct IfcVertexPoint; struct IfcFlowInstrumentType; struct IfcParameterizedProfileDef; struct IfcUShapeProfileDef; struct IfcRamp; typedef NotImplemented IfcFillAreaStyle; // (not currently used by Assimp) struct IfcCompositeCurve; typedef NotImplemented IfcRelServicesBuildings; // (not currently used by Assimp) struct IfcStructuralCurveMemberVarying; typedef NotImplemented IfcRelReferencedInSpatialStructure; // (not currently used by Assimp) struct IfcRampFlightType; struct IfcDraughtingCallout; struct IfcDimensionCurveDirectedCallout; struct IfcRadiusDimension; struct IfcEdgeFeature; struct IfcSweptAreaSolid; struct IfcExtrudedAreaSolid; typedef NotImplemented IfcQuantityCount; // (not currently used by Assimp) struct IfcAnnotationTextOccurrence; typedef NotImplemented IfcReferencesValueDocument; // (not currently used by Assimp) struct IfcStair; typedef NotImplemented IfcSymbolStyle; // (not currently used by Assimp) struct IfcFillAreaStyleTileSymbolWithStyle; struct IfcAnnotationSymbolOccurrence; struct IfcTerminatorSymbol; struct IfcDimensionCurveTerminator; struct IfcRectangleProfileDef; struct IfcRectangleHollowProfileDef; typedef NotImplemented IfcRelAssociatesLibrary; // (not currently used by Assimp) struct IfcLocalPlacement; typedef NotImplemented IfcOpticalMaterialProperties; // (not currently used by Assimp) typedef NotImplemented IfcServiceLifeFactor; // (not currently used by Assimp) typedef NotImplemented IfcRelAssignsTasks; // (not currently used by Assimp) struct IfcTask; struct IfcAnnotationFillAreaOccurrence; struct IfcFace; struct IfcFlowSegmentType; struct IfcDuctSegmentType; typedef NotImplemented IfcPropertyEnumeration; // (not currently used by Assimp) struct IfcConstructionResource; struct IfcConstructionEquipmentResource; struct IfcSanitaryTerminalType; typedef NotImplemented IfcPreDefinedDimensionSymbol; // (not currently used by Assimp) typedef NotImplemented IfcOrganization; // (not currently used by Assimp) struct IfcCircleProfileDef; struct IfcStructuralReaction; struct IfcStructuralPointReaction; struct IfcRailing; struct IfcTextLiteral; struct IfcCartesianTransformationOperator; typedef NotImplemented IfcCostValue; // (not currently used by Assimp) typedef NotImplemented IfcTextStyle; // (not currently used by Assimp) struct IfcLinearDimension; struct IfcDamperType; struct IfcSIUnit; typedef NotImplemented IfcSurfaceStyleLighting; // (not currently used by Assimp) struct IfcMeasureWithUnit; typedef NotImplemented IfcMaterialLayerSet; // (not currently used by Assimp) struct IfcDistributionElement; struct IfcDistributionControlElement; struct IfcTransformerType; struct IfcLaborResource; typedef NotImplemented IfcDerivedProfileDef; // (not currently used by Assimp) typedef NotImplemented IfcRelConnectsStructuralMember; // (not currently used by Assimp) typedef NotImplemented IfcRelConnectsWithEccentricity; // (not currently used by Assimp) struct IfcFurnitureStandard; struct IfcStairFlightType; struct IfcWorkControl; struct IfcWorkPlan; typedef NotImplemented IfcRelDefines; // (not currently used by Assimp) typedef NotImplemented IfcRelDefinesByProperties; // (not currently used by Assimp) struct IfcCondition; typedef NotImplemented IfcGridAxis; // (not currently used by Assimp) struct IfcRelVoidsElement; struct IfcWindow; typedef NotImplemented IfcRelFlowControlElements; // (not currently used by Assimp) typedef NotImplemented IfcRelConnectsPortToElement; // (not currently used by Assimp) struct IfcProtectiveDeviceType; struct IfcJunctionBoxType; struct IfcStructuralAnalysisModel; struct IfcAxis2Placement2D; struct IfcSpaceType; struct IfcEllipseProfileDef; struct IfcDistributionFlowElement; struct IfcFlowMovingDevice; struct IfcSurfaceStyleWithTextures; struct IfcGeometricSet; typedef NotImplemented IfcMechanicalMaterialProperties; // (not currently used by Assimp) typedef NotImplemented IfcMechanicalConcreteMaterialProperties; // (not currently used by Assimp) typedef NotImplemented IfcRibPlateProfileProperties; // (not currently used by Assimp) typedef NotImplemented IfcDocumentInformationRelationship; // (not currently used by Assimp) struct IfcProjectOrder; struct IfcBSplineCurve; struct IfcBezierCurve; struct IfcStructuralPointConnection; struct IfcFlowController; struct IfcElectricDistributionPoint; struct IfcSite; struct IfcOffsetCurve3D; typedef NotImplemented IfcPropertySet; // (not currently used by Assimp) typedef NotImplemented IfcConnectionSurfaceGeometry; // (not currently used by Assimp) struct IfcVirtualElement; struct IfcConstructionProductResource; typedef NotImplemented IfcWaterProperties; // (not currently used by Assimp) struct IfcSurfaceCurveSweptAreaSolid; typedef NotImplemented IfcPermeableCoveringProperties; // (not currently used by Assimp) struct IfcCartesianTransformationOperator3D; struct IfcCartesianTransformationOperator3DnonUniform; struct IfcCrewResource; struct IfcStructuralSurfaceMember; struct Ifc2DCompositeCurve; struct IfcRepresentationContext; struct IfcGeometricRepresentationContext; struct IfcFlowTreatmentDevice; typedef NotImplemented IfcTextStyleForDefinedFont; // (not currently used by Assimp) struct IfcRightCircularCylinder; struct IfcWasteTerminalType; typedef NotImplemented IfcSpaceThermalLoadProperties; // (not currently used by Assimp) typedef NotImplemented IfcConstraintRelationship; // (not currently used by Assimp) struct IfcBuildingElementComponent; struct IfcBuildingElementPart; struct IfcWall; struct IfcWallStandardCase; typedef NotImplemented IfcApprovalActorRelationship; // (not currently used by Assimp) struct IfcPath; struct IfcDefinedSymbol; struct IfcStructuralSurfaceMemberVarying; struct IfcPoint; struct IfcSurfaceOfRevolution; struct IfcFlowTerminal; struct IfcFurnishingElement; typedef NotImplemented IfcCurveStyleFont; // (not currently used by Assimp) struct IfcSurfaceStyleShading; struct IfcSurfaceStyleRendering; typedef NotImplemented IfcCoordinatedUniversalTimeOffset; // (not currently used by Assimp) typedef NotImplemented IfcStructuralLoadSingleDisplacement; // (not currently used by Assimp) struct IfcCircleHollowProfileDef; struct IfcFlowMovingDeviceType; struct IfcFanType; struct IfcStructuralPlanarActionVarying; struct IfcProductRepresentation; typedef NotImplemented IfcRelDefinesByType; // (not currently used by Assimp) typedef NotImplemented IfcPreDefinedTextFont; // (not currently used by Assimp) typedef NotImplemented IfcTextStyleFontModel; // (not currently used by Assimp) struct IfcStackTerminalType; typedef NotImplemented IfcApprovalPropertyRelationship; // (not currently used by Assimp) typedef NotImplemented IfcExternallyDefinedSymbol; // (not currently used by Assimp) struct IfcReinforcingElement; struct IfcReinforcingMesh; struct IfcOrderAction; typedef NotImplemented IfcRelCoversBldgElements; // (not currently used by Assimp) struct IfcLightSource; struct IfcLightSourceDirectional; struct IfcLoop; struct IfcVertexLoop; struct IfcChamferEdgeFeature; typedef NotImplemented IfcWindowPanelProperties; // (not currently used by Assimp) typedef NotImplemented IfcClassification; // (not currently used by Assimp) struct IfcElementComponentType; struct IfcFastenerType; struct IfcMechanicalFastenerType; struct IfcScheduleTimeControl; struct IfcSurfaceStyle; typedef NotImplemented IfcReinforcementBarProperties; // (not currently used by Assimp) struct IfcOpenShell; typedef NotImplemented IfcLibraryReference; // (not currently used by Assimp) struct IfcSubContractResource; typedef NotImplemented IfcTimeSeriesReferenceRelationship; // (not currently used by Assimp) struct IfcSweptDiskSolid; typedef NotImplemented IfcCompositeProfileDef; // (not currently used by Assimp) typedef NotImplemented IfcElectricalBaseProperties; // (not currently used by Assimp) typedef NotImplemented IfcPreDefinedPointMarkerSymbol; // (not currently used by Assimp) struct IfcTankType; typedef NotImplemented IfcBoundaryNodeCondition; // (not currently used by Assimp) typedef NotImplemented IfcBoundaryNodeConditionWarping; // (not currently used by Assimp) typedef NotImplemented IfcRelAssignsToGroup; // (not currently used by Assimp) typedef NotImplemented IfcPresentationLayerAssignment; // (not currently used by Assimp) struct IfcSphere; struct IfcPolyLoop; struct IfcCableCarrierFittingType; struct IfcHumidifierType; typedef NotImplemented IfcPropertyListValue; // (not currently used by Assimp) typedef NotImplemented IfcPropertyConstraintRelationship; // (not currently used by Assimp) struct IfcPerformanceHistory; struct IfcShapeModel; struct IfcTopologyRepresentation; struct IfcBuilding; struct IfcRoundedRectangleProfileDef; struct IfcStairFlight; typedef NotImplemented IfcSurfaceStyleRefraction; // (not currently used by Assimp) typedef NotImplemented IfcRelInteractionRequirements; // (not currently used by Assimp) typedef NotImplemented IfcConstraint; // (not currently used by Assimp) typedef NotImplemented IfcObjective; // (not currently used by Assimp) typedef NotImplemented IfcConnectionPortGeometry; // (not currently used by Assimp) struct IfcDistributionChamberElement; typedef NotImplemented IfcPersonAndOrganization; // (not currently used by Assimp) struct IfcShapeRepresentation; struct IfcRampFlight; struct IfcBeamType; struct IfcRelDecomposes; struct IfcRoof; struct IfcFooting; typedef NotImplemented IfcRelCoversSpaces; // (not currently used by Assimp) struct IfcLightSourceAmbient; typedef NotImplemented IfcTimeSeriesValue; // (not currently used by Assimp) struct IfcWindowStyle; typedef NotImplemented IfcPropertyReferenceValue; // (not currently used by Assimp) typedef NotImplemented IfcApproval; // (not currently used by Assimp) typedef NotImplemented IfcRelConnectsStructuralElement; // (not currently used by Assimp) struct IfcBuildingElementProxyType; typedef NotImplemented IfcRelAssociatesProfileProperties; // (not currently used by Assimp) struct IfcAxis2Placement3D; typedef NotImplemented IfcRelConnectsPorts; // (not currently used by Assimp) struct IfcEdgeCurve; struct IfcClosedShell; struct IfcTendonAnchor; struct IfcCondenserType; typedef NotImplemented IfcQuantityTime; // (not currently used by Assimp) typedef NotImplemented IfcSurfaceTexture; // (not currently used by Assimp) typedef NotImplemented IfcPixelTexture; // (not currently used by Assimp) typedef NotImplemented IfcStructuralConnectionCondition; // (not currently used by Assimp) typedef NotImplemented IfcFailureConnectionCondition; // (not currently used by Assimp) typedef NotImplemented IfcDocumentReference; // (not currently used by Assimp) typedef NotImplemented IfcMechanicalSteelMaterialProperties; // (not currently used by Assimp) struct IfcPipeSegmentType; struct IfcPointOnSurface; typedef NotImplemented IfcTable; // (not currently used by Assimp) typedef NotImplemented IfcLightDistributionData; // (not currently used by Assimp) typedef NotImplemented IfcPropertyTableValue; // (not currently used by Assimp) typedef NotImplemented IfcPresentationLayerWithStyle; // (not currently used by Assimp) struct IfcAsset; struct IfcLightSourcePositional; typedef NotImplemented IfcLibraryInformation; // (not currently used by Assimp) typedef NotImplemented IfcTextStyleTextModel; // (not currently used by Assimp) struct IfcProjectionCurve; struct IfcFillAreaStyleTiles; typedef NotImplemented IfcRelFillsElement; // (not currently used by Assimp) struct IfcElectricMotorType; struct IfcTendon; struct IfcDistributionChamberElementType; struct IfcMemberType; struct IfcStructuralLinearAction; struct IfcStructuralLinearActionVarying; struct IfcProductDefinitionShape; struct IfcFastener; struct IfcMechanicalFastener; typedef NotImplemented IfcFuelProperties; // (not currently used by Assimp) struct IfcEvaporatorType; typedef NotImplemented IfcMaterialLayerSetUsage; // (not currently used by Assimp) struct IfcDiscreteAccessoryType; struct IfcStructuralCurveConnection; struct IfcProjectionElement; typedef NotImplemented IfcImageTexture; // (not currently used by Assimp) struct IfcCoveringType; typedef NotImplemented IfcRelAssociatesAppliedValue; // (not currently used by Assimp) struct IfcPumpType; struct IfcPile; struct IfcUnitAssignment; struct IfcBoundingBox; struct IfcShellBasedSurfaceModel; struct IfcFacetedBrep; struct IfcTextLiteralWithExtent; typedef NotImplemented IfcApplication; // (not currently used by Assimp) typedef NotImplemented IfcExtendedMaterialProperties; // (not currently used by Assimp) struct IfcElectricApplianceType; typedef NotImplemented IfcRelOccupiesSpaces; // (not currently used by Assimp) struct IfcTrapeziumProfileDef; typedef NotImplemented IfcQuantityWeight; // (not currently used by Assimp) struct IfcRelContainedInSpatialStructure; struct IfcEdgeLoop; struct IfcProject; struct IfcCartesianPoint; typedef NotImplemented IfcMaterial; // (not currently used by Assimp) struct IfcCurveBoundedPlane; struct IfcWallType; struct IfcFillAreaStyleHatching; struct IfcEquipmentStandard; typedef NotImplemented IfcHygroscopicMaterialProperties; // (not currently used by Assimp) typedef NotImplemented IfcDoorPanelProperties; // (not currently used by Assimp) struct IfcDiameterDimension; struct IfcStructuralLoadGroup; typedef NotImplemented IfcTelecomAddress; // (not currently used by Assimp) struct IfcConstructionMaterialResource; typedef NotImplemented IfcBlobTexture; // (not currently used by Assimp) typedef NotImplemented IfcIrregularTimeSeriesValue; // (not currently used by Assimp) struct IfcRelAggregates; struct IfcBoilerType; typedef NotImplemented IfcRelProjectsElement; // (not currently used by Assimp) struct IfcColourSpecification; struct IfcColourRgb; typedef NotImplemented IfcRelConnectsStructuralActivity; // (not currently used by Assimp) struct IfcDoorStyle; typedef NotImplemented IfcStructuralLoadSingleDisplacementDistortion; // (not currently used by Assimp) typedef NotImplemented IfcRelAssignsToProcess; // (not currently used by Assimp) struct IfcDuctSilencerType; struct IfcLightSourceGoniometric; struct IfcActuatorType; struct IfcSensorType; struct IfcAirTerminalBoxType; struct IfcAnnotationSurfaceOccurrence; struct IfcZShapeProfileDef; typedef NotImplemented IfcClassificationNotation; // (not currently used by Assimp) struct IfcRationalBezierCurve; struct IfcCartesianTransformationOperator2D; struct IfcCartesianTransformationOperator2DnonUniform; struct IfcMove; typedef NotImplemented IfcBoundaryEdgeCondition; // (not currently used by Assimp) typedef NotImplemented IfcDoorLiningProperties; // (not currently used by Assimp) struct IfcCableCarrierSegmentType; typedef NotImplemented IfcPostalAddress; // (not currently used by Assimp) typedef NotImplemented IfcRelConnectsPathElements; // (not currently used by Assimp) struct IfcElectricalElement; typedef NotImplemented IfcOwnerHistory; // (not currently used by Assimp) typedef NotImplemented IfcStructuralLoadTemperature; // (not currently used by Assimp) typedef NotImplemented IfcTextStyleWithBoxCharacteristics; // (not currently used by Assimp) struct IfcChillerType; typedef NotImplemented IfcRelSchedulesCostItems; // (not currently used by Assimp) struct IfcReinforcingBar; typedef NotImplemented IfcCurrencyRelationship; // (not currently used by Assimp) typedef NotImplemented IfcSoundValue; // (not currently used by Assimp) struct IfcCShapeProfileDef; struct IfcPermit; struct IfcSlabType; typedef NotImplemented IfcSlippageConnectionCondition; // (not currently used by Assimp) struct IfcLampType; struct IfcPlanarExtent; struct IfcAlarmType; typedef NotImplemented IfcDocumentElectronicFormat; // (not currently used by Assimp) struct IfcElectricFlowStorageDeviceType; struct IfcEquipmentElement; struct IfcLightFixtureType; typedef NotImplemented IfcMetric; // (not currently used by Assimp) typedef NotImplemented IfcRelNests; // (not currently used by Assimp) struct IfcCurtainWall; typedef NotImplemented IfcRelAssociatesDocument; // (not currently used by Assimp) typedef NotImplemented IfcComplexProperty; // (not currently used by Assimp) typedef NotImplemented IfcVertexBasedTextureMap; // (not currently used by Assimp) struct IfcSlab; struct IfcCurtainWallType; struct IfcOutletType; struct IfcCompressorType; struct IfcCraneRailAShapeProfileDef; struct IfcFlowSegment; struct IfcSectionedSpine; typedef NotImplemented IfcTableRow; // (not currently used by Assimp) typedef NotImplemented IfcDraughtingPreDefinedTextFont; // (not currently used by Assimp) struct IfcElectricTimeControlType; struct IfcFaceSurface; typedef NotImplemented IfcMaterialList; // (not currently used by Assimp) struct IfcMotorConnectionType; struct IfcFlowFitting; struct IfcPointOnCurve; struct IfcTransportElementType; typedef NotImplemented IfcRegularTimeSeries; // (not currently used by Assimp) typedef NotImplemented IfcRelAssociatesConstraint; // (not currently used by Assimp) typedef NotImplemented IfcPropertyEnumeratedValue; // (not currently used by Assimp) typedef NotImplemented IfcStructuralSteelProfileProperties; // (not currently used by Assimp) struct IfcCableSegmentType; typedef NotImplemented IfcExternallyDefinedHatchStyle; // (not currently used by Assimp) struct IfcAnnotationSurface; struct IfcCompositeCurveSegment; struct IfcServiceLife; struct IfcPlateType; typedef NotImplemented IfcCurveStyle; // (not currently used by Assimp) typedef NotImplemented IfcSectionProperties; // (not currently used by Assimp) struct IfcVibrationIsolatorType; typedef NotImplemented IfcTextureMap; // (not currently used by Assimp) struct IfcTrimmedCurve; struct IfcMappedItem; typedef NotImplemented IfcMaterialLayer; // (not currently used by Assimp) struct IfcDirection; struct IfcBlock; struct IfcProjectOrderRecord; struct IfcFlowMeterType; struct IfcControllerType; struct IfcBeam; struct IfcArbitraryOpenProfileDef; struct IfcCenterLineProfileDef; typedef NotImplemented IfcStructuralLoadPlanarForce; // (not currently used by Assimp) struct IfcTimeSeriesSchedule; struct IfcRoundedEdgeFeature; typedef NotImplemented IfcWindowLiningProperties; // (not currently used by Assimp) typedef NotImplemented IfcRelOverridesProperties; // (not currently used by Assimp) typedef NotImplemented IfcApprovalRelationship; // (not currently used by Assimp) struct IfcIShapeProfileDef; struct IfcSpaceHeaterType; typedef NotImplemented IfcExternallyDefinedSurfaceStyle; // (not currently used by Assimp) typedef NotImplemented IfcDerivedUnit; // (not currently used by Assimp) struct IfcFlowStorageDevice; typedef NotImplemented IfcMaterialClassificationRelationship; // (not currently used by Assimp) typedef NotImplemented IfcClassificationItem; // (not currently used by Assimp) struct IfcRevolvedAreaSolid; typedef NotImplemented IfcConnectionPointGeometry; // (not currently used by Assimp) struct IfcDoor; struct IfcEllipse; struct IfcTubeBundleType; struct IfcAngularDimension; typedef NotImplemented IfcThermalMaterialProperties; // (not currently used by Assimp) struct IfcFaceBasedSurfaceModel; struct IfcCraneRailFShapeProfileDef; struct IfcColumnType; struct IfcTShapeProfileDef; struct IfcEnergyConversionDevice; typedef NotImplemented IfcConnectionPointEccentricity; // (not currently used by Assimp) typedef NotImplemented IfcReinforcementDefinitionProperties; // (not currently used by Assimp) typedef NotImplemented IfcCurveStyleFontAndScaling; // (not currently used by Assimp) struct IfcWorkSchedule; typedef NotImplemented IfcOrganizationRelationship; // (not currently used by Assimp) struct IfcZone; struct IfcTransportElement; typedef NotImplemented IfcDraughtingPreDefinedCurveFont; // (not currently used by Assimp) struct IfcGeometricRepresentationSubContext; struct IfcLShapeProfileDef; struct IfcGeometricCurveSet; struct IfcActor; struct IfcOccupant; typedef NotImplemented IfcPhysicalComplexQuantity; // (not currently used by Assimp) struct IfcBooleanClippingResult; typedef NotImplemented IfcPreDefinedTerminatorSymbol; // (not currently used by Assimp) struct IfcAnnotationFillArea; typedef NotImplemented IfcConstraintAggregationRelationship; // (not currently used by Assimp) typedef NotImplemented IfcRelAssociatesApproval; // (not currently used by Assimp) typedef NotImplemented IfcRelAssociatesMaterial; // (not currently used by Assimp) typedef NotImplemented IfcRelAssignsToProduct; // (not currently used by Assimp) typedef NotImplemented IfcAppliedValueRelationship; // (not currently used by Assimp) struct IfcLightSourceSpot; struct IfcFireSuppressionTerminalType; typedef NotImplemented IfcElementQuantity; // (not currently used by Assimp) typedef NotImplemented IfcDimensionPair; // (not currently used by Assimp) struct IfcElectricGeneratorType; typedef NotImplemented IfcRelSequence; // (not currently used by Assimp) struct IfcInventory; struct IfcPolyline; struct IfcBoxedHalfSpace; struct IfcAirTerminalType; typedef NotImplemented IfcSectionReinforcementProperties; // (not currently used by Assimp) struct IfcDistributionPort; struct IfcCostItem; struct IfcStructuredDimensionCallout; struct IfcStructuralResultGroup; typedef NotImplemented IfcRelSpaceBoundary; // (not currently used by Assimp) struct IfcOrientedEdge; typedef NotImplemented IfcRelAssignsToResource; // (not currently used by Assimp) struct IfcCsgSolid; typedef NotImplemented IfcProductsOfCombustionProperties; // (not currently used by Assimp) typedef NotImplemented IfcRelaxation; // (not currently used by Assimp) struct IfcPlanarBox; typedef NotImplemented IfcQuantityLength; // (not currently used by Assimp) struct IfcMaterialDefinitionRepresentation; struct IfcAsymmetricIShapeProfileDef; struct IfcRepresentationMap; // C++ wrapper for IfcRoot struct IfcRoot : ObjectHelper<IfcRoot,4> { IfcRoot() : Object("IfcRoot") {} IfcGloballyUniqueId::Out GlobalId; Lazy< NotImplemented > OwnerHistory; Maybe< IfcLabel::Out > Name; Maybe< IfcText::Out > Description; }; // C++ wrapper for IfcObjectDefinition struct IfcObjectDefinition : IfcRoot, ObjectHelper<IfcObjectDefinition,0> { IfcObjectDefinition() : Object("IfcObjectDefinition") {} }; // C++ wrapper for IfcTypeObject struct IfcTypeObject : IfcObjectDefinition, ObjectHelper<IfcTypeObject,2> { IfcTypeObject() : Object("IfcTypeObject") {} Maybe< IfcLabel::Out > ApplicableOccurrence; Maybe< ListOf< Lazy< NotImplemented >, 1, 0 > > HasPropertySets; }; // C++ wrapper for IfcTypeProduct struct IfcTypeProduct : IfcTypeObject, ObjectHelper<IfcTypeProduct,2> { IfcTypeProduct() : Object("IfcTypeProduct") {} Maybe< ListOf< Lazy< IfcRepresentationMap >, 1, 0 > > RepresentationMaps; Maybe< IfcLabel::Out > Tag; }; // C++ wrapper for IfcElementType struct IfcElementType : IfcTypeProduct, ObjectHelper<IfcElementType,1> { IfcElementType() : Object("IfcElementType") {} Maybe< IfcLabel::Out > ElementType; }; // C++ wrapper for IfcFurnishingElementType struct IfcFurnishingElementType : IfcElementType, ObjectHelper<IfcFurnishingElementType,0> { IfcFurnishingElementType() : Object("IfcFurnishingElementType") {} }; // C++ wrapper for IfcFurnitureType struct IfcFurnitureType : IfcFurnishingElementType, ObjectHelper<IfcFurnitureType,1> { IfcFurnitureType() : Object("IfcFurnitureType") {} IfcAssemblyPlaceEnum::Out AssemblyPlace; }; // C++ wrapper for IfcObject struct IfcObject : IfcObjectDefinition, ObjectHelper<IfcObject,1> { IfcObject() : Object("IfcObject") {} Maybe< IfcLabel::Out > ObjectType; }; // C++ wrapper for IfcProduct struct IfcProduct : IfcObject, ObjectHelper<IfcProduct,2> { IfcProduct() : Object("IfcProduct") {} Maybe< Lazy< IfcObjectPlacement > > ObjectPlacement; Maybe< Lazy< IfcProductRepresentation > > Representation; }; // C++ wrapper for IfcGrid struct IfcGrid : IfcProduct, ObjectHelper<IfcGrid,3> { IfcGrid() : Object("IfcGrid") {} ListOf< Lazy< NotImplemented >, 1, 0 > UAxes; ListOf< Lazy< NotImplemented >, 1, 0 > VAxes; Maybe< ListOf< Lazy< NotImplemented >, 1, 0 > > WAxes; }; // C++ wrapper for IfcRepresentationItem struct IfcRepresentationItem : ObjectHelper<IfcRepresentationItem,0> { IfcRepresentationItem() : Object("IfcRepresentationItem") {} }; // C++ wrapper for IfcGeometricRepresentationItem struct IfcGeometricRepresentationItem : IfcRepresentationItem, ObjectHelper<IfcGeometricRepresentationItem,0> { IfcGeometricRepresentationItem() : Object("IfcGeometricRepresentationItem") {} }; // C++ wrapper for IfcOneDirectionRepeatFactor struct IfcOneDirectionRepeatFactor : IfcGeometricRepresentationItem, ObjectHelper<IfcOneDirectionRepeatFactor,1> { IfcOneDirectionRepeatFactor() : Object("IfcOneDirectionRepeatFactor") {} Lazy< IfcVector > RepeatFactor; }; // C++ wrapper for IfcTwoDirectionRepeatFactor struct IfcTwoDirectionRepeatFactor : IfcOneDirectionRepeatFactor, ObjectHelper<IfcTwoDirectionRepeatFactor,1> { IfcTwoDirectionRepeatFactor() : Object("IfcTwoDirectionRepeatFactor") {} Lazy< IfcVector > SecondRepeatFactor; }; // C++ wrapper for IfcElement struct IfcElement : IfcProduct, ObjectHelper<IfcElement,1> { IfcElement() : Object("IfcElement") {} Maybe< IfcIdentifier::Out > Tag; }; // C++ wrapper for IfcElementComponent struct IfcElementComponent : IfcElement, ObjectHelper<IfcElementComponent,0> { IfcElementComponent() : Object("IfcElementComponent") {} }; // C++ wrapper for IfcSpatialStructureElementType struct IfcSpatialStructureElementType : IfcElementType, ObjectHelper<IfcSpatialStructureElementType,0> { IfcSpatialStructureElementType() : Object("IfcSpatialStructureElementType") {} }; // C++ wrapper for IfcControl struct IfcControl : IfcObject, ObjectHelper<IfcControl,0> { IfcControl() : Object("IfcControl") {} }; // C++ wrapper for IfcActionRequest struct IfcActionRequest : IfcControl, ObjectHelper<IfcActionRequest,1> { IfcActionRequest() : Object("IfcActionRequest") {} IfcIdentifier::Out RequestID; }; // C++ wrapper for IfcDistributionElementType struct IfcDistributionElementType : IfcElementType, ObjectHelper<IfcDistributionElementType,0> { IfcDistributionElementType() : Object("IfcDistributionElementType") {} }; // C++ wrapper for IfcDistributionFlowElementType struct IfcDistributionFlowElementType : IfcDistributionElementType, ObjectHelper<IfcDistributionFlowElementType,0> { IfcDistributionFlowElementType() : Object("IfcDistributionFlowElementType") {} }; // C++ wrapper for IfcEnergyConversionDeviceType struct IfcEnergyConversionDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcEnergyConversionDeviceType,0> { IfcEnergyConversionDeviceType() : Object("IfcEnergyConversionDeviceType") {} }; // C++ wrapper for IfcCooledBeamType struct IfcCooledBeamType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCooledBeamType,1> { IfcCooledBeamType() : Object("IfcCooledBeamType") {} IfcCooledBeamTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcCsgPrimitive3D struct IfcCsgPrimitive3D : IfcGeometricRepresentationItem, ObjectHelper<IfcCsgPrimitive3D,1> { IfcCsgPrimitive3D() : Object("IfcCsgPrimitive3D") {} Lazy< IfcAxis2Placement3D > Position; }; // C++ wrapper for IfcRectangularPyramid struct IfcRectangularPyramid : IfcCsgPrimitive3D, ObjectHelper<IfcRectangularPyramid,3> { IfcRectangularPyramid() : Object("IfcRectangularPyramid") {} IfcPositiveLengthMeasure::Out XLength; IfcPositiveLengthMeasure::Out YLength; IfcPositiveLengthMeasure::Out Height; }; // C++ wrapper for IfcSurface struct IfcSurface : IfcGeometricRepresentationItem, ObjectHelper<IfcSurface,0> { IfcSurface() : Object("IfcSurface") {} }; // C++ wrapper for IfcBoundedSurface struct IfcBoundedSurface : IfcSurface, ObjectHelper<IfcBoundedSurface,0> { IfcBoundedSurface() : Object("IfcBoundedSurface") {} }; // C++ wrapper for IfcRectangularTrimmedSurface struct IfcRectangularTrimmedSurface : IfcBoundedSurface, ObjectHelper<IfcRectangularTrimmedSurface,7> { IfcRectangularTrimmedSurface() : Object("IfcRectangularTrimmedSurface") {} Lazy< IfcSurface > BasisSurface; IfcParameterValue::Out U1; IfcParameterValue::Out V1; IfcParameterValue::Out U2; IfcParameterValue::Out V2; BOOLEAN::Out Usense; BOOLEAN::Out Vsense; }; // C++ wrapper for IfcGroup struct IfcGroup : IfcObject, ObjectHelper<IfcGroup,0> { IfcGroup() : Object("IfcGroup") {} }; // C++ wrapper for IfcRelationship struct IfcRelationship : IfcRoot, ObjectHelper<IfcRelationship,0> { IfcRelationship() : Object("IfcRelationship") {} }; // C++ wrapper for IfcHalfSpaceSolid struct IfcHalfSpaceSolid : IfcGeometricRepresentationItem, ObjectHelper<IfcHalfSpaceSolid,2> { IfcHalfSpaceSolid() : Object("IfcHalfSpaceSolid") {} Lazy< IfcSurface > BaseSurface; BOOLEAN::Out AgreementFlag; }; // C++ wrapper for IfcPolygonalBoundedHalfSpace struct IfcPolygonalBoundedHalfSpace : IfcHalfSpaceSolid, ObjectHelper<IfcPolygonalBoundedHalfSpace,2> { IfcPolygonalBoundedHalfSpace() : Object("IfcPolygonalBoundedHalfSpace") {} Lazy< IfcAxis2Placement3D > Position; Lazy< IfcBoundedCurve > PolygonalBoundary; }; // C++ wrapper for IfcAirToAirHeatRecoveryType struct IfcAirToAirHeatRecoveryType : IfcEnergyConversionDeviceType, ObjectHelper<IfcAirToAirHeatRecoveryType,1> { IfcAirToAirHeatRecoveryType() : Object("IfcAirToAirHeatRecoveryType") {} IfcAirToAirHeatRecoveryTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcFlowFittingType struct IfcFlowFittingType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowFittingType,0> { IfcFlowFittingType() : Object("IfcFlowFittingType") {} }; // C++ wrapper for IfcPipeFittingType struct IfcPipeFittingType : IfcFlowFittingType, ObjectHelper<IfcPipeFittingType,1> { IfcPipeFittingType() : Object("IfcPipeFittingType") {} IfcPipeFittingTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcRepresentation struct IfcRepresentation : ObjectHelper<IfcRepresentation,4> { IfcRepresentation() : Object("IfcRepresentation") {} Lazy< IfcRepresentationContext > ContextOfItems; Maybe< IfcLabel::Out > RepresentationIdentifier; Maybe< IfcLabel::Out > RepresentationType; ListOf< Lazy< IfcRepresentationItem >, 1, 0 > Items; }; // C++ wrapper for IfcStyleModel struct IfcStyleModel : IfcRepresentation, ObjectHelper<IfcStyleModel,0> { IfcStyleModel() : Object("IfcStyleModel") {} }; // C++ wrapper for IfcStyledRepresentation struct IfcStyledRepresentation : IfcStyleModel, ObjectHelper<IfcStyledRepresentation,0> { IfcStyledRepresentation() : Object("IfcStyledRepresentation") {} }; // C++ wrapper for IfcBooleanResult struct IfcBooleanResult : IfcGeometricRepresentationItem, ObjectHelper<IfcBooleanResult,3> { IfcBooleanResult() : Object("IfcBooleanResult") {} IfcBooleanOperator::Out Operator; IfcBooleanOperand::Out FirstOperand; IfcBooleanOperand::Out SecondOperand; }; // C++ wrapper for IfcFeatureElement struct IfcFeatureElement : IfcElement, ObjectHelper<IfcFeatureElement,0> { IfcFeatureElement() : Object("IfcFeatureElement") {} }; // C++ wrapper for IfcFeatureElementSubtraction struct IfcFeatureElementSubtraction : IfcFeatureElement, ObjectHelper<IfcFeatureElementSubtraction,0> { IfcFeatureElementSubtraction() : Object("IfcFeatureElementSubtraction") {} }; // C++ wrapper for IfcOpeningElement struct IfcOpeningElement : IfcFeatureElementSubtraction, ObjectHelper<IfcOpeningElement,0> { IfcOpeningElement() : Object("IfcOpeningElement") {} }; // C++ wrapper for IfcConditionCriterion struct IfcConditionCriterion : IfcControl, ObjectHelper<IfcConditionCriterion,2> { IfcConditionCriterion() : Object("IfcConditionCriterion") {} IfcConditionCriterionSelect::Out Criterion; IfcDateTimeSelect::Out CriterionDateTime; }; // C++ wrapper for IfcFlowTerminalType struct IfcFlowTerminalType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowTerminalType,0> { IfcFlowTerminalType() : Object("IfcFlowTerminalType") {} }; // C++ wrapper for IfcFlowControllerType struct IfcFlowControllerType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowControllerType,0> { IfcFlowControllerType() : Object("IfcFlowControllerType") {} }; // C++ wrapper for IfcSwitchingDeviceType struct IfcSwitchingDeviceType : IfcFlowControllerType, ObjectHelper<IfcSwitchingDeviceType,1> { IfcSwitchingDeviceType() : Object("IfcSwitchingDeviceType") {} IfcSwitchingDeviceTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcSystem struct IfcSystem : IfcGroup, ObjectHelper<IfcSystem,0> { IfcSystem() : Object("IfcSystem") {} }; // C++ wrapper for IfcElectricalCircuit struct IfcElectricalCircuit : IfcSystem, ObjectHelper<IfcElectricalCircuit,0> { IfcElectricalCircuit() : Object("IfcElectricalCircuit") {} }; // C++ wrapper for IfcUnitaryEquipmentType struct IfcUnitaryEquipmentType : IfcEnergyConversionDeviceType, ObjectHelper<IfcUnitaryEquipmentType,1> { IfcUnitaryEquipmentType() : Object("IfcUnitaryEquipmentType") {} IfcUnitaryEquipmentTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcPort struct IfcPort : IfcProduct, ObjectHelper<IfcPort,0> { IfcPort() : Object("IfcPort") {} }; // C++ wrapper for IfcPlacement struct IfcPlacement : IfcGeometricRepresentationItem, ObjectHelper<IfcPlacement,1> { IfcPlacement() : Object("IfcPlacement") {} Lazy< IfcCartesianPoint > Location; }; // C++ wrapper for IfcProfileDef struct IfcProfileDef : ObjectHelper<IfcProfileDef,2> { IfcProfileDef() : Object("IfcProfileDef") {} IfcProfileTypeEnum::Out ProfileType; Maybe< IfcLabel::Out > ProfileName; }; // C++ wrapper for IfcArbitraryClosedProfileDef struct IfcArbitraryClosedProfileDef : IfcProfileDef, ObjectHelper<IfcArbitraryClosedProfileDef,1> { IfcArbitraryClosedProfileDef() : Object("IfcArbitraryClosedProfileDef") {} Lazy< IfcCurve > OuterCurve; }; // C++ wrapper for IfcCurve struct IfcCurve : IfcGeometricRepresentationItem, ObjectHelper<IfcCurve,0> { IfcCurve() : Object("IfcCurve") {} }; // C++ wrapper for IfcConic struct IfcConic : IfcCurve, ObjectHelper<IfcConic,1> { IfcConic() : Object("IfcConic") {} IfcAxis2Placement::Out Position; }; // C++ wrapper for IfcCircle struct IfcCircle : IfcConic, ObjectHelper<IfcCircle,1> { IfcCircle() : Object("IfcCircle") {} IfcPositiveLengthMeasure::Out Radius; }; // C++ wrapper for IfcElementarySurface struct IfcElementarySurface : IfcSurface, ObjectHelper<IfcElementarySurface,1> { IfcElementarySurface() : Object("IfcElementarySurface") {} Lazy< IfcAxis2Placement3D > Position; }; // C++ wrapper for IfcPlane struct IfcPlane : IfcElementarySurface, ObjectHelper<IfcPlane,0> { IfcPlane() : Object("IfcPlane") {} }; // C++ wrapper for IfcCostSchedule struct IfcCostSchedule : IfcControl, ObjectHelper<IfcCostSchedule,8> { IfcCostSchedule() : Object("IfcCostSchedule") {} Maybe< IfcActorSelect::Out > SubmittedBy; Maybe< IfcActorSelect::Out > PreparedBy; Maybe< IfcDateTimeSelect::Out > SubmittedOn; Maybe< IfcLabel::Out > Status; Maybe< ListOf< IfcActorSelect, 1, 0 >::Out > TargetUsers; Maybe< IfcDateTimeSelect::Out > UpdateDate; IfcIdentifier::Out ID; IfcCostScheduleTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcRightCircularCone struct IfcRightCircularCone : IfcCsgPrimitive3D, ObjectHelper<IfcRightCircularCone,2> { IfcRightCircularCone() : Object("IfcRightCircularCone") {} IfcPositiveLengthMeasure::Out Height; IfcPositiveLengthMeasure::Out BottomRadius; }; // C++ wrapper for IfcElementAssembly struct IfcElementAssembly : IfcElement, ObjectHelper<IfcElementAssembly,2> { IfcElementAssembly() : Object("IfcElementAssembly") {} Maybe< IfcAssemblyPlaceEnum::Out > AssemblyPlace; IfcElementAssemblyTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcBuildingElement struct IfcBuildingElement : IfcElement, ObjectHelper<IfcBuildingElement,0> { IfcBuildingElement() : Object("IfcBuildingElement") {} }; // C++ wrapper for IfcMember struct IfcMember : IfcBuildingElement, ObjectHelper<IfcMember,0> { IfcMember() : Object("IfcMember") {} }; // C++ wrapper for IfcBuildingElementProxy struct IfcBuildingElementProxy : IfcBuildingElement, ObjectHelper<IfcBuildingElementProxy,1> { IfcBuildingElementProxy() : Object("IfcBuildingElementProxy") {} Maybe< IfcElementCompositionEnum::Out > CompositionType; }; // C++ wrapper for IfcStructuralActivity struct IfcStructuralActivity : IfcProduct, ObjectHelper<IfcStructuralActivity,2> { IfcStructuralActivity() : Object("IfcStructuralActivity") {} Lazy< NotImplemented > AppliedLoad; IfcGlobalOrLocalEnum::Out GlobalOrLocal; }; // C++ wrapper for IfcStructuralAction struct IfcStructuralAction : IfcStructuralActivity, ObjectHelper<IfcStructuralAction,2> { IfcStructuralAction() : Object("IfcStructuralAction") {} BOOLEAN::Out DestabilizingLoad; Maybe< Lazy< IfcStructuralReaction > > CausedBy; }; // C++ wrapper for IfcStructuralPlanarAction struct IfcStructuralPlanarAction : IfcStructuralAction, ObjectHelper<IfcStructuralPlanarAction,1> { IfcStructuralPlanarAction() : Object("IfcStructuralPlanarAction") {} IfcProjectedOrTrueLengthEnum::Out ProjectedOrTrue; }; // C++ wrapper for IfcTopologicalRepresentationItem struct IfcTopologicalRepresentationItem : IfcRepresentationItem, ObjectHelper<IfcTopologicalRepresentationItem,0> { IfcTopologicalRepresentationItem() : Object("IfcTopologicalRepresentationItem") {} }; // C++ wrapper for IfcConnectedFaceSet struct IfcConnectedFaceSet : IfcTopologicalRepresentationItem, ObjectHelper<IfcConnectedFaceSet,1> { IfcConnectedFaceSet() : Object("IfcConnectedFaceSet") {} ListOf< Lazy< IfcFace >, 1, 0 > CfsFaces; }; // C++ wrapper for IfcSweptSurface struct IfcSweptSurface : IfcSurface, ObjectHelper<IfcSweptSurface,2> { IfcSweptSurface() : Object("IfcSweptSurface") {} Lazy< IfcProfileDef > SweptCurve; Lazy< IfcAxis2Placement3D > Position; }; // C++ wrapper for IfcSurfaceOfLinearExtrusion struct IfcSurfaceOfLinearExtrusion : IfcSweptSurface, ObjectHelper<IfcSurfaceOfLinearExtrusion,2> { IfcSurfaceOfLinearExtrusion() : Object("IfcSurfaceOfLinearExtrusion") {} Lazy< IfcDirection > ExtrudedDirection; IfcLengthMeasure::Out Depth; }; // C++ wrapper for IfcArbitraryProfileDefWithVoids struct IfcArbitraryProfileDefWithVoids : IfcArbitraryClosedProfileDef, ObjectHelper<IfcArbitraryProfileDefWithVoids,1> { IfcArbitraryProfileDefWithVoids() : Object("IfcArbitraryProfileDefWithVoids") {} ListOf< Lazy< IfcCurve >, 1, 0 > InnerCurves; }; // C++ wrapper for IfcProcess struct IfcProcess : IfcObject, ObjectHelper<IfcProcess,0> { IfcProcess() : Object("IfcProcess") {} }; // C++ wrapper for IfcProcedure struct IfcProcedure : IfcProcess, ObjectHelper<IfcProcedure,3> { IfcProcedure() : Object("IfcProcedure") {} IfcIdentifier::Out ProcedureID; IfcProcedureTypeEnum::Out ProcedureType; Maybe< IfcLabel::Out > UserDefinedProcedureType; }; // C++ wrapper for IfcVector struct IfcVector : IfcGeometricRepresentationItem, ObjectHelper<IfcVector,2> { IfcVector() : Object("IfcVector") {} Lazy< IfcDirection > Orientation; IfcLengthMeasure::Out Magnitude; }; // C++ wrapper for IfcFaceBound struct IfcFaceBound : IfcTopologicalRepresentationItem, ObjectHelper<IfcFaceBound,2> { IfcFaceBound() : Object("IfcFaceBound") {} Lazy< IfcLoop > Bound; BOOLEAN::Out Orientation; }; // C++ wrapper for IfcFaceOuterBound struct IfcFaceOuterBound : IfcFaceBound, ObjectHelper<IfcFaceOuterBound,0> { IfcFaceOuterBound() : Object("IfcFaceOuterBound") {} }; // C++ wrapper for IfcFeatureElementAddition struct IfcFeatureElementAddition : IfcFeatureElement, ObjectHelper<IfcFeatureElementAddition,0> { IfcFeatureElementAddition() : Object("IfcFeatureElementAddition") {} }; // C++ wrapper for IfcNamedUnit struct IfcNamedUnit : ObjectHelper<IfcNamedUnit,2> { IfcNamedUnit() : Object("IfcNamedUnit") {} Lazy< NotImplemented > Dimensions; IfcUnitEnum::Out UnitType; }; // C++ wrapper for IfcConversionBasedUnit struct IfcConversionBasedUnit : IfcNamedUnit, ObjectHelper<IfcConversionBasedUnit,2> { IfcConversionBasedUnit() : Object("IfcConversionBasedUnit") {} IfcLabel::Out Name; Lazy< IfcMeasureWithUnit > ConversionFactor; }; // C++ wrapper for IfcHeatExchangerType struct IfcHeatExchangerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcHeatExchangerType,1> { IfcHeatExchangerType() : Object("IfcHeatExchangerType") {} IfcHeatExchangerTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcPresentationStyleAssignment struct IfcPresentationStyleAssignment : ObjectHelper<IfcPresentationStyleAssignment,1> { IfcPresentationStyleAssignment() : Object("IfcPresentationStyleAssignment") {} ListOf< IfcPresentationStyleSelect, 1, 0 >::Out Styles; }; // C++ wrapper for IfcFlowTreatmentDeviceType struct IfcFlowTreatmentDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowTreatmentDeviceType,0> { IfcFlowTreatmentDeviceType() : Object("IfcFlowTreatmentDeviceType") {} }; // C++ wrapper for IfcFilterType struct IfcFilterType : IfcFlowTreatmentDeviceType, ObjectHelper<IfcFilterType,1> { IfcFilterType() : Object("IfcFilterType") {} IfcFilterTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcResource struct IfcResource : IfcObject, ObjectHelper<IfcResource,0> { IfcResource() : Object("IfcResource") {} }; // C++ wrapper for IfcEvaporativeCoolerType struct IfcEvaporativeCoolerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcEvaporativeCoolerType,1> { IfcEvaporativeCoolerType() : Object("IfcEvaporativeCoolerType") {} IfcEvaporativeCoolerTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcOffsetCurve2D struct IfcOffsetCurve2D : IfcCurve, ObjectHelper<IfcOffsetCurve2D,3> { IfcOffsetCurve2D() : Object("IfcOffsetCurve2D") {} Lazy< IfcCurve > BasisCurve; IfcLengthMeasure::Out Distance; LOGICAL::Out SelfIntersect; }; // C++ wrapper for IfcEdge struct IfcEdge : IfcTopologicalRepresentationItem, ObjectHelper<IfcEdge,2> { IfcEdge() : Object("IfcEdge") {} Lazy< IfcVertex > EdgeStart; Lazy< IfcVertex > EdgeEnd; }; // C++ wrapper for IfcSubedge struct IfcSubedge : IfcEdge, ObjectHelper<IfcSubedge,1> { IfcSubedge() : Object("IfcSubedge") {} Lazy< IfcEdge > ParentEdge; }; // C++ wrapper for IfcProxy struct IfcProxy : IfcProduct, ObjectHelper<IfcProxy,2> { IfcProxy() : Object("IfcProxy") {} IfcObjectTypeEnum::Out ProxyType; Maybe< IfcLabel::Out > Tag; }; // C++ wrapper for IfcLine struct IfcLine : IfcCurve, ObjectHelper<IfcLine,2> { IfcLine() : Object("IfcLine") {} Lazy< IfcCartesianPoint > Pnt; Lazy< IfcVector > Dir; }; // C++ wrapper for IfcColumn struct IfcColumn : IfcBuildingElement, ObjectHelper<IfcColumn,0> { IfcColumn() : Object("IfcColumn") {} }; // C++ wrapper for IfcObjectPlacement struct IfcObjectPlacement : ObjectHelper<IfcObjectPlacement,0> { IfcObjectPlacement() : Object("IfcObjectPlacement") {} }; // C++ wrapper for IfcGridPlacement struct IfcGridPlacement : IfcObjectPlacement, ObjectHelper<IfcGridPlacement,2> { IfcGridPlacement() : Object("IfcGridPlacement") {} Lazy< NotImplemented > PlacementLocation; Maybe< Lazy< NotImplemented > > PlacementRefDirection; }; // C++ wrapper for IfcDistributionControlElementType struct IfcDistributionControlElementType : IfcDistributionElementType, ObjectHelper<IfcDistributionControlElementType,0> { IfcDistributionControlElementType() : Object("IfcDistributionControlElementType") {} }; // C++ wrapper for IfcRelConnects struct IfcRelConnects : IfcRelationship, ObjectHelper<IfcRelConnects,0> { IfcRelConnects() : Object("IfcRelConnects") {} }; // C++ wrapper for IfcAnnotation struct IfcAnnotation : IfcProduct, ObjectHelper<IfcAnnotation,0> { IfcAnnotation() : Object("IfcAnnotation") {} }; // C++ wrapper for IfcPlate struct IfcPlate : IfcBuildingElement, ObjectHelper<IfcPlate,0> { IfcPlate() : Object("IfcPlate") {} }; // C++ wrapper for IfcSolidModel struct IfcSolidModel : IfcGeometricRepresentationItem, ObjectHelper<IfcSolidModel,0> { IfcSolidModel() : Object("IfcSolidModel") {} }; // C++ wrapper for IfcManifoldSolidBrep struct IfcManifoldSolidBrep : IfcSolidModel, ObjectHelper<IfcManifoldSolidBrep,1> { IfcManifoldSolidBrep() : Object("IfcManifoldSolidBrep") {} Lazy< IfcClosedShell > Outer; }; // C++ wrapper for IfcFlowStorageDeviceType struct IfcFlowStorageDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowStorageDeviceType,0> { IfcFlowStorageDeviceType() : Object("IfcFlowStorageDeviceType") {} }; // C++ wrapper for IfcStructuralItem struct IfcStructuralItem : IfcProduct, ObjectHelper<IfcStructuralItem,0> { IfcStructuralItem() : Object("IfcStructuralItem") {} }; // C++ wrapper for IfcStructuralMember struct IfcStructuralMember : IfcStructuralItem, ObjectHelper<IfcStructuralMember,0> { IfcStructuralMember() : Object("IfcStructuralMember") {} }; // C++ wrapper for IfcStructuralCurveMember struct IfcStructuralCurveMember : IfcStructuralMember, ObjectHelper<IfcStructuralCurveMember,1> { IfcStructuralCurveMember() : Object("IfcStructuralCurveMember") {} IfcStructuralCurveTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcStructuralConnection struct IfcStructuralConnection : IfcStructuralItem, ObjectHelper<IfcStructuralConnection,1> { IfcStructuralConnection() : Object("IfcStructuralConnection") {} Maybe< Lazy< NotImplemented > > AppliedCondition; }; // C++ wrapper for IfcStructuralSurfaceConnection struct IfcStructuralSurfaceConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralSurfaceConnection,0> { IfcStructuralSurfaceConnection() : Object("IfcStructuralSurfaceConnection") {} }; // C++ wrapper for IfcCoilType struct IfcCoilType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCoilType,1> { IfcCoilType() : Object("IfcCoilType") {} IfcCoilTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcDuctFittingType struct IfcDuctFittingType : IfcFlowFittingType, ObjectHelper<IfcDuctFittingType,1> { IfcDuctFittingType() : Object("IfcDuctFittingType") {} IfcDuctFittingTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcStyledItem struct IfcStyledItem : IfcRepresentationItem, ObjectHelper<IfcStyledItem,3> { IfcStyledItem() : Object("IfcStyledItem") {} Maybe< Lazy< IfcRepresentationItem > > Item; ListOf< Lazy< IfcPresentationStyleAssignment >, 1, 0 > Styles; Maybe< IfcLabel::Out > Name; }; // C++ wrapper for IfcAnnotationOccurrence struct IfcAnnotationOccurrence : IfcStyledItem, ObjectHelper<IfcAnnotationOccurrence,0> { IfcAnnotationOccurrence() : Object("IfcAnnotationOccurrence") {} }; // C++ wrapper for IfcAnnotationCurveOccurrence struct IfcAnnotationCurveOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationCurveOccurrence,0> { IfcAnnotationCurveOccurrence() : Object("IfcAnnotationCurveOccurrence") {} }; // C++ wrapper for IfcDimensionCurve struct IfcDimensionCurve : IfcAnnotationCurveOccurrence, ObjectHelper<IfcDimensionCurve,0> { IfcDimensionCurve() : Object("IfcDimensionCurve") {} }; // C++ wrapper for IfcBoundedCurve struct IfcBoundedCurve : IfcCurve, ObjectHelper<IfcBoundedCurve,0> { IfcBoundedCurve() : Object("IfcBoundedCurve") {} }; // C++ wrapper for IfcAxis1Placement struct IfcAxis1Placement : IfcPlacement, ObjectHelper<IfcAxis1Placement,1> { IfcAxis1Placement() : Object("IfcAxis1Placement") {} Maybe< Lazy< IfcDirection > > Axis; }; // C++ wrapper for IfcStructuralPointAction struct IfcStructuralPointAction : IfcStructuralAction, ObjectHelper<IfcStructuralPointAction,0> { IfcStructuralPointAction() : Object("IfcStructuralPointAction") {} }; // C++ wrapper for IfcSpatialStructureElement struct IfcSpatialStructureElement : IfcProduct, ObjectHelper<IfcSpatialStructureElement,2> { IfcSpatialStructureElement() : Object("IfcSpatialStructureElement") {} Maybe< IfcLabel::Out > LongName; IfcElementCompositionEnum::Out CompositionType; }; // C++ wrapper for IfcSpace struct IfcSpace : IfcSpatialStructureElement, ObjectHelper<IfcSpace,2> { IfcSpace() : Object("IfcSpace") {} IfcInternalOrExternalEnum::Out InteriorOrExteriorSpace; Maybe< IfcLengthMeasure::Out > ElevationWithFlooring; }; // C++ wrapper for IfcCoolingTowerType struct IfcCoolingTowerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCoolingTowerType,1> { IfcCoolingTowerType() : Object("IfcCoolingTowerType") {} IfcCoolingTowerTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcFacetedBrepWithVoids struct IfcFacetedBrepWithVoids : IfcManifoldSolidBrep, ObjectHelper<IfcFacetedBrepWithVoids,1> { IfcFacetedBrepWithVoids() : Object("IfcFacetedBrepWithVoids") {} ListOf< Lazy< IfcClosedShell >, 1, 0 > Voids; }; // C++ wrapper for IfcValveType struct IfcValveType : IfcFlowControllerType, ObjectHelper<IfcValveType,1> { IfcValveType() : Object("IfcValveType") {} IfcValveTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcSystemFurnitureElementType struct IfcSystemFurnitureElementType : IfcFurnishingElementType, ObjectHelper<IfcSystemFurnitureElementType,0> { IfcSystemFurnitureElementType() : Object("IfcSystemFurnitureElementType") {} }; // C++ wrapper for IfcDiscreteAccessory struct IfcDiscreteAccessory : IfcElementComponent, ObjectHelper<IfcDiscreteAccessory,0> { IfcDiscreteAccessory() : Object("IfcDiscreteAccessory") {} }; // C++ wrapper for IfcBuildingElementType struct IfcBuildingElementType : IfcElementType, ObjectHelper<IfcBuildingElementType,0> { IfcBuildingElementType() : Object("IfcBuildingElementType") {} }; // C++ wrapper for IfcRailingType struct IfcRailingType : IfcBuildingElementType, ObjectHelper<IfcRailingType,1> { IfcRailingType() : Object("IfcRailingType") {} IfcRailingTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcGasTerminalType struct IfcGasTerminalType : IfcFlowTerminalType, ObjectHelper<IfcGasTerminalType,1> { IfcGasTerminalType() : Object("IfcGasTerminalType") {} IfcGasTerminalTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcSpaceProgram struct IfcSpaceProgram : IfcControl, ObjectHelper<IfcSpaceProgram,5> { IfcSpaceProgram() : Object("IfcSpaceProgram") {} IfcIdentifier::Out SpaceProgramIdentifier; Maybe< IfcAreaMeasure::Out > MaxRequiredArea; Maybe< IfcAreaMeasure::Out > MinRequiredArea; Maybe< Lazy< IfcSpatialStructureElement > > RequestedLocation; IfcAreaMeasure::Out StandardRequiredArea; }; // C++ wrapper for IfcCovering struct IfcCovering : IfcBuildingElement, ObjectHelper<IfcCovering,1> { IfcCovering() : Object("IfcCovering") {} Maybe< IfcCoveringTypeEnum::Out > PredefinedType; }; // C++ wrapper for IfcPresentationStyle struct IfcPresentationStyle : ObjectHelper<IfcPresentationStyle,1> { IfcPresentationStyle() : Object("IfcPresentationStyle") {} Maybe< IfcLabel::Out > Name; }; // C++ wrapper for IfcElectricHeaterType struct IfcElectricHeaterType : IfcFlowTerminalType, ObjectHelper<IfcElectricHeaterType,1> { IfcElectricHeaterType() : Object("IfcElectricHeaterType") {} IfcElectricHeaterTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcBuildingStorey struct IfcBuildingStorey : IfcSpatialStructureElement, ObjectHelper<IfcBuildingStorey,1> { IfcBuildingStorey() : Object("IfcBuildingStorey") {} Maybe< IfcLengthMeasure::Out > Elevation; }; // C++ wrapper for IfcVertex struct IfcVertex : IfcTopologicalRepresentationItem, ObjectHelper<IfcVertex,0> { IfcVertex() : Object("IfcVertex") {} }; // C++ wrapper for IfcVertexPoint struct IfcVertexPoint : IfcVertex, ObjectHelper<IfcVertexPoint,1> { IfcVertexPoint() : Object("IfcVertexPoint") {} Lazy< IfcPoint > VertexGeometry; }; // C++ wrapper for IfcFlowInstrumentType struct IfcFlowInstrumentType : IfcDistributionControlElementType, ObjectHelper<IfcFlowInstrumentType,1> { IfcFlowInstrumentType() : Object("IfcFlowInstrumentType") {} IfcFlowInstrumentTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcParameterizedProfileDef struct IfcParameterizedProfileDef : IfcProfileDef, ObjectHelper<IfcParameterizedProfileDef,1> { IfcParameterizedProfileDef() : Object("IfcParameterizedProfileDef") {} Lazy< IfcAxis2Placement2D > Position; }; // C++ wrapper for IfcUShapeProfileDef struct IfcUShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcUShapeProfileDef,8> { IfcUShapeProfileDef() : Object("IfcUShapeProfileDef") {} IfcPositiveLengthMeasure::Out Depth; IfcPositiveLengthMeasure::Out FlangeWidth; IfcPositiveLengthMeasure::Out WebThickness; IfcPositiveLengthMeasure::Out FlangeThickness; Maybe< IfcPositiveLengthMeasure::Out > FilletRadius; Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius; Maybe< IfcPlaneAngleMeasure::Out > FlangeSlope; Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX; }; // C++ wrapper for IfcRamp struct IfcRamp : IfcBuildingElement, ObjectHelper<IfcRamp,1> { IfcRamp() : Object("IfcRamp") {} IfcRampTypeEnum::Out ShapeType; }; // C++ wrapper for IfcCompositeCurve struct IfcCompositeCurve : IfcBoundedCurve, ObjectHelper<IfcCompositeCurve,2> { IfcCompositeCurve() : Object("IfcCompositeCurve") {} ListOf< Lazy< IfcCompositeCurveSegment >, 1, 0 > Segments; LOGICAL::Out SelfIntersect; }; // C++ wrapper for IfcStructuralCurveMemberVarying struct IfcStructuralCurveMemberVarying : IfcStructuralCurveMember, ObjectHelper<IfcStructuralCurveMemberVarying,0> { IfcStructuralCurveMemberVarying() : Object("IfcStructuralCurveMemberVarying") {} }; // C++ wrapper for IfcRampFlightType struct IfcRampFlightType : IfcBuildingElementType, ObjectHelper<IfcRampFlightType,1> { IfcRampFlightType() : Object("IfcRampFlightType") {} IfcRampFlightTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcDraughtingCallout struct IfcDraughtingCallout : IfcGeometricRepresentationItem, ObjectHelper<IfcDraughtingCallout,1> { IfcDraughtingCallout() : Object("IfcDraughtingCallout") {} ListOf< IfcDraughtingCalloutElement, 1, 0 >::Out Contents; }; // C++ wrapper for IfcDimensionCurveDirectedCallout struct IfcDimensionCurveDirectedCallout : IfcDraughtingCallout, ObjectHelper<IfcDimensionCurveDirectedCallout,0> { IfcDimensionCurveDirectedCallout() : Object("IfcDimensionCurveDirectedCallout") {} }; // C++ wrapper for IfcRadiusDimension struct IfcRadiusDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcRadiusDimension,0> { IfcRadiusDimension() : Object("IfcRadiusDimension") {} }; // C++ wrapper for IfcEdgeFeature struct IfcEdgeFeature : IfcFeatureElementSubtraction, ObjectHelper<IfcEdgeFeature,1> { IfcEdgeFeature() : Object("IfcEdgeFeature") {} Maybe< IfcPositiveLengthMeasure::Out > FeatureLength; }; // C++ wrapper for IfcSweptAreaSolid struct IfcSweptAreaSolid : IfcSolidModel, ObjectHelper<IfcSweptAreaSolid,2> { IfcSweptAreaSolid() : Object("IfcSweptAreaSolid") {} Lazy< IfcProfileDef > SweptArea; Lazy< IfcAxis2Placement3D > Position; }; // C++ wrapper for IfcExtrudedAreaSolid struct IfcExtrudedAreaSolid : IfcSweptAreaSolid, ObjectHelper<IfcExtrudedAreaSolid,2> { IfcExtrudedAreaSolid() : Object("IfcExtrudedAreaSolid") {} Lazy< IfcDirection > ExtrudedDirection; IfcPositiveLengthMeasure::Out Depth; }; // C++ wrapper for IfcAnnotationTextOccurrence struct IfcAnnotationTextOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationTextOccurrence,0> { IfcAnnotationTextOccurrence() : Object("IfcAnnotationTextOccurrence") {} }; // C++ wrapper for IfcStair struct IfcStair : IfcBuildingElement, ObjectHelper<IfcStair,1> { IfcStair() : Object("IfcStair") {} IfcStairTypeEnum::Out ShapeType; }; // C++ wrapper for IfcFillAreaStyleTileSymbolWithStyle struct IfcFillAreaStyleTileSymbolWithStyle : IfcGeometricRepresentationItem, ObjectHelper<IfcFillAreaStyleTileSymbolWithStyle,1> { IfcFillAreaStyleTileSymbolWithStyle() : Object("IfcFillAreaStyleTileSymbolWithStyle") {} Lazy< IfcAnnotationSymbolOccurrence > Symbol; }; // C++ wrapper for IfcAnnotationSymbolOccurrence struct IfcAnnotationSymbolOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationSymbolOccurrence,0> { IfcAnnotationSymbolOccurrence() : Object("IfcAnnotationSymbolOccurrence") {} }; // C++ wrapper for IfcTerminatorSymbol struct IfcTerminatorSymbol : IfcAnnotationSymbolOccurrence, ObjectHelper<IfcTerminatorSymbol,1> { IfcTerminatorSymbol() : Object("IfcTerminatorSymbol") {} Lazy< IfcAnnotationCurveOccurrence > AnnotatedCurve; }; // C++ wrapper for IfcDimensionCurveTerminator struct IfcDimensionCurveTerminator : IfcTerminatorSymbol, ObjectHelper<IfcDimensionCurveTerminator,1> { IfcDimensionCurveTerminator() : Object("IfcDimensionCurveTerminator") {} IfcDimensionExtentUsage::Out Role; }; // C++ wrapper for IfcRectangleProfileDef struct IfcRectangleProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcRectangleProfileDef,2> { IfcRectangleProfileDef() : Object("IfcRectangleProfileDef") {} IfcPositiveLengthMeasure::Out XDim; IfcPositiveLengthMeasure::Out YDim; }; // C++ wrapper for IfcRectangleHollowProfileDef struct IfcRectangleHollowProfileDef : IfcRectangleProfileDef, ObjectHelper<IfcRectangleHollowProfileDef,3> { IfcRectangleHollowProfileDef() : Object("IfcRectangleHollowProfileDef") {} IfcPositiveLengthMeasure::Out WallThickness; Maybe< IfcPositiveLengthMeasure::Out > InnerFilletRadius; Maybe< IfcPositiveLengthMeasure::Out > OuterFilletRadius; }; // C++ wrapper for IfcLocalPlacement struct IfcLocalPlacement : IfcObjectPlacement, ObjectHelper<IfcLocalPlacement,2> { IfcLocalPlacement() : Object("IfcLocalPlacement") {} Maybe< Lazy< IfcObjectPlacement > > PlacementRelTo; IfcAxis2Placement::Out RelativePlacement; }; // C++ wrapper for IfcTask struct IfcTask : IfcProcess, ObjectHelper<IfcTask,5> { IfcTask() : Object("IfcTask") {} IfcIdentifier::Out TaskId; Maybe< IfcLabel::Out > Status; Maybe< IfcLabel::Out > WorkMethod; BOOLEAN::Out IsMilestone; Maybe< INTEGER::Out > Priority; }; // C++ wrapper for IfcAnnotationFillAreaOccurrence struct IfcAnnotationFillAreaOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationFillAreaOccurrence,2> { IfcAnnotationFillAreaOccurrence() : Object("IfcAnnotationFillAreaOccurrence") {} Maybe< Lazy< IfcPoint > > FillStyleTarget; Maybe< IfcGlobalOrLocalEnum::Out > GlobalOrLocal; }; // C++ wrapper for IfcFace struct IfcFace : IfcTopologicalRepresentationItem, ObjectHelper<IfcFace,1> { IfcFace() : Object("IfcFace") {} ListOf< Lazy< IfcFaceBound >, 1, 0 > Bounds; }; // C++ wrapper for IfcFlowSegmentType struct IfcFlowSegmentType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowSegmentType,0> { IfcFlowSegmentType() : Object("IfcFlowSegmentType") {} }; // C++ wrapper for IfcDuctSegmentType struct IfcDuctSegmentType : IfcFlowSegmentType, ObjectHelper<IfcDuctSegmentType,1> { IfcDuctSegmentType() : Object("IfcDuctSegmentType") {} IfcDuctSegmentTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcConstructionResource struct IfcConstructionResource : IfcResource, ObjectHelper<IfcConstructionResource,4> { IfcConstructionResource() : Object("IfcConstructionResource") {} Maybe< IfcIdentifier::Out > ResourceIdentifier; Maybe< IfcLabel::Out > ResourceGroup; Maybe< IfcResourceConsumptionEnum::Out > ResourceConsumption; Maybe< Lazy< IfcMeasureWithUnit > > BaseQuantity; }; // C++ wrapper for IfcConstructionEquipmentResource struct IfcConstructionEquipmentResource : IfcConstructionResource, ObjectHelper<IfcConstructionEquipmentResource,0> { IfcConstructionEquipmentResource() : Object("IfcConstructionEquipmentResource") {} }; // C++ wrapper for IfcSanitaryTerminalType struct IfcSanitaryTerminalType : IfcFlowTerminalType, ObjectHelper<IfcSanitaryTerminalType,1> { IfcSanitaryTerminalType() : Object("IfcSanitaryTerminalType") {} IfcSanitaryTerminalTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcCircleProfileDef struct IfcCircleProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcCircleProfileDef,1> { IfcCircleProfileDef() : Object("IfcCircleProfileDef") {} IfcPositiveLengthMeasure::Out Radius; }; // C++ wrapper for IfcStructuralReaction struct IfcStructuralReaction : IfcStructuralActivity, ObjectHelper<IfcStructuralReaction,0> { IfcStructuralReaction() : Object("IfcStructuralReaction") {} }; // C++ wrapper for IfcStructuralPointReaction struct IfcStructuralPointReaction : IfcStructuralReaction, ObjectHelper<IfcStructuralPointReaction,0> { IfcStructuralPointReaction() : Object("IfcStructuralPointReaction") {} }; // C++ wrapper for IfcRailing struct IfcRailing : IfcBuildingElement, ObjectHelper<IfcRailing,1> { IfcRailing() : Object("IfcRailing") {} Maybe< IfcRailingTypeEnum::Out > PredefinedType; }; // C++ wrapper for IfcTextLiteral struct IfcTextLiteral : IfcGeometricRepresentationItem, ObjectHelper<IfcTextLiteral,3> { IfcTextLiteral() : Object("IfcTextLiteral") {} IfcPresentableText::Out Literal; IfcAxis2Placement::Out Placement; IfcTextPath::Out Path; }; // C++ wrapper for IfcCartesianTransformationOperator struct IfcCartesianTransformationOperator : IfcGeometricRepresentationItem, ObjectHelper<IfcCartesianTransformationOperator,4> { IfcCartesianTransformationOperator() : Object("IfcCartesianTransformationOperator") {} Maybe< Lazy< IfcDirection > > Axis1; Maybe< Lazy< IfcDirection > > Axis2; Lazy< IfcCartesianPoint > LocalOrigin; Maybe< REAL::Out > Scale; }; // C++ wrapper for IfcLinearDimension struct IfcLinearDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcLinearDimension,0> { IfcLinearDimension() : Object("IfcLinearDimension") {} }; // C++ wrapper for IfcDamperType struct IfcDamperType : IfcFlowControllerType, ObjectHelper<IfcDamperType,1> { IfcDamperType() : Object("IfcDamperType") {} IfcDamperTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcSIUnit struct IfcSIUnit : IfcNamedUnit, ObjectHelper<IfcSIUnit,2> { IfcSIUnit() : Object("IfcSIUnit") {} Maybe< IfcSIPrefix::Out > Prefix; IfcSIUnitName::Out Name; }; // C++ wrapper for IfcMeasureWithUnit struct IfcMeasureWithUnit : ObjectHelper<IfcMeasureWithUnit,2> { IfcMeasureWithUnit() : Object("IfcMeasureWithUnit") {} IfcValue::Out ValueComponent; IfcUnit::Out UnitComponent; }; // C++ wrapper for IfcDistributionElement struct IfcDistributionElement : IfcElement, ObjectHelper<IfcDistributionElement,0> { IfcDistributionElement() : Object("IfcDistributionElement") {} }; // C++ wrapper for IfcDistributionControlElement struct IfcDistributionControlElement : IfcDistributionElement, ObjectHelper<IfcDistributionControlElement,1> { IfcDistributionControlElement() : Object("IfcDistributionControlElement") {} Maybe< IfcIdentifier::Out > ControlElementId; }; // C++ wrapper for IfcTransformerType struct IfcTransformerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcTransformerType,1> { IfcTransformerType() : Object("IfcTransformerType") {} IfcTransformerTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcLaborResource struct IfcLaborResource : IfcConstructionResource, ObjectHelper<IfcLaborResource,1> { IfcLaborResource() : Object("IfcLaborResource") {} Maybe< IfcText::Out > SkillSet; }; // C++ wrapper for IfcFurnitureStandard struct IfcFurnitureStandard : IfcControl, ObjectHelper<IfcFurnitureStandard,0> { IfcFurnitureStandard() : Object("IfcFurnitureStandard") {} }; // C++ wrapper for IfcStairFlightType struct IfcStairFlightType : IfcBuildingElementType, ObjectHelper<IfcStairFlightType,1> { IfcStairFlightType() : Object("IfcStairFlightType") {} IfcStairFlightTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcWorkControl struct IfcWorkControl : IfcControl, ObjectHelper<IfcWorkControl,10> { IfcWorkControl() : Object("IfcWorkControl") {} IfcIdentifier::Out Identifier; IfcDateTimeSelect::Out CreationDate; Maybe< ListOf< Lazy< NotImplemented >, 1, 0 > > Creators; Maybe< IfcLabel::Out > Purpose; Maybe< IfcTimeMeasure::Out > Duration; Maybe< IfcTimeMeasure::Out > TotalFloat; IfcDateTimeSelect::Out StartTime; Maybe< IfcDateTimeSelect::Out > FinishTime; Maybe< IfcWorkControlTypeEnum::Out > WorkControlType; Maybe< IfcLabel::Out > UserDefinedControlType; }; // C++ wrapper for IfcWorkPlan struct IfcWorkPlan : IfcWorkControl, ObjectHelper<IfcWorkPlan,0> { IfcWorkPlan() : Object("IfcWorkPlan") {} }; // C++ wrapper for IfcCondition struct IfcCondition : IfcGroup, ObjectHelper<IfcCondition,0> { IfcCondition() : Object("IfcCondition") {} }; // C++ wrapper for IfcRelVoidsElement struct IfcRelVoidsElement : IfcRelConnects, ObjectHelper<IfcRelVoidsElement,2> { IfcRelVoidsElement() : Object("IfcRelVoidsElement") {} Lazy< IfcElement > RelatingBuildingElement; Lazy< IfcFeatureElementSubtraction > RelatedOpeningElement; }; // C++ wrapper for IfcWindow struct IfcWindow : IfcBuildingElement, ObjectHelper<IfcWindow,2> { IfcWindow() : Object("IfcWindow") {} Maybe< IfcPositiveLengthMeasure::Out > OverallHeight; Maybe< IfcPositiveLengthMeasure::Out > OverallWidth; }; // C++ wrapper for IfcProtectiveDeviceType struct IfcProtectiveDeviceType : IfcFlowControllerType, ObjectHelper<IfcProtectiveDeviceType,1> { IfcProtectiveDeviceType() : Object("IfcProtectiveDeviceType") {} IfcProtectiveDeviceTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcJunctionBoxType struct IfcJunctionBoxType : IfcFlowFittingType, ObjectHelper<IfcJunctionBoxType,1> { IfcJunctionBoxType() : Object("IfcJunctionBoxType") {} IfcJunctionBoxTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcStructuralAnalysisModel struct IfcStructuralAnalysisModel : IfcSystem, ObjectHelper<IfcStructuralAnalysisModel,4> { IfcStructuralAnalysisModel() : Object("IfcStructuralAnalysisModel") {} IfcAnalysisModelTypeEnum::Out PredefinedType; Maybe< Lazy< IfcAxis2Placement3D > > OrientationOf2DPlane; Maybe< ListOf< Lazy< IfcStructuralLoadGroup >, 1, 0 > > LoadedBy; Maybe< ListOf< Lazy< IfcStructuralResultGroup >, 1, 0 > > HasResults; }; // C++ wrapper for IfcAxis2Placement2D struct IfcAxis2Placement2D : IfcPlacement, ObjectHelper<IfcAxis2Placement2D,1> { IfcAxis2Placement2D() : Object("IfcAxis2Placement2D") {} Maybe< Lazy< IfcDirection > > RefDirection; }; // C++ wrapper for IfcSpaceType struct IfcSpaceType : IfcSpatialStructureElementType, ObjectHelper<IfcSpaceType,1> { IfcSpaceType() : Object("IfcSpaceType") {} IfcSpaceTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcEllipseProfileDef struct IfcEllipseProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcEllipseProfileDef,2> { IfcEllipseProfileDef() : Object("IfcEllipseProfileDef") {} IfcPositiveLengthMeasure::Out SemiAxis1; IfcPositiveLengthMeasure::Out SemiAxis2; }; // C++ wrapper for IfcDistributionFlowElement struct IfcDistributionFlowElement : IfcDistributionElement, ObjectHelper<IfcDistributionFlowElement,0> { IfcDistributionFlowElement() : Object("IfcDistributionFlowElement") {} }; // C++ wrapper for IfcFlowMovingDevice struct IfcFlowMovingDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowMovingDevice,0> { IfcFlowMovingDevice() : Object("IfcFlowMovingDevice") {} }; // C++ wrapper for IfcSurfaceStyleWithTextures struct IfcSurfaceStyleWithTextures : ObjectHelper<IfcSurfaceStyleWithTextures,1> { IfcSurfaceStyleWithTextures() : Object("IfcSurfaceStyleWithTextures") {} ListOf< Lazy< NotImplemented >, 1, 0 > Textures; }; // C++ wrapper for IfcGeometricSet struct IfcGeometricSet : IfcGeometricRepresentationItem, ObjectHelper<IfcGeometricSet,1> { IfcGeometricSet() : Object("IfcGeometricSet") {} ListOf< IfcGeometricSetSelect, 1, 0 >::Out Elements; }; // C++ wrapper for IfcProjectOrder struct IfcProjectOrder : IfcControl, ObjectHelper<IfcProjectOrder,3> { IfcProjectOrder() : Object("IfcProjectOrder") {} IfcIdentifier::Out ID; IfcProjectOrderTypeEnum::Out PredefinedType; Maybe< IfcLabel::Out > Status; }; // C++ wrapper for IfcBSplineCurve struct IfcBSplineCurve : IfcBoundedCurve, ObjectHelper<IfcBSplineCurve,5> { IfcBSplineCurve() : Object("IfcBSplineCurve") {} INTEGER::Out Degree; ListOf< Lazy< IfcCartesianPoint >, 2, 0 > ControlPointsList; IfcBSplineCurveForm::Out CurveForm; LOGICAL::Out ClosedCurve; LOGICAL::Out SelfIntersect; }; // C++ wrapper for IfcBezierCurve struct IfcBezierCurve : IfcBSplineCurve, ObjectHelper<IfcBezierCurve,0> { IfcBezierCurve() : Object("IfcBezierCurve") {} }; // C++ wrapper for IfcStructuralPointConnection struct IfcStructuralPointConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralPointConnection,0> { IfcStructuralPointConnection() : Object("IfcStructuralPointConnection") {} }; // C++ wrapper for IfcFlowController struct IfcFlowController : IfcDistributionFlowElement, ObjectHelper<IfcFlowController,0> { IfcFlowController() : Object("IfcFlowController") {} }; // C++ wrapper for IfcElectricDistributionPoint struct IfcElectricDistributionPoint : IfcFlowController, ObjectHelper<IfcElectricDistributionPoint,2> { IfcElectricDistributionPoint() : Object("IfcElectricDistributionPoint") {} IfcElectricDistributionPointFunctionEnum::Out DistributionPointFunction; Maybe< IfcLabel::Out > UserDefinedFunction; }; // C++ wrapper for IfcSite struct IfcSite : IfcSpatialStructureElement, ObjectHelper<IfcSite,5> { IfcSite() : Object("IfcSite") {} Maybe< IfcCompoundPlaneAngleMeasure::Out > RefLatitude; Maybe< IfcCompoundPlaneAngleMeasure::Out > RefLongitude; Maybe< IfcLengthMeasure::Out > RefElevation; Maybe< IfcLabel::Out > LandTitleNumber; Maybe< Lazy< NotImplemented > > SiteAddress; }; // C++ wrapper for IfcOffsetCurve3D struct IfcOffsetCurve3D : IfcCurve, ObjectHelper<IfcOffsetCurve3D,4> { IfcOffsetCurve3D() : Object("IfcOffsetCurve3D") {} Lazy< IfcCurve > BasisCurve; IfcLengthMeasure::Out Distance; LOGICAL::Out SelfIntersect; Lazy< IfcDirection > RefDirection; }; // C++ wrapper for IfcVirtualElement struct IfcVirtualElement : IfcElement, ObjectHelper<IfcVirtualElement,0> { IfcVirtualElement() : Object("IfcVirtualElement") {} }; // C++ wrapper for IfcConstructionProductResource struct IfcConstructionProductResource : IfcConstructionResource, ObjectHelper<IfcConstructionProductResource,0> { IfcConstructionProductResource() : Object("IfcConstructionProductResource") {} }; // C++ wrapper for IfcSurfaceCurveSweptAreaSolid struct IfcSurfaceCurveSweptAreaSolid : IfcSweptAreaSolid, ObjectHelper<IfcSurfaceCurveSweptAreaSolid,4> { IfcSurfaceCurveSweptAreaSolid() : Object("IfcSurfaceCurveSweptAreaSolid") {} Lazy< IfcCurve > Directrix; IfcParameterValue::Out StartParam; IfcParameterValue::Out EndParam; Lazy< IfcSurface > ReferenceSurface; }; // C++ wrapper for IfcCartesianTransformationOperator3D struct IfcCartesianTransformationOperator3D : IfcCartesianTransformationOperator, ObjectHelper<IfcCartesianTransformationOperator3D,1> { IfcCartesianTransformationOperator3D() : Object("IfcCartesianTransformationOperator3D") {} Maybe< Lazy< IfcDirection > > Axis3; }; // C++ wrapper for IfcCartesianTransformationOperator3DnonUniform struct IfcCartesianTransformationOperator3DnonUniform : IfcCartesianTransformationOperator3D, ObjectHelper<IfcCartesianTransformationOperator3DnonUniform,2> { IfcCartesianTransformationOperator3DnonUniform() : Object("IfcCartesianTransformationOperator3DnonUniform") {} Maybe< REAL::Out > Scale2; Maybe< REAL::Out > Scale3; }; // C++ wrapper for IfcCrewResource struct IfcCrewResource : IfcConstructionResource, ObjectHelper<IfcCrewResource,0> { IfcCrewResource() : Object("IfcCrewResource") {} }; // C++ wrapper for IfcStructuralSurfaceMember struct IfcStructuralSurfaceMember : IfcStructuralMember, ObjectHelper<IfcStructuralSurfaceMember,2> { IfcStructuralSurfaceMember() : Object("IfcStructuralSurfaceMember") {} IfcStructuralSurfaceTypeEnum::Out PredefinedType; Maybe< IfcPositiveLengthMeasure::Out > Thickness; }; // C++ wrapper for Ifc2DCompositeCurve struct Ifc2DCompositeCurve : IfcCompositeCurve, ObjectHelper<Ifc2DCompositeCurve,0> { Ifc2DCompositeCurve() : Object("Ifc2DCompositeCurve") {} }; // C++ wrapper for IfcRepresentationContext struct IfcRepresentationContext : ObjectHelper<IfcRepresentationContext,2> { IfcRepresentationContext() : Object("IfcRepresentationContext") {} Maybe< IfcLabel::Out > ContextIdentifier; Maybe< IfcLabel::Out > ContextType; }; // C++ wrapper for IfcGeometricRepresentationContext struct IfcGeometricRepresentationContext : IfcRepresentationContext, ObjectHelper<IfcGeometricRepresentationContext,4> { IfcGeometricRepresentationContext() : Object("IfcGeometricRepresentationContext") {} IfcDimensionCount::Out CoordinateSpaceDimension; Maybe< REAL::Out > Precision; IfcAxis2Placement::Out WorldCoordinateSystem; Maybe< Lazy< IfcDirection > > TrueNorth; }; // C++ wrapper for IfcFlowTreatmentDevice struct IfcFlowTreatmentDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowTreatmentDevice,0> { IfcFlowTreatmentDevice() : Object("IfcFlowTreatmentDevice") {} }; // C++ wrapper for IfcRightCircularCylinder struct IfcRightCircularCylinder : IfcCsgPrimitive3D, ObjectHelper<IfcRightCircularCylinder,2> { IfcRightCircularCylinder() : Object("IfcRightCircularCylinder") {} IfcPositiveLengthMeasure::Out Height; IfcPositiveLengthMeasure::Out Radius; }; // C++ wrapper for IfcWasteTerminalType struct IfcWasteTerminalType : IfcFlowTerminalType, ObjectHelper<IfcWasteTerminalType,1> { IfcWasteTerminalType() : Object("IfcWasteTerminalType") {} IfcWasteTerminalTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcBuildingElementComponent struct IfcBuildingElementComponent : IfcBuildingElement, ObjectHelper<IfcBuildingElementComponent,0> { IfcBuildingElementComponent() : Object("IfcBuildingElementComponent") {} }; // C++ wrapper for IfcBuildingElementPart struct IfcBuildingElementPart : IfcBuildingElementComponent, ObjectHelper<IfcBuildingElementPart,0> { IfcBuildingElementPart() : Object("IfcBuildingElementPart") {} }; // C++ wrapper for IfcWall struct IfcWall : IfcBuildingElement, ObjectHelper<IfcWall,0> { IfcWall() : Object("IfcWall") {} }; // C++ wrapper for IfcWallStandardCase struct IfcWallStandardCase : IfcWall, ObjectHelper<IfcWallStandardCase,0> { IfcWallStandardCase() : Object("IfcWallStandardCase") {} }; // C++ wrapper for IfcPath struct IfcPath : IfcTopologicalRepresentationItem, ObjectHelper<IfcPath,1> { IfcPath() : Object("IfcPath") {} ListOf< Lazy< IfcOrientedEdge >, 1, 0 > EdgeList; }; // C++ wrapper for IfcDefinedSymbol struct IfcDefinedSymbol : IfcGeometricRepresentationItem, ObjectHelper<IfcDefinedSymbol,2> { IfcDefinedSymbol() : Object("IfcDefinedSymbol") {} IfcDefinedSymbolSelect::Out Definition; Lazy< IfcCartesianTransformationOperator2D > Target; }; // C++ wrapper for IfcStructuralSurfaceMemberVarying struct IfcStructuralSurfaceMemberVarying : IfcStructuralSurfaceMember, ObjectHelper<IfcStructuralSurfaceMemberVarying,2> { IfcStructuralSurfaceMemberVarying() : Object("IfcStructuralSurfaceMemberVarying") {} ListOf< IfcPositiveLengthMeasure, 2, 0 >::Out SubsequentThickness; Lazy< NotImplemented > VaryingThicknessLocation; }; // C++ wrapper for IfcPoint struct IfcPoint : IfcGeometricRepresentationItem, ObjectHelper<IfcPoint,0> { IfcPoint() : Object("IfcPoint") {} }; // C++ wrapper for IfcSurfaceOfRevolution struct IfcSurfaceOfRevolution : IfcSweptSurface, ObjectHelper<IfcSurfaceOfRevolution,1> { IfcSurfaceOfRevolution() : Object("IfcSurfaceOfRevolution") {} Lazy< IfcAxis1Placement > AxisPosition; }; // C++ wrapper for IfcFlowTerminal struct IfcFlowTerminal : IfcDistributionFlowElement, ObjectHelper<IfcFlowTerminal,0> { IfcFlowTerminal() : Object("IfcFlowTerminal") {} }; // C++ wrapper for IfcFurnishingElement struct IfcFurnishingElement : IfcElement, ObjectHelper<IfcFurnishingElement,0> { IfcFurnishingElement() : Object("IfcFurnishingElement") {} }; // C++ wrapper for IfcSurfaceStyleShading struct IfcSurfaceStyleShading : ObjectHelper<IfcSurfaceStyleShading,1> { IfcSurfaceStyleShading() : Object("IfcSurfaceStyleShading") {} Lazy< IfcColourRgb > SurfaceColour; }; // C++ wrapper for IfcSurfaceStyleRendering struct IfcSurfaceStyleRendering : IfcSurfaceStyleShading, ObjectHelper<IfcSurfaceStyleRendering,8> { IfcSurfaceStyleRendering() : Object("IfcSurfaceStyleRendering") {} Maybe< IfcNormalisedRatioMeasure::Out > Transparency; Maybe< IfcColourOrFactor::Out > DiffuseColour; Maybe< IfcColourOrFactor::Out > TransmissionColour; Maybe< IfcColourOrFactor::Out > DiffuseTransmissionColour; Maybe< IfcColourOrFactor::Out > ReflectionColour; Maybe< IfcColourOrFactor::Out > SpecularColour; Maybe< IfcSpecularHighlightSelect::Out > SpecularHighlight; IfcReflectanceMethodEnum::Out ReflectanceMethod; }; // C++ wrapper for IfcCircleHollowProfileDef struct IfcCircleHollowProfileDef : IfcCircleProfileDef, ObjectHelper<IfcCircleHollowProfileDef,1> { IfcCircleHollowProfileDef() : Object("IfcCircleHollowProfileDef") {} IfcPositiveLengthMeasure::Out WallThickness; }; // C++ wrapper for IfcFlowMovingDeviceType struct IfcFlowMovingDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowMovingDeviceType,0> { IfcFlowMovingDeviceType() : Object("IfcFlowMovingDeviceType") {} }; // C++ wrapper for IfcFanType struct IfcFanType : IfcFlowMovingDeviceType, ObjectHelper<IfcFanType,1> { IfcFanType() : Object("IfcFanType") {} IfcFanTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcStructuralPlanarActionVarying struct IfcStructuralPlanarActionVarying : IfcStructuralPlanarAction, ObjectHelper<IfcStructuralPlanarActionVarying,2> { IfcStructuralPlanarActionVarying() : Object("IfcStructuralPlanarActionVarying") {} Lazy< NotImplemented > VaryingAppliedLoadLocation; ListOf< Lazy< NotImplemented >, 2, 0 > SubsequentAppliedLoads; }; // C++ wrapper for IfcProductRepresentation struct IfcProductRepresentation : ObjectHelper<IfcProductRepresentation,3> { IfcProductRepresentation() : Object("IfcProductRepresentation") {} Maybe< IfcLabel::Out > Name; Maybe< IfcText::Out > Description; ListOf< Lazy< IfcRepresentation >, 1, 0 > Representations; }; // C++ wrapper for IfcStackTerminalType struct IfcStackTerminalType : IfcFlowTerminalType, ObjectHelper<IfcStackTerminalType,1> { IfcStackTerminalType() : Object("IfcStackTerminalType") {} IfcStackTerminalTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcReinforcingElement struct IfcReinforcingElement : IfcBuildingElementComponent, ObjectHelper<IfcReinforcingElement,1> { IfcReinforcingElement() : Object("IfcReinforcingElement") {} Maybe< IfcLabel::Out > SteelGrade; }; // C++ wrapper for IfcReinforcingMesh struct IfcReinforcingMesh : IfcReinforcingElement, ObjectHelper<IfcReinforcingMesh,8> { IfcReinforcingMesh() : Object("IfcReinforcingMesh") {} Maybe< IfcPositiveLengthMeasure::Out > MeshLength; Maybe< IfcPositiveLengthMeasure::Out > MeshWidth; IfcPositiveLengthMeasure::Out LongitudinalBarNominalDiameter; IfcPositiveLengthMeasure::Out TransverseBarNominalDiameter; IfcAreaMeasure::Out LongitudinalBarCrossSectionArea; IfcAreaMeasure::Out TransverseBarCrossSectionArea; IfcPositiveLengthMeasure::Out LongitudinalBarSpacing; IfcPositiveLengthMeasure::Out TransverseBarSpacing; }; // C++ wrapper for IfcOrderAction struct IfcOrderAction : IfcTask, ObjectHelper<IfcOrderAction,1> { IfcOrderAction() : Object("IfcOrderAction") {} IfcIdentifier::Out ActionID; }; // C++ wrapper for IfcLightSource struct IfcLightSource : IfcGeometricRepresentationItem, ObjectHelper<IfcLightSource,4> { IfcLightSource() : Object("IfcLightSource") {} Maybe< IfcLabel::Out > Name; Lazy< IfcColourRgb > LightColour; Maybe< IfcNormalisedRatioMeasure::Out > AmbientIntensity; Maybe< IfcNormalisedRatioMeasure::Out > Intensity; }; // C++ wrapper for IfcLightSourceDirectional struct IfcLightSourceDirectional : IfcLightSource, ObjectHelper<IfcLightSourceDirectional,1> { IfcLightSourceDirectional() : Object("IfcLightSourceDirectional") {} Lazy< IfcDirection > Orientation; }; // C++ wrapper for IfcLoop struct IfcLoop : IfcTopologicalRepresentationItem, ObjectHelper<IfcLoop,0> { IfcLoop() : Object("IfcLoop") {} }; // C++ wrapper for IfcVertexLoop struct IfcVertexLoop : IfcLoop, ObjectHelper<IfcVertexLoop,1> { IfcVertexLoop() : Object("IfcVertexLoop") {} Lazy< IfcVertex > LoopVertex; }; // C++ wrapper for IfcChamferEdgeFeature struct IfcChamferEdgeFeature : IfcEdgeFeature, ObjectHelper<IfcChamferEdgeFeature,2> { IfcChamferEdgeFeature() : Object("IfcChamferEdgeFeature") {} Maybe< IfcPositiveLengthMeasure::Out > Width; Maybe< IfcPositiveLengthMeasure::Out > Height; }; // C++ wrapper for IfcElementComponentType struct IfcElementComponentType : IfcElementType, ObjectHelper<IfcElementComponentType,0> { IfcElementComponentType() : Object("IfcElementComponentType") {} }; // C++ wrapper for IfcFastenerType struct IfcFastenerType : IfcElementComponentType, ObjectHelper<IfcFastenerType,0> { IfcFastenerType() : Object("IfcFastenerType") {} }; // C++ wrapper for IfcMechanicalFastenerType struct IfcMechanicalFastenerType : IfcFastenerType, ObjectHelper<IfcMechanicalFastenerType,0> { IfcMechanicalFastenerType() : Object("IfcMechanicalFastenerType") {} }; // C++ wrapper for IfcScheduleTimeControl struct IfcScheduleTimeControl : IfcControl, ObjectHelper<IfcScheduleTimeControl,18> { IfcScheduleTimeControl() : Object("IfcScheduleTimeControl") {} Maybe< IfcDateTimeSelect::Out > ActualStart; Maybe< IfcDateTimeSelect::Out > EarlyStart; Maybe< IfcDateTimeSelect::Out > LateStart; Maybe< IfcDateTimeSelect::Out > ScheduleStart; Maybe< IfcDateTimeSelect::Out > ActualFinish; Maybe< IfcDateTimeSelect::Out > EarlyFinish; Maybe< IfcDateTimeSelect::Out > LateFinish; Maybe< IfcDateTimeSelect::Out > ScheduleFinish; Maybe< IfcTimeMeasure::Out > ScheduleDuration; Maybe< IfcTimeMeasure::Out > ActualDuration; Maybe< IfcTimeMeasure::Out > RemainingTime; Maybe< IfcTimeMeasure::Out > FreeFloat; Maybe< IfcTimeMeasure::Out > TotalFloat; Maybe< BOOLEAN::Out > IsCritical; Maybe< IfcDateTimeSelect::Out > StatusTime; Maybe< IfcTimeMeasure::Out > StartFloat; Maybe< IfcTimeMeasure::Out > FinishFloat; Maybe< IfcPositiveRatioMeasure::Out > Completion; }; // C++ wrapper for IfcSurfaceStyle struct IfcSurfaceStyle : IfcPresentationStyle, ObjectHelper<IfcSurfaceStyle,2> { IfcSurfaceStyle() : Object("IfcSurfaceStyle") {} IfcSurfaceSide::Out Side; ListOf< IfcSurfaceStyleElementSelect, 1, 5 >::Out Styles; }; // C++ wrapper for IfcOpenShell struct IfcOpenShell : IfcConnectedFaceSet, ObjectHelper<IfcOpenShell,0> { IfcOpenShell() : Object("IfcOpenShell") {} }; // C++ wrapper for IfcSubContractResource struct IfcSubContractResource : IfcConstructionResource, ObjectHelper<IfcSubContractResource,2> { IfcSubContractResource() : Object("IfcSubContractResource") {} Maybe< IfcActorSelect::Out > SubContractor; Maybe< IfcText::Out > JobDescription; }; // C++ wrapper for IfcSweptDiskSolid struct IfcSweptDiskSolid : IfcSolidModel, ObjectHelper<IfcSweptDiskSolid,5> { IfcSweptDiskSolid() : Object("IfcSweptDiskSolid") {} Lazy< IfcCurve > Directrix; IfcPositiveLengthMeasure::Out Radius; Maybe< IfcPositiveLengthMeasure::Out > InnerRadius; IfcParameterValue::Out StartParam; IfcParameterValue::Out EndParam; }; // C++ wrapper for IfcTankType struct IfcTankType : IfcFlowStorageDeviceType, ObjectHelper<IfcTankType,1> { IfcTankType() : Object("IfcTankType") {} IfcTankTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcSphere struct IfcSphere : IfcCsgPrimitive3D, ObjectHelper<IfcSphere,1> { IfcSphere() : Object("IfcSphere") {} IfcPositiveLengthMeasure::Out Radius; }; // C++ wrapper for IfcPolyLoop struct IfcPolyLoop : IfcLoop, ObjectHelper<IfcPolyLoop,1> { IfcPolyLoop() : Object("IfcPolyLoop") {} ListOf< Lazy< IfcCartesianPoint >, 3, 0 > Polygon; }; // C++ wrapper for IfcCableCarrierFittingType struct IfcCableCarrierFittingType : IfcFlowFittingType, ObjectHelper<IfcCableCarrierFittingType,1> { IfcCableCarrierFittingType() : Object("IfcCableCarrierFittingType") {} IfcCableCarrierFittingTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcHumidifierType struct IfcHumidifierType : IfcEnergyConversionDeviceType, ObjectHelper<IfcHumidifierType,1> { IfcHumidifierType() : Object("IfcHumidifierType") {} IfcHumidifierTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcPerformanceHistory struct IfcPerformanceHistory : IfcControl, ObjectHelper<IfcPerformanceHistory,1> { IfcPerformanceHistory() : Object("IfcPerformanceHistory") {} IfcLabel::Out LifeCyclePhase; }; // C++ wrapper for IfcShapeModel struct IfcShapeModel : IfcRepresentation, ObjectHelper<IfcShapeModel,0> { IfcShapeModel() : Object("IfcShapeModel") {} }; // C++ wrapper for IfcTopologyRepresentation struct IfcTopologyRepresentation : IfcShapeModel, ObjectHelper<IfcTopologyRepresentation,0> { IfcTopologyRepresentation() : Object("IfcTopologyRepresentation") {} }; // C++ wrapper for IfcBuilding struct IfcBuilding : IfcSpatialStructureElement, ObjectHelper<IfcBuilding,3> { IfcBuilding() : Object("IfcBuilding") {} Maybe< IfcLengthMeasure::Out > ElevationOfRefHeight; Maybe< IfcLengthMeasure::Out > ElevationOfTerrain; Maybe< Lazy< NotImplemented > > BuildingAddress; }; // C++ wrapper for IfcRoundedRectangleProfileDef struct IfcRoundedRectangleProfileDef : IfcRectangleProfileDef, ObjectHelper<IfcRoundedRectangleProfileDef,1> { IfcRoundedRectangleProfileDef() : Object("IfcRoundedRectangleProfileDef") {} IfcPositiveLengthMeasure::Out RoundingRadius; }; // C++ wrapper for IfcStairFlight struct IfcStairFlight : IfcBuildingElement, ObjectHelper<IfcStairFlight,4> { IfcStairFlight() : Object("IfcStairFlight") {} Maybe< INTEGER::Out > NumberOfRiser; Maybe< INTEGER::Out > NumberOfTreads; Maybe< IfcPositiveLengthMeasure::Out > RiserHeight; Maybe< IfcPositiveLengthMeasure::Out > TreadLength; }; // C++ wrapper for IfcDistributionChamberElement struct IfcDistributionChamberElement : IfcDistributionFlowElement, ObjectHelper<IfcDistributionChamberElement,0> { IfcDistributionChamberElement() : Object("IfcDistributionChamberElement") {} }; // C++ wrapper for IfcShapeRepresentation struct IfcShapeRepresentation : IfcShapeModel, ObjectHelper<IfcShapeRepresentation,0> { IfcShapeRepresentation() : Object("IfcShapeRepresentation") {} }; // C++ wrapper for IfcRampFlight struct IfcRampFlight : IfcBuildingElement, ObjectHelper<IfcRampFlight,0> { IfcRampFlight() : Object("IfcRampFlight") {} }; // C++ wrapper for IfcBeamType struct IfcBeamType : IfcBuildingElementType, ObjectHelper<IfcBeamType,1> { IfcBeamType() : Object("IfcBeamType") {} IfcBeamTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcRelDecomposes struct IfcRelDecomposes : IfcRelationship, ObjectHelper<IfcRelDecomposes,2> { IfcRelDecomposes() : Object("IfcRelDecomposes") {} Lazy< IfcObjectDefinition > RelatingObject; ListOf< Lazy< IfcObjectDefinition >, 1, 0 > RelatedObjects; }; // C++ wrapper for IfcRoof struct IfcRoof : IfcBuildingElement, ObjectHelper<IfcRoof,1> { IfcRoof() : Object("IfcRoof") {} IfcRoofTypeEnum::Out ShapeType; }; // C++ wrapper for IfcFooting struct IfcFooting : IfcBuildingElement, ObjectHelper<IfcFooting,1> { IfcFooting() : Object("IfcFooting") {} IfcFootingTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcLightSourceAmbient struct IfcLightSourceAmbient : IfcLightSource, ObjectHelper<IfcLightSourceAmbient,0> { IfcLightSourceAmbient() : Object("IfcLightSourceAmbient") {} }; // C++ wrapper for IfcWindowStyle struct IfcWindowStyle : IfcTypeProduct, ObjectHelper<IfcWindowStyle,4> { IfcWindowStyle() : Object("IfcWindowStyle") {} IfcWindowStyleConstructionEnum::Out ConstructionType; IfcWindowStyleOperationEnum::Out OperationType; BOOLEAN::Out ParameterTakesPrecedence; BOOLEAN::Out Sizeable; }; // C++ wrapper for IfcBuildingElementProxyType struct IfcBuildingElementProxyType : IfcBuildingElementType, ObjectHelper<IfcBuildingElementProxyType,1> { IfcBuildingElementProxyType() : Object("IfcBuildingElementProxyType") {} IfcBuildingElementProxyTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcAxis2Placement3D struct IfcAxis2Placement3D : IfcPlacement, ObjectHelper<IfcAxis2Placement3D,2> { IfcAxis2Placement3D() : Object("IfcAxis2Placement3D") {} Maybe< Lazy< IfcDirection > > Axis; Maybe< Lazy< IfcDirection > > RefDirection; }; // C++ wrapper for IfcEdgeCurve struct IfcEdgeCurve : IfcEdge, ObjectHelper<IfcEdgeCurve,2> { IfcEdgeCurve() : Object("IfcEdgeCurve") {} Lazy< IfcCurve > EdgeGeometry; BOOLEAN::Out SameSense; }; // C++ wrapper for IfcClosedShell struct IfcClosedShell : IfcConnectedFaceSet, ObjectHelper<IfcClosedShell,0> { IfcClosedShell() : Object("IfcClosedShell") {} }; // C++ wrapper for IfcTendonAnchor struct IfcTendonAnchor : IfcReinforcingElement, ObjectHelper<IfcTendonAnchor,0> { IfcTendonAnchor() : Object("IfcTendonAnchor") {} }; // C++ wrapper for IfcCondenserType struct IfcCondenserType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCondenserType,1> { IfcCondenserType() : Object("IfcCondenserType") {} IfcCondenserTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcPipeSegmentType struct IfcPipeSegmentType : IfcFlowSegmentType, ObjectHelper<IfcPipeSegmentType,1> { IfcPipeSegmentType() : Object("IfcPipeSegmentType") {} IfcPipeSegmentTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcPointOnSurface struct IfcPointOnSurface : IfcPoint, ObjectHelper<IfcPointOnSurface,3> { IfcPointOnSurface() : Object("IfcPointOnSurface") {} Lazy< IfcSurface > BasisSurface; IfcParameterValue::Out PointParameterU; IfcParameterValue::Out PointParameterV; }; // C++ wrapper for IfcAsset struct IfcAsset : IfcGroup, ObjectHelper<IfcAsset,9> { IfcAsset() : Object("IfcAsset") {} IfcIdentifier::Out AssetID; Lazy< NotImplemented > OriginalValue; Lazy< NotImplemented > CurrentValue; Lazy< NotImplemented > TotalReplacementCost; IfcActorSelect::Out Owner; IfcActorSelect::Out User; Lazy< NotImplemented > ResponsiblePerson; Lazy< NotImplemented > IncorporationDate; Lazy< NotImplemented > DepreciatedValue; }; // C++ wrapper for IfcLightSourcePositional struct IfcLightSourcePositional : IfcLightSource, ObjectHelper<IfcLightSourcePositional,5> { IfcLightSourcePositional() : Object("IfcLightSourcePositional") {} Lazy< IfcCartesianPoint > Position; IfcPositiveLengthMeasure::Out Radius; IfcReal::Out ConstantAttenuation; IfcReal::Out DistanceAttenuation; IfcReal::Out QuadricAttenuation; }; // C++ wrapper for IfcProjectionCurve struct IfcProjectionCurve : IfcAnnotationCurveOccurrence, ObjectHelper<IfcProjectionCurve,0> { IfcProjectionCurve() : Object("IfcProjectionCurve") {} }; // C++ wrapper for IfcFillAreaStyleTiles struct IfcFillAreaStyleTiles : IfcGeometricRepresentationItem, ObjectHelper<IfcFillAreaStyleTiles,3> { IfcFillAreaStyleTiles() : Object("IfcFillAreaStyleTiles") {} Lazy< IfcOneDirectionRepeatFactor > TilingPattern; ListOf< IfcFillAreaStyleTileShapeSelect, 1, 0 >::Out Tiles; IfcPositiveRatioMeasure::Out TilingScale; }; // C++ wrapper for IfcElectricMotorType struct IfcElectricMotorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcElectricMotorType,1> { IfcElectricMotorType() : Object("IfcElectricMotorType") {} IfcElectricMotorTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcTendon struct IfcTendon : IfcReinforcingElement, ObjectHelper<IfcTendon,8> { IfcTendon() : Object("IfcTendon") {} IfcTendonTypeEnum::Out PredefinedType; IfcPositiveLengthMeasure::Out NominalDiameter; IfcAreaMeasure::Out CrossSectionArea; Maybe< IfcForceMeasure::Out > TensionForce; Maybe< IfcPressureMeasure::Out > PreStress; Maybe< IfcNormalisedRatioMeasure::Out > FrictionCoefficient; Maybe< IfcPositiveLengthMeasure::Out > AnchorageSlip; Maybe< IfcPositiveLengthMeasure::Out > MinCurvatureRadius; }; // C++ wrapper for IfcDistributionChamberElementType struct IfcDistributionChamberElementType : IfcDistributionFlowElementType, ObjectHelper<IfcDistributionChamberElementType,1> { IfcDistributionChamberElementType() : Object("IfcDistributionChamberElementType") {} IfcDistributionChamberElementTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcMemberType struct IfcMemberType : IfcBuildingElementType, ObjectHelper<IfcMemberType,1> { IfcMemberType() : Object("IfcMemberType") {} IfcMemberTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcStructuralLinearAction struct IfcStructuralLinearAction : IfcStructuralAction, ObjectHelper<IfcStructuralLinearAction,1> { IfcStructuralLinearAction() : Object("IfcStructuralLinearAction") {} IfcProjectedOrTrueLengthEnum::Out ProjectedOrTrue; }; // C++ wrapper for IfcStructuralLinearActionVarying struct IfcStructuralLinearActionVarying : IfcStructuralLinearAction, ObjectHelper<IfcStructuralLinearActionVarying,2> { IfcStructuralLinearActionVarying() : Object("IfcStructuralLinearActionVarying") {} Lazy< NotImplemented > VaryingAppliedLoadLocation; ListOf< Lazy< NotImplemented >, 1, 0 > SubsequentAppliedLoads; }; // C++ wrapper for IfcProductDefinitionShape struct IfcProductDefinitionShape : IfcProductRepresentation, ObjectHelper<IfcProductDefinitionShape,0> { IfcProductDefinitionShape() : Object("IfcProductDefinitionShape") {} }; // C++ wrapper for IfcFastener struct IfcFastener : IfcElementComponent, ObjectHelper<IfcFastener,0> { IfcFastener() : Object("IfcFastener") {} }; // C++ wrapper for IfcMechanicalFastener struct IfcMechanicalFastener : IfcFastener, ObjectHelper<IfcMechanicalFastener,2> { IfcMechanicalFastener() : Object("IfcMechanicalFastener") {} Maybe< IfcPositiveLengthMeasure::Out > NominalDiameter; Maybe< IfcPositiveLengthMeasure::Out > NominalLength; }; // C++ wrapper for IfcEvaporatorType struct IfcEvaporatorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcEvaporatorType,1> { IfcEvaporatorType() : Object("IfcEvaporatorType") {} IfcEvaporatorTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcDiscreteAccessoryType struct IfcDiscreteAccessoryType : IfcElementComponentType, ObjectHelper<IfcDiscreteAccessoryType,0> { IfcDiscreteAccessoryType() : Object("IfcDiscreteAccessoryType") {} }; // C++ wrapper for IfcStructuralCurveConnection struct IfcStructuralCurveConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralCurveConnection,0> { IfcStructuralCurveConnection() : Object("IfcStructuralCurveConnection") {} }; // C++ wrapper for IfcProjectionElement struct IfcProjectionElement : IfcFeatureElementAddition, ObjectHelper<IfcProjectionElement,0> { IfcProjectionElement() : Object("IfcProjectionElement") {} }; // C++ wrapper for IfcCoveringType struct IfcCoveringType : IfcBuildingElementType, ObjectHelper<IfcCoveringType,1> { IfcCoveringType() : Object("IfcCoveringType") {} IfcCoveringTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcPumpType struct IfcPumpType : IfcFlowMovingDeviceType, ObjectHelper<IfcPumpType,1> { IfcPumpType() : Object("IfcPumpType") {} IfcPumpTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcPile struct IfcPile : IfcBuildingElement, ObjectHelper<IfcPile,2> { IfcPile() : Object("IfcPile") {} IfcPileTypeEnum::Out PredefinedType; Maybe< IfcPileConstructionEnum::Out > ConstructionType; }; // C++ wrapper for IfcUnitAssignment struct IfcUnitAssignment : ObjectHelper<IfcUnitAssignment,1> { IfcUnitAssignment() : Object("IfcUnitAssignment") {} ListOf< IfcUnit, 1, 0 >::Out Units; }; // C++ wrapper for IfcBoundingBox struct IfcBoundingBox : IfcGeometricRepresentationItem, ObjectHelper<IfcBoundingBox,4> { IfcBoundingBox() : Object("IfcBoundingBox") {} Lazy< IfcCartesianPoint > Corner; IfcPositiveLengthMeasure::Out XDim; IfcPositiveLengthMeasure::Out YDim; IfcPositiveLengthMeasure::Out ZDim; }; // C++ wrapper for IfcShellBasedSurfaceModel struct IfcShellBasedSurfaceModel : IfcGeometricRepresentationItem, ObjectHelper<IfcShellBasedSurfaceModel,1> { IfcShellBasedSurfaceModel() : Object("IfcShellBasedSurfaceModel") {} ListOf< IfcShell, 1, 0 >::Out SbsmBoundary; }; // C++ wrapper for IfcFacetedBrep struct IfcFacetedBrep : IfcManifoldSolidBrep, ObjectHelper<IfcFacetedBrep,0> { IfcFacetedBrep() : Object("IfcFacetedBrep") {} }; // C++ wrapper for IfcTextLiteralWithExtent struct IfcTextLiteralWithExtent : IfcTextLiteral, ObjectHelper<IfcTextLiteralWithExtent,2> { IfcTextLiteralWithExtent() : Object("IfcTextLiteralWithExtent") {} Lazy< IfcPlanarExtent > Extent; IfcBoxAlignment::Out BoxAlignment; }; // C++ wrapper for IfcElectricApplianceType struct IfcElectricApplianceType : IfcFlowTerminalType, ObjectHelper<IfcElectricApplianceType,1> { IfcElectricApplianceType() : Object("IfcElectricApplianceType") {} IfcElectricApplianceTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcTrapeziumProfileDef struct IfcTrapeziumProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcTrapeziumProfileDef,4> { IfcTrapeziumProfileDef() : Object("IfcTrapeziumProfileDef") {} IfcPositiveLengthMeasure::Out BottomXDim; IfcPositiveLengthMeasure::Out TopXDim; IfcPositiveLengthMeasure::Out YDim; IfcLengthMeasure::Out TopXOffset; }; // C++ wrapper for IfcRelContainedInSpatialStructure struct IfcRelContainedInSpatialStructure : IfcRelConnects, ObjectHelper<IfcRelContainedInSpatialStructure,2> { IfcRelContainedInSpatialStructure() : Object("IfcRelContainedInSpatialStructure") {} ListOf< Lazy< IfcProduct >, 1, 0 > RelatedElements; Lazy< IfcSpatialStructureElement > RelatingStructure; }; // C++ wrapper for IfcEdgeLoop struct IfcEdgeLoop : IfcLoop, ObjectHelper<IfcEdgeLoop,1> { IfcEdgeLoop() : Object("IfcEdgeLoop") {} ListOf< Lazy< IfcOrientedEdge >, 1, 0 > EdgeList; }; // C++ wrapper for IfcProject struct IfcProject : IfcObject, ObjectHelper<IfcProject,4> { IfcProject() : Object("IfcProject") {} Maybe< IfcLabel::Out > LongName; Maybe< IfcLabel::Out > Phase; ListOf< Lazy< IfcRepresentationContext >, 1, 0 > RepresentationContexts; Lazy< IfcUnitAssignment > UnitsInContext; }; // C++ wrapper for IfcCartesianPoint struct IfcCartesianPoint : IfcPoint, ObjectHelper<IfcCartesianPoint,1> { IfcCartesianPoint() : Object("IfcCartesianPoint") {} ListOf< IfcLengthMeasure, 1, 3 >::Out Coordinates; }; // C++ wrapper for IfcCurveBoundedPlane struct IfcCurveBoundedPlane : IfcBoundedSurface, ObjectHelper<IfcCurveBoundedPlane,3> { IfcCurveBoundedPlane() : Object("IfcCurveBoundedPlane") {} Lazy< IfcPlane > BasisSurface; Lazy< IfcCurve > OuterBoundary; ListOf< Lazy< IfcCurve >, 0, 0 > InnerBoundaries; }; // C++ wrapper for IfcWallType struct IfcWallType : IfcBuildingElementType, ObjectHelper<IfcWallType,1> { IfcWallType() : Object("IfcWallType") {} IfcWallTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcFillAreaStyleHatching struct IfcFillAreaStyleHatching : IfcGeometricRepresentationItem, ObjectHelper<IfcFillAreaStyleHatching,5> { IfcFillAreaStyleHatching() : Object("IfcFillAreaStyleHatching") {} Lazy< NotImplemented > HatchLineAppearance; IfcHatchLineDistanceSelect::Out StartOfNextHatchLine; Maybe< Lazy< IfcCartesianPoint > > PointOfReferenceHatchLine; Maybe< Lazy< IfcCartesianPoint > > PatternStart; IfcPlaneAngleMeasure::Out HatchLineAngle; }; // C++ wrapper for IfcEquipmentStandard struct IfcEquipmentStandard : IfcControl, ObjectHelper<IfcEquipmentStandard,0> { IfcEquipmentStandard() : Object("IfcEquipmentStandard") {} }; // C++ wrapper for IfcDiameterDimension struct IfcDiameterDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcDiameterDimension,0> { IfcDiameterDimension() : Object("IfcDiameterDimension") {} }; // C++ wrapper for IfcStructuralLoadGroup struct IfcStructuralLoadGroup : IfcGroup, ObjectHelper<IfcStructuralLoadGroup,5> { IfcStructuralLoadGroup() : Object("IfcStructuralLoadGroup") {} IfcLoadGroupTypeEnum::Out PredefinedType; IfcActionTypeEnum::Out ActionType; IfcActionSourceTypeEnum::Out ActionSource; Maybe< IfcPositiveRatioMeasure::Out > Coefficient; Maybe< IfcLabel::Out > Purpose; }; // C++ wrapper for IfcConstructionMaterialResource struct IfcConstructionMaterialResource : IfcConstructionResource, ObjectHelper<IfcConstructionMaterialResource,2> { IfcConstructionMaterialResource() : Object("IfcConstructionMaterialResource") {} Maybe< ListOf< IfcActorSelect, 1, 0 >::Out > Suppliers; Maybe< IfcRatioMeasure::Out > UsageRatio; }; // C++ wrapper for IfcRelAggregates struct IfcRelAggregates : IfcRelDecomposes, ObjectHelper<IfcRelAggregates,0> { IfcRelAggregates() : Object("IfcRelAggregates") {} }; // C++ wrapper for IfcBoilerType struct IfcBoilerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcBoilerType,1> { IfcBoilerType() : Object("IfcBoilerType") {} IfcBoilerTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcColourSpecification struct IfcColourSpecification : ObjectHelper<IfcColourSpecification,1> { IfcColourSpecification() : Object("IfcColourSpecification") {} Maybe< IfcLabel::Out > Name; }; // C++ wrapper for IfcColourRgb struct IfcColourRgb : IfcColourSpecification, ObjectHelper<IfcColourRgb,3> { IfcColourRgb() : Object("IfcColourRgb") {} IfcNormalisedRatioMeasure::Out Red; IfcNormalisedRatioMeasure::Out Green; IfcNormalisedRatioMeasure::Out Blue; }; // C++ wrapper for IfcDoorStyle struct IfcDoorStyle : IfcTypeProduct, ObjectHelper<IfcDoorStyle,4> { IfcDoorStyle() : Object("IfcDoorStyle") {} IfcDoorStyleOperationEnum::Out OperationType; IfcDoorStyleConstructionEnum::Out ConstructionType; BOOLEAN::Out ParameterTakesPrecedence; BOOLEAN::Out Sizeable; }; // C++ wrapper for IfcDuctSilencerType struct IfcDuctSilencerType : IfcFlowTreatmentDeviceType, ObjectHelper<IfcDuctSilencerType,1> { IfcDuctSilencerType() : Object("IfcDuctSilencerType") {} IfcDuctSilencerTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcLightSourceGoniometric struct IfcLightSourceGoniometric : IfcLightSource, ObjectHelper<IfcLightSourceGoniometric,6> { IfcLightSourceGoniometric() : Object("IfcLightSourceGoniometric") {} Lazy< IfcAxis2Placement3D > Position; Maybe< Lazy< IfcColourRgb > > ColourAppearance; IfcThermodynamicTemperatureMeasure::Out ColourTemperature; IfcLuminousFluxMeasure::Out LuminousFlux; IfcLightEmissionSourceEnum::Out LightEmissionSource; IfcLightDistributionDataSourceSelect::Out LightDistributionDataSource; }; // C++ wrapper for IfcActuatorType struct IfcActuatorType : IfcDistributionControlElementType, ObjectHelper<IfcActuatorType,1> { IfcActuatorType() : Object("IfcActuatorType") {} IfcActuatorTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcSensorType struct IfcSensorType : IfcDistributionControlElementType, ObjectHelper<IfcSensorType,1> { IfcSensorType() : Object("IfcSensorType") {} IfcSensorTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcAirTerminalBoxType struct IfcAirTerminalBoxType : IfcFlowControllerType, ObjectHelper<IfcAirTerminalBoxType,1> { IfcAirTerminalBoxType() : Object("IfcAirTerminalBoxType") {} IfcAirTerminalBoxTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcAnnotationSurfaceOccurrence struct IfcAnnotationSurfaceOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationSurfaceOccurrence,0> { IfcAnnotationSurfaceOccurrence() : Object("IfcAnnotationSurfaceOccurrence") {} }; // C++ wrapper for IfcZShapeProfileDef struct IfcZShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcZShapeProfileDef,6> { IfcZShapeProfileDef() : Object("IfcZShapeProfileDef") {} IfcPositiveLengthMeasure::Out Depth; IfcPositiveLengthMeasure::Out FlangeWidth; IfcPositiveLengthMeasure::Out WebThickness; IfcPositiveLengthMeasure::Out FlangeThickness; Maybe< IfcPositiveLengthMeasure::Out > FilletRadius; Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius; }; // C++ wrapper for IfcRationalBezierCurve struct IfcRationalBezierCurve : IfcBezierCurve, ObjectHelper<IfcRationalBezierCurve,1> { IfcRationalBezierCurve() : Object("IfcRationalBezierCurve") {} ListOf< REAL, 2, 0 >::Out WeightsData; }; // C++ wrapper for IfcCartesianTransformationOperator2D struct IfcCartesianTransformationOperator2D : IfcCartesianTransformationOperator, ObjectHelper<IfcCartesianTransformationOperator2D,0> { IfcCartesianTransformationOperator2D() : Object("IfcCartesianTransformationOperator2D") {} }; // C++ wrapper for IfcCartesianTransformationOperator2DnonUniform struct IfcCartesianTransformationOperator2DnonUniform : IfcCartesianTransformationOperator2D, ObjectHelper<IfcCartesianTransformationOperator2DnonUniform,1> { IfcCartesianTransformationOperator2DnonUniform() : Object("IfcCartesianTransformationOperator2DnonUniform") {} Maybe< REAL::Out > Scale2; }; // C++ wrapper for IfcMove struct IfcMove : IfcTask, ObjectHelper<IfcMove,3> { IfcMove() : Object("IfcMove") {} Lazy< IfcSpatialStructureElement > MoveFrom; Lazy< IfcSpatialStructureElement > MoveTo; Maybe< ListOf< IfcText, 1, 0 >::Out > PunchList; }; // C++ wrapper for IfcCableCarrierSegmentType struct IfcCableCarrierSegmentType : IfcFlowSegmentType, ObjectHelper<IfcCableCarrierSegmentType,1> { IfcCableCarrierSegmentType() : Object("IfcCableCarrierSegmentType") {} IfcCableCarrierSegmentTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcElectricalElement struct IfcElectricalElement : IfcElement, ObjectHelper<IfcElectricalElement,0> { IfcElectricalElement() : Object("IfcElectricalElement") {} }; // C++ wrapper for IfcChillerType struct IfcChillerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcChillerType,1> { IfcChillerType() : Object("IfcChillerType") {} IfcChillerTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcReinforcingBar struct IfcReinforcingBar : IfcReinforcingElement, ObjectHelper<IfcReinforcingBar,5> { IfcReinforcingBar() : Object("IfcReinforcingBar") {} IfcPositiveLengthMeasure::Out NominalDiameter; IfcAreaMeasure::Out CrossSectionArea; Maybe< IfcPositiveLengthMeasure::Out > BarLength; IfcReinforcingBarRoleEnum::Out BarRole; Maybe< IfcReinforcingBarSurfaceEnum::Out > BarSurface; }; // C++ wrapper for IfcCShapeProfileDef struct IfcCShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcCShapeProfileDef,6> { IfcCShapeProfileDef() : Object("IfcCShapeProfileDef") {} IfcPositiveLengthMeasure::Out Depth; IfcPositiveLengthMeasure::Out Width; IfcPositiveLengthMeasure::Out WallThickness; IfcPositiveLengthMeasure::Out Girth; Maybe< IfcPositiveLengthMeasure::Out > InternalFilletRadius; Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX; }; // C++ wrapper for IfcPermit struct IfcPermit : IfcControl, ObjectHelper<IfcPermit,1> { IfcPermit() : Object("IfcPermit") {} IfcIdentifier::Out PermitID; }; // C++ wrapper for IfcSlabType struct IfcSlabType : IfcBuildingElementType, ObjectHelper<IfcSlabType,1> { IfcSlabType() : Object("IfcSlabType") {} IfcSlabTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcLampType struct IfcLampType : IfcFlowTerminalType, ObjectHelper<IfcLampType,1> { IfcLampType() : Object("IfcLampType") {} IfcLampTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcPlanarExtent struct IfcPlanarExtent : IfcGeometricRepresentationItem, ObjectHelper<IfcPlanarExtent,2> { IfcPlanarExtent() : Object("IfcPlanarExtent") {} IfcLengthMeasure::Out SizeInX; IfcLengthMeasure::Out SizeInY; }; // C++ wrapper for IfcAlarmType struct IfcAlarmType : IfcDistributionControlElementType, ObjectHelper<IfcAlarmType,1> { IfcAlarmType() : Object("IfcAlarmType") {} IfcAlarmTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcElectricFlowStorageDeviceType struct IfcElectricFlowStorageDeviceType : IfcFlowStorageDeviceType, ObjectHelper<IfcElectricFlowStorageDeviceType,1> { IfcElectricFlowStorageDeviceType() : Object("IfcElectricFlowStorageDeviceType") {} IfcElectricFlowStorageDeviceTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcEquipmentElement struct IfcEquipmentElement : IfcElement, ObjectHelper<IfcEquipmentElement,0> { IfcEquipmentElement() : Object("IfcEquipmentElement") {} }; // C++ wrapper for IfcLightFixtureType struct IfcLightFixtureType : IfcFlowTerminalType, ObjectHelper<IfcLightFixtureType,1> { IfcLightFixtureType() : Object("IfcLightFixtureType") {} IfcLightFixtureTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcCurtainWall struct IfcCurtainWall : IfcBuildingElement, ObjectHelper<IfcCurtainWall,0> { IfcCurtainWall() : Object("IfcCurtainWall") {} }; // C++ wrapper for IfcSlab struct IfcSlab : IfcBuildingElement, ObjectHelper<IfcSlab,1> { IfcSlab() : Object("IfcSlab") {} Maybe< IfcSlabTypeEnum::Out > PredefinedType; }; // C++ wrapper for IfcCurtainWallType struct IfcCurtainWallType : IfcBuildingElementType, ObjectHelper<IfcCurtainWallType,1> { IfcCurtainWallType() : Object("IfcCurtainWallType") {} IfcCurtainWallTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcOutletType struct IfcOutletType : IfcFlowTerminalType, ObjectHelper<IfcOutletType,1> { IfcOutletType() : Object("IfcOutletType") {} IfcOutletTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcCompressorType struct IfcCompressorType : IfcFlowMovingDeviceType, ObjectHelper<IfcCompressorType,1> { IfcCompressorType() : Object("IfcCompressorType") {} IfcCompressorTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcCraneRailAShapeProfileDef struct IfcCraneRailAShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcCraneRailAShapeProfileDef,12> { IfcCraneRailAShapeProfileDef() : Object("IfcCraneRailAShapeProfileDef") {} IfcPositiveLengthMeasure::Out OverallHeight; IfcPositiveLengthMeasure::Out BaseWidth2; Maybe< IfcPositiveLengthMeasure::Out > Radius; IfcPositiveLengthMeasure::Out HeadWidth; IfcPositiveLengthMeasure::Out HeadDepth2; IfcPositiveLengthMeasure::Out HeadDepth3; IfcPositiveLengthMeasure::Out WebThickness; IfcPositiveLengthMeasure::Out BaseWidth4; IfcPositiveLengthMeasure::Out BaseDepth1; IfcPositiveLengthMeasure::Out BaseDepth2; IfcPositiveLengthMeasure::Out BaseDepth3; Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY; }; // C++ wrapper for IfcFlowSegment struct IfcFlowSegment : IfcDistributionFlowElement, ObjectHelper<IfcFlowSegment,0> { IfcFlowSegment() : Object("IfcFlowSegment") {} }; // C++ wrapper for IfcSectionedSpine struct IfcSectionedSpine : IfcGeometricRepresentationItem, ObjectHelper<IfcSectionedSpine,3> { IfcSectionedSpine() : Object("IfcSectionedSpine") {} Lazy< IfcCompositeCurve > SpineCurve; ListOf< Lazy< IfcProfileDef >, 2, 0 > CrossSections; ListOf< Lazy< IfcAxis2Placement3D >, 2, 0 > CrossSectionPositions; }; // C++ wrapper for IfcElectricTimeControlType struct IfcElectricTimeControlType : IfcFlowControllerType, ObjectHelper<IfcElectricTimeControlType,1> { IfcElectricTimeControlType() : Object("IfcElectricTimeControlType") {} IfcElectricTimeControlTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcFaceSurface struct IfcFaceSurface : IfcFace, ObjectHelper<IfcFaceSurface,2> { IfcFaceSurface() : Object("IfcFaceSurface") {} Lazy< IfcSurface > FaceSurface; BOOLEAN::Out SameSense; }; // C++ wrapper for IfcMotorConnectionType struct IfcMotorConnectionType : IfcEnergyConversionDeviceType, ObjectHelper<IfcMotorConnectionType,1> { IfcMotorConnectionType() : Object("IfcMotorConnectionType") {} IfcMotorConnectionTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcFlowFitting struct IfcFlowFitting : IfcDistributionFlowElement, ObjectHelper<IfcFlowFitting,0> { IfcFlowFitting() : Object("IfcFlowFitting") {} }; // C++ wrapper for IfcPointOnCurve struct IfcPointOnCurve : IfcPoint, ObjectHelper<IfcPointOnCurve,2> { IfcPointOnCurve() : Object("IfcPointOnCurve") {} Lazy< IfcCurve > BasisCurve; IfcParameterValue::Out PointParameter; }; // C++ wrapper for IfcTransportElementType struct IfcTransportElementType : IfcElementType, ObjectHelper<IfcTransportElementType,1> { IfcTransportElementType() : Object("IfcTransportElementType") {} IfcTransportElementTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcCableSegmentType struct IfcCableSegmentType : IfcFlowSegmentType, ObjectHelper<IfcCableSegmentType,1> { IfcCableSegmentType() : Object("IfcCableSegmentType") {} IfcCableSegmentTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcAnnotationSurface struct IfcAnnotationSurface : IfcGeometricRepresentationItem, ObjectHelper<IfcAnnotationSurface,2> { IfcAnnotationSurface() : Object("IfcAnnotationSurface") {} Lazy< IfcGeometricRepresentationItem > Item; Maybe< Lazy< NotImplemented > > TextureCoordinates; }; // C++ wrapper for IfcCompositeCurveSegment struct IfcCompositeCurveSegment : IfcGeometricRepresentationItem, ObjectHelper<IfcCompositeCurveSegment,3> { IfcCompositeCurveSegment() : Object("IfcCompositeCurveSegment") {} IfcTransitionCode::Out Transition; BOOLEAN::Out SameSense; Lazy< IfcCurve > ParentCurve; }; // C++ wrapper for IfcServiceLife struct IfcServiceLife : IfcControl, ObjectHelper<IfcServiceLife,2> { IfcServiceLife() : Object("IfcServiceLife") {} IfcServiceLifeTypeEnum::Out ServiceLifeType; IfcTimeMeasure::Out ServiceLifeDuration; }; // C++ wrapper for IfcPlateType struct IfcPlateType : IfcBuildingElementType, ObjectHelper<IfcPlateType,1> { IfcPlateType() : Object("IfcPlateType") {} IfcPlateTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcVibrationIsolatorType struct IfcVibrationIsolatorType : IfcDiscreteAccessoryType, ObjectHelper<IfcVibrationIsolatorType,1> { IfcVibrationIsolatorType() : Object("IfcVibrationIsolatorType") {} IfcVibrationIsolatorTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcTrimmedCurve struct IfcTrimmedCurve : IfcBoundedCurve, ObjectHelper<IfcTrimmedCurve,5> { IfcTrimmedCurve() : Object("IfcTrimmedCurve") {} Lazy< IfcCurve > BasisCurve; ListOf< IfcTrimmingSelect, 1, 2 >::Out Trim1; ListOf< IfcTrimmingSelect, 1, 2 >::Out Trim2; BOOLEAN::Out SenseAgreement; IfcTrimmingPreference::Out MasterRepresentation; }; // C++ wrapper for IfcMappedItem struct IfcMappedItem : IfcRepresentationItem, ObjectHelper<IfcMappedItem,2> { IfcMappedItem() : Object("IfcMappedItem") {} Lazy< IfcRepresentationMap > MappingSource; Lazy< IfcCartesianTransformationOperator > MappingTarget; }; // C++ wrapper for IfcDirection struct IfcDirection : IfcGeometricRepresentationItem, ObjectHelper<IfcDirection,1> { IfcDirection() : Object("IfcDirection") {} ListOf< REAL, 2, 3 >::Out DirectionRatios; }; // C++ wrapper for IfcBlock struct IfcBlock : IfcCsgPrimitive3D, ObjectHelper<IfcBlock,3> { IfcBlock() : Object("IfcBlock") {} IfcPositiveLengthMeasure::Out XLength; IfcPositiveLengthMeasure::Out YLength; IfcPositiveLengthMeasure::Out ZLength; }; // C++ wrapper for IfcProjectOrderRecord struct IfcProjectOrderRecord : IfcControl, ObjectHelper<IfcProjectOrderRecord,2> { IfcProjectOrderRecord() : Object("IfcProjectOrderRecord") {} ListOf< Lazy< NotImplemented >, 1, 0 > Records; IfcProjectOrderRecordTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcFlowMeterType struct IfcFlowMeterType : IfcFlowControllerType, ObjectHelper<IfcFlowMeterType,1> { IfcFlowMeterType() : Object("IfcFlowMeterType") {} IfcFlowMeterTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcControllerType struct IfcControllerType : IfcDistributionControlElementType, ObjectHelper<IfcControllerType,1> { IfcControllerType() : Object("IfcControllerType") {} IfcControllerTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcBeam struct IfcBeam : IfcBuildingElement, ObjectHelper<IfcBeam,0> { IfcBeam() : Object("IfcBeam") {} }; // C++ wrapper for IfcArbitraryOpenProfileDef struct IfcArbitraryOpenProfileDef : IfcProfileDef, ObjectHelper<IfcArbitraryOpenProfileDef,1> { IfcArbitraryOpenProfileDef() : Object("IfcArbitraryOpenProfileDef") {} Lazy< IfcBoundedCurve > Curve; }; // C++ wrapper for IfcCenterLineProfileDef struct IfcCenterLineProfileDef : IfcArbitraryOpenProfileDef, ObjectHelper<IfcCenterLineProfileDef,1> { IfcCenterLineProfileDef() : Object("IfcCenterLineProfileDef") {} IfcPositiveLengthMeasure::Out Thickness; }; // C++ wrapper for IfcTimeSeriesSchedule struct IfcTimeSeriesSchedule : IfcControl, ObjectHelper<IfcTimeSeriesSchedule,3> { IfcTimeSeriesSchedule() : Object("IfcTimeSeriesSchedule") {} Maybe< ListOf< IfcDateTimeSelect, 1, 0 >::Out > ApplicableDates; IfcTimeSeriesScheduleTypeEnum::Out TimeSeriesScheduleType; Lazy< NotImplemented > TimeSeries; }; // C++ wrapper for IfcRoundedEdgeFeature struct IfcRoundedEdgeFeature : IfcEdgeFeature, ObjectHelper<IfcRoundedEdgeFeature,1> { IfcRoundedEdgeFeature() : Object("IfcRoundedEdgeFeature") {} Maybe< IfcPositiveLengthMeasure::Out > Radius; }; // C++ wrapper for IfcIShapeProfileDef struct IfcIShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcIShapeProfileDef,5> { IfcIShapeProfileDef() : Object("IfcIShapeProfileDef") {} IfcPositiveLengthMeasure::Out OverallWidth; IfcPositiveLengthMeasure::Out OverallDepth; IfcPositiveLengthMeasure::Out WebThickness; IfcPositiveLengthMeasure::Out FlangeThickness; Maybe< IfcPositiveLengthMeasure::Out > FilletRadius; }; // C++ wrapper for IfcSpaceHeaterType struct IfcSpaceHeaterType : IfcEnergyConversionDeviceType, ObjectHelper<IfcSpaceHeaterType,1> { IfcSpaceHeaterType() : Object("IfcSpaceHeaterType") {} IfcSpaceHeaterTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcFlowStorageDevice struct IfcFlowStorageDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowStorageDevice,0> { IfcFlowStorageDevice() : Object("IfcFlowStorageDevice") {} }; // C++ wrapper for IfcRevolvedAreaSolid struct IfcRevolvedAreaSolid : IfcSweptAreaSolid, ObjectHelper<IfcRevolvedAreaSolid,2> { IfcRevolvedAreaSolid() : Object("IfcRevolvedAreaSolid") {} Lazy< IfcAxis1Placement > Axis; IfcPlaneAngleMeasure::Out Angle; }; // C++ wrapper for IfcDoor struct IfcDoor : IfcBuildingElement, ObjectHelper<IfcDoor,2> { IfcDoor() : Object("IfcDoor") {} Maybe< IfcPositiveLengthMeasure::Out > OverallHeight; Maybe< IfcPositiveLengthMeasure::Out > OverallWidth; }; // C++ wrapper for IfcEllipse struct IfcEllipse : IfcConic, ObjectHelper<IfcEllipse,2> { IfcEllipse() : Object("IfcEllipse") {} IfcPositiveLengthMeasure::Out SemiAxis1; IfcPositiveLengthMeasure::Out SemiAxis2; }; // C++ wrapper for IfcTubeBundleType struct IfcTubeBundleType : IfcEnergyConversionDeviceType, ObjectHelper<IfcTubeBundleType,1> { IfcTubeBundleType() : Object("IfcTubeBundleType") {} IfcTubeBundleTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcAngularDimension struct IfcAngularDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcAngularDimension,0> { IfcAngularDimension() : Object("IfcAngularDimension") {} }; // C++ wrapper for IfcFaceBasedSurfaceModel struct IfcFaceBasedSurfaceModel : IfcGeometricRepresentationItem, ObjectHelper<IfcFaceBasedSurfaceModel,1> { IfcFaceBasedSurfaceModel() : Object("IfcFaceBasedSurfaceModel") {} ListOf< Lazy< IfcConnectedFaceSet >, 1, 0 > FbsmFaces; }; // C++ wrapper for IfcCraneRailFShapeProfileDef struct IfcCraneRailFShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcCraneRailFShapeProfileDef,9> { IfcCraneRailFShapeProfileDef() : Object("IfcCraneRailFShapeProfileDef") {} IfcPositiveLengthMeasure::Out OverallHeight; IfcPositiveLengthMeasure::Out HeadWidth; Maybe< IfcPositiveLengthMeasure::Out > Radius; IfcPositiveLengthMeasure::Out HeadDepth2; IfcPositiveLengthMeasure::Out HeadDepth3; IfcPositiveLengthMeasure::Out WebThickness; IfcPositiveLengthMeasure::Out BaseDepth1; IfcPositiveLengthMeasure::Out BaseDepth2; Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY; }; // C++ wrapper for IfcColumnType struct IfcColumnType : IfcBuildingElementType, ObjectHelper<IfcColumnType,1> { IfcColumnType() : Object("IfcColumnType") {} IfcColumnTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcTShapeProfileDef struct IfcTShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcTShapeProfileDef,10> { IfcTShapeProfileDef() : Object("IfcTShapeProfileDef") {} IfcPositiveLengthMeasure::Out Depth; IfcPositiveLengthMeasure::Out FlangeWidth; IfcPositiveLengthMeasure::Out WebThickness; IfcPositiveLengthMeasure::Out FlangeThickness; Maybe< IfcPositiveLengthMeasure::Out > FilletRadius; Maybe< IfcPositiveLengthMeasure::Out > FlangeEdgeRadius; Maybe< IfcPositiveLengthMeasure::Out > WebEdgeRadius; Maybe< IfcPlaneAngleMeasure::Out > WebSlope; Maybe< IfcPlaneAngleMeasure::Out > FlangeSlope; Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY; }; // C++ wrapper for IfcEnergyConversionDevice struct IfcEnergyConversionDevice : IfcDistributionFlowElement, ObjectHelper<IfcEnergyConversionDevice,0> { IfcEnergyConversionDevice() : Object("IfcEnergyConversionDevice") {} }; // C++ wrapper for IfcWorkSchedule struct IfcWorkSchedule : IfcWorkControl, ObjectHelper<IfcWorkSchedule,0> { IfcWorkSchedule() : Object("IfcWorkSchedule") {} }; // C++ wrapper for IfcZone struct IfcZone : IfcGroup, ObjectHelper<IfcZone,0> { IfcZone() : Object("IfcZone") {} }; // C++ wrapper for IfcTransportElement struct IfcTransportElement : IfcElement, ObjectHelper<IfcTransportElement,3> { IfcTransportElement() : Object("IfcTransportElement") {} Maybe< IfcTransportElementTypeEnum::Out > OperationType; Maybe< IfcMassMeasure::Out > CapacityByWeight; Maybe< IfcCountMeasure::Out > CapacityByNumber; }; // C++ wrapper for IfcGeometricRepresentationSubContext struct IfcGeometricRepresentationSubContext : IfcGeometricRepresentationContext, ObjectHelper<IfcGeometricRepresentationSubContext,4> { IfcGeometricRepresentationSubContext() : Object("IfcGeometricRepresentationSubContext") {} Lazy< IfcGeometricRepresentationContext > ParentContext; Maybe< IfcPositiveRatioMeasure::Out > TargetScale; IfcGeometricProjectionEnum::Out TargetView; Maybe< IfcLabel::Out > UserDefinedTargetView; }; // C++ wrapper for IfcLShapeProfileDef struct IfcLShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcLShapeProfileDef,8> { IfcLShapeProfileDef() : Object("IfcLShapeProfileDef") {} IfcPositiveLengthMeasure::Out Depth; Maybe< IfcPositiveLengthMeasure::Out > Width; IfcPositiveLengthMeasure::Out Thickness; Maybe< IfcPositiveLengthMeasure::Out > FilletRadius; Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius; Maybe< IfcPlaneAngleMeasure::Out > LegSlope; Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX; Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY; }; // C++ wrapper for IfcGeometricCurveSet struct IfcGeometricCurveSet : IfcGeometricSet, ObjectHelper<IfcGeometricCurveSet,0> { IfcGeometricCurveSet() : Object("IfcGeometricCurveSet") {} }; // C++ wrapper for IfcActor struct IfcActor : IfcObject, ObjectHelper<IfcActor,1> { IfcActor() : Object("IfcActor") {} IfcActorSelect::Out TheActor; }; // C++ wrapper for IfcOccupant struct IfcOccupant : IfcActor, ObjectHelper<IfcOccupant,1> { IfcOccupant() : Object("IfcOccupant") {} IfcOccupantTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcBooleanClippingResult struct IfcBooleanClippingResult : IfcBooleanResult, ObjectHelper<IfcBooleanClippingResult,0> { IfcBooleanClippingResult() : Object("IfcBooleanClippingResult") {} }; // C++ wrapper for IfcAnnotationFillArea struct IfcAnnotationFillArea : IfcGeometricRepresentationItem, ObjectHelper<IfcAnnotationFillArea,2> { IfcAnnotationFillArea() : Object("IfcAnnotationFillArea") {} Lazy< IfcCurve > OuterBoundary; Maybe< ListOf< Lazy< IfcCurve >, 1, 0 > > InnerBoundaries; }; // C++ wrapper for IfcLightSourceSpot struct IfcLightSourceSpot : IfcLightSourcePositional, ObjectHelper<IfcLightSourceSpot,4> { IfcLightSourceSpot() : Object("IfcLightSourceSpot") {} Lazy< IfcDirection > Orientation; Maybe< IfcReal::Out > ConcentrationExponent; IfcPositivePlaneAngleMeasure::Out SpreadAngle; IfcPositivePlaneAngleMeasure::Out BeamWidthAngle; }; // C++ wrapper for IfcFireSuppressionTerminalType struct IfcFireSuppressionTerminalType : IfcFlowTerminalType, ObjectHelper<IfcFireSuppressionTerminalType,1> { IfcFireSuppressionTerminalType() : Object("IfcFireSuppressionTerminalType") {} IfcFireSuppressionTerminalTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcElectricGeneratorType struct IfcElectricGeneratorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcElectricGeneratorType,1> { IfcElectricGeneratorType() : Object("IfcElectricGeneratorType") {} IfcElectricGeneratorTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcInventory struct IfcInventory : IfcGroup, ObjectHelper<IfcInventory,6> { IfcInventory() : Object("IfcInventory") {} IfcInventoryTypeEnum::Out InventoryType; IfcActorSelect::Out Jurisdiction; ListOf< Lazy< NotImplemented >, 1, 0 > ResponsiblePersons; Lazy< NotImplemented > LastUpdateDate; Maybe< Lazy< NotImplemented > > CurrentValue; Maybe< Lazy< NotImplemented > > OriginalValue; }; // C++ wrapper for IfcPolyline struct IfcPolyline : IfcBoundedCurve, ObjectHelper<IfcPolyline,1> { IfcPolyline() : Object("IfcPolyline") {} ListOf< Lazy< IfcCartesianPoint >, 2, 0 > Points; }; // C++ wrapper for IfcBoxedHalfSpace struct IfcBoxedHalfSpace : IfcHalfSpaceSolid, ObjectHelper<IfcBoxedHalfSpace,1> { IfcBoxedHalfSpace() : Object("IfcBoxedHalfSpace") {} Lazy< IfcBoundingBox > Enclosure; }; // C++ wrapper for IfcAirTerminalType struct IfcAirTerminalType : IfcFlowTerminalType, ObjectHelper<IfcAirTerminalType,1> { IfcAirTerminalType() : Object("IfcAirTerminalType") {} IfcAirTerminalTypeEnum::Out PredefinedType; }; // C++ wrapper for IfcDistributionPort struct IfcDistributionPort : IfcPort, ObjectHelper<IfcDistributionPort,1> { IfcDistributionPort() : Object("IfcDistributionPort") {} Maybe< IfcFlowDirectionEnum::Out > FlowDirection; }; // C++ wrapper for IfcCostItem struct IfcCostItem : IfcControl, ObjectHelper<IfcCostItem,0> { IfcCostItem() : Object("IfcCostItem") {} }; // C++ wrapper for IfcStructuredDimensionCallout struct IfcStructuredDimensionCallout : IfcDraughtingCallout, ObjectHelper<IfcStructuredDimensionCallout,0> { IfcStructuredDimensionCallout() : Object("IfcStructuredDimensionCallout") {} }; // C++ wrapper for IfcStructuralResultGroup struct IfcStructuralResultGroup : IfcGroup, ObjectHelper<IfcStructuralResultGroup,3> { IfcStructuralResultGroup() : Object("IfcStructuralResultGroup") {} IfcAnalysisTheoryTypeEnum::Out TheoryType; Maybe< Lazy< IfcStructuralLoadGroup > > ResultForLoadGroup; BOOLEAN::Out IsLinear; }; // C++ wrapper for IfcOrientedEdge struct IfcOrientedEdge : IfcEdge, ObjectHelper<IfcOrientedEdge,2> { IfcOrientedEdge() : Object("IfcOrientedEdge") {} Lazy< IfcEdge > EdgeElement; BOOLEAN::Out Orientation; }; // C++ wrapper for IfcCsgSolid struct IfcCsgSolid : IfcSolidModel, ObjectHelper<IfcCsgSolid,1> { IfcCsgSolid() : Object("IfcCsgSolid") {} IfcCsgSelect::Out TreeRootExpression; }; // C++ wrapper for IfcPlanarBox struct IfcPlanarBox : IfcPlanarExtent, ObjectHelper<IfcPlanarBox,1> { IfcPlanarBox() : Object("IfcPlanarBox") {} IfcAxis2Placement::Out Placement; }; // C++ wrapper for IfcMaterialDefinitionRepresentation struct IfcMaterialDefinitionRepresentation : IfcProductRepresentation, ObjectHelper<IfcMaterialDefinitionRepresentation,1> { IfcMaterialDefinitionRepresentation() : Object("IfcMaterialDefinitionRepresentation") {} Lazy< NotImplemented > RepresentedMaterial; }; // C++ wrapper for IfcAsymmetricIShapeProfileDef struct IfcAsymmetricIShapeProfileDef : IfcIShapeProfileDef, ObjectHelper<IfcAsymmetricIShapeProfileDef,4> { IfcAsymmetricIShapeProfileDef() : Object("IfcAsymmetricIShapeProfileDef") {} IfcPositiveLengthMeasure::Out TopFlangeWidth; Maybe< IfcPositiveLengthMeasure::Out > TopFlangeThickness; Maybe< IfcPositiveLengthMeasure::Out > TopFlangeFilletRadius; Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY; }; // C++ wrapper for IfcRepresentationMap struct IfcRepresentationMap : ObjectHelper<IfcRepresentationMap,2> { IfcRepresentationMap() : Object("IfcRepresentationMap") {} IfcAxis2Placement::Out MappingOrigin; Lazy< IfcRepresentation > MappedRepresentation; }; void GetSchema(EXPRESS::ConversionSchema& out); } //! IFC namespace STEP { // ****************************************************************************** // Converter stubs // ****************************************************************************** #define DECL_CONV_STUB(type) template <> size_t GenericFill<IFC::type>(const STEP::DB& db, const EXPRESS::LIST& params, IFC::type* in) DECL_CONV_STUB(IfcRoot); DECL_CONV_STUB(IfcObjectDefinition); DECL_CONV_STUB(IfcTypeObject); DECL_CONV_STUB(IfcTypeProduct); DECL_CONV_STUB(IfcElementType); DECL_CONV_STUB(IfcFurnishingElementType); DECL_CONV_STUB(IfcFurnitureType); DECL_CONV_STUB(IfcObject); DECL_CONV_STUB(IfcProduct); DECL_CONV_STUB(IfcGrid); DECL_CONV_STUB(IfcRepresentationItem); DECL_CONV_STUB(IfcGeometricRepresentationItem); DECL_CONV_STUB(IfcOneDirectionRepeatFactor); DECL_CONV_STUB(IfcTwoDirectionRepeatFactor); DECL_CONV_STUB(IfcElement); DECL_CONV_STUB(IfcElementComponent); DECL_CONV_STUB(IfcSpatialStructureElementType); DECL_CONV_STUB(IfcControl); DECL_CONV_STUB(IfcActionRequest); DECL_CONV_STUB(IfcDistributionElementType); DECL_CONV_STUB(IfcDistributionFlowElementType); DECL_CONV_STUB(IfcEnergyConversionDeviceType); DECL_CONV_STUB(IfcCooledBeamType); DECL_CONV_STUB(IfcCsgPrimitive3D); DECL_CONV_STUB(IfcRectangularPyramid); DECL_CONV_STUB(IfcSurface); DECL_CONV_STUB(IfcBoundedSurface); DECL_CONV_STUB(IfcRectangularTrimmedSurface); DECL_CONV_STUB(IfcGroup); DECL_CONV_STUB(IfcRelationship); DECL_CONV_STUB(IfcHalfSpaceSolid); DECL_CONV_STUB(IfcPolygonalBoundedHalfSpace); DECL_CONV_STUB(IfcAirToAirHeatRecoveryType); DECL_CONV_STUB(IfcFlowFittingType); DECL_CONV_STUB(IfcPipeFittingType); DECL_CONV_STUB(IfcRepresentation); DECL_CONV_STUB(IfcStyleModel); DECL_CONV_STUB(IfcStyledRepresentation); DECL_CONV_STUB(IfcBooleanResult); DECL_CONV_STUB(IfcFeatureElement); DECL_CONV_STUB(IfcFeatureElementSubtraction); DECL_CONV_STUB(IfcOpeningElement); DECL_CONV_STUB(IfcConditionCriterion); DECL_CONV_STUB(IfcFlowTerminalType); DECL_CONV_STUB(IfcFlowControllerType); DECL_CONV_STUB(IfcSwitchingDeviceType); DECL_CONV_STUB(IfcSystem); DECL_CONV_STUB(IfcElectricalCircuit); DECL_CONV_STUB(IfcUnitaryEquipmentType); DECL_CONV_STUB(IfcPort); DECL_CONV_STUB(IfcPlacement); DECL_CONV_STUB(IfcProfileDef); DECL_CONV_STUB(IfcArbitraryClosedProfileDef); DECL_CONV_STUB(IfcCurve); DECL_CONV_STUB(IfcConic); DECL_CONV_STUB(IfcCircle); DECL_CONV_STUB(IfcElementarySurface); DECL_CONV_STUB(IfcPlane); DECL_CONV_STUB(IfcCostSchedule); DECL_CONV_STUB(IfcRightCircularCone); DECL_CONV_STUB(IfcElementAssembly); DECL_CONV_STUB(IfcBuildingElement); DECL_CONV_STUB(IfcMember); DECL_CONV_STUB(IfcBuildingElementProxy); DECL_CONV_STUB(IfcStructuralActivity); DECL_CONV_STUB(IfcStructuralAction); DECL_CONV_STUB(IfcStructuralPlanarAction); DECL_CONV_STUB(IfcTopologicalRepresentationItem); DECL_CONV_STUB(IfcConnectedFaceSet); DECL_CONV_STUB(IfcSweptSurface); DECL_CONV_STUB(IfcSurfaceOfLinearExtrusion); DECL_CONV_STUB(IfcArbitraryProfileDefWithVoids); DECL_CONV_STUB(IfcProcess); DECL_CONV_STUB(IfcProcedure); DECL_CONV_STUB(IfcVector); DECL_CONV_STUB(IfcFaceBound); DECL_CONV_STUB(IfcFaceOuterBound); DECL_CONV_STUB(IfcFeatureElementAddition); DECL_CONV_STUB(IfcNamedUnit); DECL_CONV_STUB(IfcConversionBasedUnit); DECL_CONV_STUB(IfcHeatExchangerType); DECL_CONV_STUB(IfcPresentationStyleAssignment); DECL_CONV_STUB(IfcFlowTreatmentDeviceType); DECL_CONV_STUB(IfcFilterType); DECL_CONV_STUB(IfcResource); DECL_CONV_STUB(IfcEvaporativeCoolerType); DECL_CONV_STUB(IfcOffsetCurve2D); DECL_CONV_STUB(IfcEdge); DECL_CONV_STUB(IfcSubedge); DECL_CONV_STUB(IfcProxy); DECL_CONV_STUB(IfcLine); DECL_CONV_STUB(IfcColumn); DECL_CONV_STUB(IfcObjectPlacement); DECL_CONV_STUB(IfcGridPlacement); DECL_CONV_STUB(IfcDistributionControlElementType); DECL_CONV_STUB(IfcRelConnects); DECL_CONV_STUB(IfcAnnotation); DECL_CONV_STUB(IfcPlate); DECL_CONV_STUB(IfcSolidModel); DECL_CONV_STUB(IfcManifoldSolidBrep); DECL_CONV_STUB(IfcFlowStorageDeviceType); DECL_CONV_STUB(IfcStructuralItem); DECL_CONV_STUB(IfcStructuralMember); DECL_CONV_STUB(IfcStructuralCurveMember); DECL_CONV_STUB(IfcStructuralConnection); DECL_CONV_STUB(IfcStructuralSurfaceConnection); DECL_CONV_STUB(IfcCoilType); DECL_CONV_STUB(IfcDuctFittingType); DECL_CONV_STUB(IfcStyledItem); DECL_CONV_STUB(IfcAnnotationOccurrence); DECL_CONV_STUB(IfcAnnotationCurveOccurrence); DECL_CONV_STUB(IfcDimensionCurve); DECL_CONV_STUB(IfcBoundedCurve); DECL_CONV_STUB(IfcAxis1Placement); DECL_CONV_STUB(IfcStructuralPointAction); DECL_CONV_STUB(IfcSpatialStructureElement); DECL_CONV_STUB(IfcSpace); DECL_CONV_STUB(IfcCoolingTowerType); DECL_CONV_STUB(IfcFacetedBrepWithVoids); DECL_CONV_STUB(IfcValveType); DECL_CONV_STUB(IfcSystemFurnitureElementType); DECL_CONV_STUB(IfcDiscreteAccessory); DECL_CONV_STUB(IfcBuildingElementType); DECL_CONV_STUB(IfcRailingType); DECL_CONV_STUB(IfcGasTerminalType); DECL_CONV_STUB(IfcSpaceProgram); DECL_CONV_STUB(IfcCovering); DECL_CONV_STUB(IfcPresentationStyle); DECL_CONV_STUB(IfcElectricHeaterType); DECL_CONV_STUB(IfcBuildingStorey); DECL_CONV_STUB(IfcVertex); DECL_CONV_STUB(IfcVertexPoint); DECL_CONV_STUB(IfcFlowInstrumentType); DECL_CONV_STUB(IfcParameterizedProfileDef); DECL_CONV_STUB(IfcUShapeProfileDef); DECL_CONV_STUB(IfcRamp); DECL_CONV_STUB(IfcCompositeCurve); DECL_CONV_STUB(IfcStructuralCurveMemberVarying); DECL_CONV_STUB(IfcRampFlightType); DECL_CONV_STUB(IfcDraughtingCallout); DECL_CONV_STUB(IfcDimensionCurveDirectedCallout); DECL_CONV_STUB(IfcRadiusDimension); DECL_CONV_STUB(IfcEdgeFeature); DECL_CONV_STUB(IfcSweptAreaSolid); DECL_CONV_STUB(IfcExtrudedAreaSolid); DECL_CONV_STUB(IfcAnnotationTextOccurrence); DECL_CONV_STUB(IfcStair); DECL_CONV_STUB(IfcFillAreaStyleTileSymbolWithStyle); DECL_CONV_STUB(IfcAnnotationSymbolOccurrence); DECL_CONV_STUB(IfcTerminatorSymbol); DECL_CONV_STUB(IfcDimensionCurveTerminator); DECL_CONV_STUB(IfcRectangleProfileDef); DECL_CONV_STUB(IfcRectangleHollowProfileDef); DECL_CONV_STUB(IfcLocalPlacement); DECL_CONV_STUB(IfcTask); DECL_CONV_STUB(IfcAnnotationFillAreaOccurrence); DECL_CONV_STUB(IfcFace); DECL_CONV_STUB(IfcFlowSegmentType); DECL_CONV_STUB(IfcDuctSegmentType); DECL_CONV_STUB(IfcConstructionResource); DECL_CONV_STUB(IfcConstructionEquipmentResource); DECL_CONV_STUB(IfcSanitaryTerminalType); DECL_CONV_STUB(IfcCircleProfileDef); DECL_CONV_STUB(IfcStructuralReaction); DECL_CONV_STUB(IfcStructuralPointReaction); DECL_CONV_STUB(IfcRailing); DECL_CONV_STUB(IfcTextLiteral); DECL_CONV_STUB(IfcCartesianTransformationOperator); DECL_CONV_STUB(IfcLinearDimension); DECL_CONV_STUB(IfcDamperType); DECL_CONV_STUB(IfcSIUnit); DECL_CONV_STUB(IfcMeasureWithUnit); DECL_CONV_STUB(IfcDistributionElement); DECL_CONV_STUB(IfcDistributionControlElement); DECL_CONV_STUB(IfcTransformerType); DECL_CONV_STUB(IfcLaborResource); DECL_CONV_STUB(IfcFurnitureStandard); DECL_CONV_STUB(IfcStairFlightType); DECL_CONV_STUB(IfcWorkControl); DECL_CONV_STUB(IfcWorkPlan); DECL_CONV_STUB(IfcCondition); DECL_CONV_STUB(IfcRelVoidsElement); DECL_CONV_STUB(IfcWindow); DECL_CONV_STUB(IfcProtectiveDeviceType); DECL_CONV_STUB(IfcJunctionBoxType); DECL_CONV_STUB(IfcStructuralAnalysisModel); DECL_CONV_STUB(IfcAxis2Placement2D); DECL_CONV_STUB(IfcSpaceType); DECL_CONV_STUB(IfcEllipseProfileDef); DECL_CONV_STUB(IfcDistributionFlowElement); DECL_CONV_STUB(IfcFlowMovingDevice); DECL_CONV_STUB(IfcSurfaceStyleWithTextures); DECL_CONV_STUB(IfcGeometricSet); DECL_CONV_STUB(IfcProjectOrder); DECL_CONV_STUB(IfcBSplineCurve); DECL_CONV_STUB(IfcBezierCurve); DECL_CONV_STUB(IfcStructuralPointConnection); DECL_CONV_STUB(IfcFlowController); DECL_CONV_STUB(IfcElectricDistributionPoint); DECL_CONV_STUB(IfcSite); DECL_CONV_STUB(IfcOffsetCurve3D); DECL_CONV_STUB(IfcVirtualElement); DECL_CONV_STUB(IfcConstructionProductResource); DECL_CONV_STUB(IfcSurfaceCurveSweptAreaSolid); DECL_CONV_STUB(IfcCartesianTransformationOperator3D); DECL_CONV_STUB(IfcCartesianTransformationOperator3DnonUniform); DECL_CONV_STUB(IfcCrewResource); DECL_CONV_STUB(IfcStructuralSurfaceMember); DECL_CONV_STUB(Ifc2DCompositeCurve); DECL_CONV_STUB(IfcRepresentationContext); DECL_CONV_STUB(IfcGeometricRepresentationContext); DECL_CONV_STUB(IfcFlowTreatmentDevice); DECL_CONV_STUB(IfcRightCircularCylinder); DECL_CONV_STUB(IfcWasteTerminalType); DECL_CONV_STUB(IfcBuildingElementComponent); DECL_CONV_STUB(IfcBuildingElementPart); DECL_CONV_STUB(IfcWall); DECL_CONV_STUB(IfcWallStandardCase); DECL_CONV_STUB(IfcPath); DECL_CONV_STUB(IfcDefinedSymbol); DECL_CONV_STUB(IfcStructuralSurfaceMemberVarying); DECL_CONV_STUB(IfcPoint); DECL_CONV_STUB(IfcSurfaceOfRevolution); DECL_CONV_STUB(IfcFlowTerminal); DECL_CONV_STUB(IfcFurnishingElement); DECL_CONV_STUB(IfcSurfaceStyleShading); DECL_CONV_STUB(IfcSurfaceStyleRendering); DECL_CONV_STUB(IfcCircleHollowProfileDef); DECL_CONV_STUB(IfcFlowMovingDeviceType); DECL_CONV_STUB(IfcFanType); DECL_CONV_STUB(IfcStructuralPlanarActionVarying); DECL_CONV_STUB(IfcProductRepresentation); DECL_CONV_STUB(IfcStackTerminalType); DECL_CONV_STUB(IfcReinforcingElement); DECL_CONV_STUB(IfcReinforcingMesh); DECL_CONV_STUB(IfcOrderAction); DECL_CONV_STUB(IfcLightSource); DECL_CONV_STUB(IfcLightSourceDirectional); DECL_CONV_STUB(IfcLoop); DECL_CONV_STUB(IfcVertexLoop); DECL_CONV_STUB(IfcChamferEdgeFeature); DECL_CONV_STUB(IfcElementComponentType); DECL_CONV_STUB(IfcFastenerType); DECL_CONV_STUB(IfcMechanicalFastenerType); DECL_CONV_STUB(IfcScheduleTimeControl); DECL_CONV_STUB(IfcSurfaceStyle); DECL_CONV_STUB(IfcOpenShell); DECL_CONV_STUB(IfcSubContractResource); DECL_CONV_STUB(IfcSweptDiskSolid); DECL_CONV_STUB(IfcTankType); DECL_CONV_STUB(IfcSphere); DECL_CONV_STUB(IfcPolyLoop); DECL_CONV_STUB(IfcCableCarrierFittingType); DECL_CONV_STUB(IfcHumidifierType); DECL_CONV_STUB(IfcPerformanceHistory); DECL_CONV_STUB(IfcShapeModel); DECL_CONV_STUB(IfcTopologyRepresentation); DECL_CONV_STUB(IfcBuilding); DECL_CONV_STUB(IfcRoundedRectangleProfileDef); DECL_CONV_STUB(IfcStairFlight); DECL_CONV_STUB(IfcDistributionChamberElement); DECL_CONV_STUB(IfcShapeRepresentation); DECL_CONV_STUB(IfcRampFlight); DECL_CONV_STUB(IfcBeamType); DECL_CONV_STUB(IfcRelDecomposes); DECL_CONV_STUB(IfcRoof); DECL_CONV_STUB(IfcFooting); DECL_CONV_STUB(IfcLightSourceAmbient); DECL_CONV_STUB(IfcWindowStyle); DECL_CONV_STUB(IfcBuildingElementProxyType); DECL_CONV_STUB(IfcAxis2Placement3D); DECL_CONV_STUB(IfcEdgeCurve); DECL_CONV_STUB(IfcClosedShell); DECL_CONV_STUB(IfcTendonAnchor); DECL_CONV_STUB(IfcCondenserType); DECL_CONV_STUB(IfcPipeSegmentType); DECL_CONV_STUB(IfcPointOnSurface); DECL_CONV_STUB(IfcAsset); DECL_CONV_STUB(IfcLightSourcePositional); DECL_CONV_STUB(IfcProjectionCurve); DECL_CONV_STUB(IfcFillAreaStyleTiles); DECL_CONV_STUB(IfcElectricMotorType); DECL_CONV_STUB(IfcTendon); DECL_CONV_STUB(IfcDistributionChamberElementType); DECL_CONV_STUB(IfcMemberType); DECL_CONV_STUB(IfcStructuralLinearAction); DECL_CONV_STUB(IfcStructuralLinearActionVarying); DECL_CONV_STUB(IfcProductDefinitionShape); DECL_CONV_STUB(IfcFastener); DECL_CONV_STUB(IfcMechanicalFastener); DECL_CONV_STUB(IfcEvaporatorType); DECL_CONV_STUB(IfcDiscreteAccessoryType); DECL_CONV_STUB(IfcStructuralCurveConnection); DECL_CONV_STUB(IfcProjectionElement); DECL_CONV_STUB(IfcCoveringType); DECL_CONV_STUB(IfcPumpType); DECL_CONV_STUB(IfcPile); DECL_CONV_STUB(IfcUnitAssignment); DECL_CONV_STUB(IfcBoundingBox); DECL_CONV_STUB(IfcShellBasedSurfaceModel); DECL_CONV_STUB(IfcFacetedBrep); DECL_CONV_STUB(IfcTextLiteralWithExtent); DECL_CONV_STUB(IfcElectricApplianceType); DECL_CONV_STUB(IfcTrapeziumProfileDef); DECL_CONV_STUB(IfcRelContainedInSpatialStructure); DECL_CONV_STUB(IfcEdgeLoop); DECL_CONV_STUB(IfcProject); DECL_CONV_STUB(IfcCartesianPoint); DECL_CONV_STUB(IfcCurveBoundedPlane); DECL_CONV_STUB(IfcWallType); DECL_CONV_STUB(IfcFillAreaStyleHatching); DECL_CONV_STUB(IfcEquipmentStandard); DECL_CONV_STUB(IfcDiameterDimension); DECL_CONV_STUB(IfcStructuralLoadGroup); DECL_CONV_STUB(IfcConstructionMaterialResource); DECL_CONV_STUB(IfcRelAggregates); DECL_CONV_STUB(IfcBoilerType); DECL_CONV_STUB(IfcColourSpecification); DECL_CONV_STUB(IfcColourRgb); DECL_CONV_STUB(IfcDoorStyle); DECL_CONV_STUB(IfcDuctSilencerType); DECL_CONV_STUB(IfcLightSourceGoniometric); DECL_CONV_STUB(IfcActuatorType); DECL_CONV_STUB(IfcSensorType); DECL_CONV_STUB(IfcAirTerminalBoxType); DECL_CONV_STUB(IfcAnnotationSurfaceOccurrence); DECL_CONV_STUB(IfcZShapeProfileDef); DECL_CONV_STUB(IfcRationalBezierCurve); DECL_CONV_STUB(IfcCartesianTransformationOperator2D); DECL_CONV_STUB(IfcCartesianTransformationOperator2DnonUniform); DECL_CONV_STUB(IfcMove); DECL_CONV_STUB(IfcCableCarrierSegmentType); DECL_CONV_STUB(IfcElectricalElement); DECL_CONV_STUB(IfcChillerType); DECL_CONV_STUB(IfcReinforcingBar); DECL_CONV_STUB(IfcCShapeProfileDef); DECL_CONV_STUB(IfcPermit); DECL_CONV_STUB(IfcSlabType); DECL_CONV_STUB(IfcLampType); DECL_CONV_STUB(IfcPlanarExtent); DECL_CONV_STUB(IfcAlarmType); DECL_CONV_STUB(IfcElectricFlowStorageDeviceType); DECL_CONV_STUB(IfcEquipmentElement); DECL_CONV_STUB(IfcLightFixtureType); DECL_CONV_STUB(IfcCurtainWall); DECL_CONV_STUB(IfcSlab); DECL_CONV_STUB(IfcCurtainWallType); DECL_CONV_STUB(IfcOutletType); DECL_CONV_STUB(IfcCompressorType); DECL_CONV_STUB(IfcCraneRailAShapeProfileDef); DECL_CONV_STUB(IfcFlowSegment); DECL_CONV_STUB(IfcSectionedSpine); DECL_CONV_STUB(IfcElectricTimeControlType); DECL_CONV_STUB(IfcFaceSurface); DECL_CONV_STUB(IfcMotorConnectionType); DECL_CONV_STUB(IfcFlowFitting); DECL_CONV_STUB(IfcPointOnCurve); DECL_CONV_STUB(IfcTransportElementType); DECL_CONV_STUB(IfcCableSegmentType); DECL_CONV_STUB(IfcAnnotationSurface); DECL_CONV_STUB(IfcCompositeCurveSegment); DECL_CONV_STUB(IfcServiceLife); DECL_CONV_STUB(IfcPlateType); DECL_CONV_STUB(IfcVibrationIsolatorType); DECL_CONV_STUB(IfcTrimmedCurve); DECL_CONV_STUB(IfcMappedItem); DECL_CONV_STUB(IfcDirection); DECL_CONV_STUB(IfcBlock); DECL_CONV_STUB(IfcProjectOrderRecord); DECL_CONV_STUB(IfcFlowMeterType); DECL_CONV_STUB(IfcControllerType); DECL_CONV_STUB(IfcBeam); DECL_CONV_STUB(IfcArbitraryOpenProfileDef); DECL_CONV_STUB(IfcCenterLineProfileDef); DECL_CONV_STUB(IfcTimeSeriesSchedule); DECL_CONV_STUB(IfcRoundedEdgeFeature); DECL_CONV_STUB(IfcIShapeProfileDef); DECL_CONV_STUB(IfcSpaceHeaterType); DECL_CONV_STUB(IfcFlowStorageDevice); DECL_CONV_STUB(IfcRevolvedAreaSolid); DECL_CONV_STUB(IfcDoor); DECL_CONV_STUB(IfcEllipse); DECL_CONV_STUB(IfcTubeBundleType); DECL_CONV_STUB(IfcAngularDimension); DECL_CONV_STUB(IfcFaceBasedSurfaceModel); DECL_CONV_STUB(IfcCraneRailFShapeProfileDef); DECL_CONV_STUB(IfcColumnType); DECL_CONV_STUB(IfcTShapeProfileDef); DECL_CONV_STUB(IfcEnergyConversionDevice); DECL_CONV_STUB(IfcWorkSchedule); DECL_CONV_STUB(IfcZone); DECL_CONV_STUB(IfcTransportElement); DECL_CONV_STUB(IfcGeometricRepresentationSubContext); DECL_CONV_STUB(IfcLShapeProfileDef); DECL_CONV_STUB(IfcGeometricCurveSet); DECL_CONV_STUB(IfcActor); DECL_CONV_STUB(IfcOccupant); DECL_CONV_STUB(IfcBooleanClippingResult); DECL_CONV_STUB(IfcAnnotationFillArea); DECL_CONV_STUB(IfcLightSourceSpot); DECL_CONV_STUB(IfcFireSuppressionTerminalType); DECL_CONV_STUB(IfcElectricGeneratorType); DECL_CONV_STUB(IfcInventory); DECL_CONV_STUB(IfcPolyline); DECL_CONV_STUB(IfcBoxedHalfSpace); DECL_CONV_STUB(IfcAirTerminalType); DECL_CONV_STUB(IfcDistributionPort); DECL_CONV_STUB(IfcCostItem); DECL_CONV_STUB(IfcStructuredDimensionCallout); DECL_CONV_STUB(IfcStructuralResultGroup); DECL_CONV_STUB(IfcOrientedEdge); DECL_CONV_STUB(IfcCsgSolid); DECL_CONV_STUB(IfcPlanarBox); DECL_CONV_STUB(IfcMaterialDefinitionRepresentation); DECL_CONV_STUB(IfcAsymmetricIShapeProfileDef); DECL_CONV_STUB(IfcRepresentationMap); #undef DECL_CONV_STUB } //! STEP } //! Assimp #endif // INCLUDED_IFC_READER_GEN_H

4ecd50354915f0a31bdeea48f0b410ada4f362ad

ae0b041a5fb2170a3d1095868a7535cc82d6661f

/MFCHash/stdafx.cpp

8953c3b2f3560b9237e39e1bb2d6ee832c5c49dc

no_license

hexonxons/6thSemester

59c479a1bb3cd715744543f4c2e0f8fdbf336f4a

c3c8fdea6eef49de629a7f454b91ceabd58d15d8

refs/heads/master

UTF-8

C++

cpp

// stdafx.cpp : source file that includes just the standard includes // MFCHash.pch will be the pre-compiled header // stdafx.obj will contain the pre-compiled type information #include "stdafx.h"

7eef9ed7702103f0b89abf6e02218a4e1c984bab

814b49df11675ac3664ac0198048961b5306e1c5

/Code/Engine/GUI/TextBox.cpp

d6f1ce446e1ae579d035a5521f7bd6775ef3b8a2

no_license

Atridas/biogame

f6cb24d0c0b208316990e5bb0b52ef3fb8e83042

3b8e95b215da4d51ab856b4701c12e077cbd2587

refs/heads/master

UTF-8

C++

cpp

#include "Core.h" #include "TextBox.h" #include "RenderManager.h" #include "FontManager.h" //---Constructor CTextBox::CTextBox( uint32 windowsHeight, uint32 windowsWidth, float height_precent, float width_percent, const Vect2f position_percent, float buttonWidthPercent, float buttonHeightPercent, std::string lit, uint32 textHeightOffset, uint32 textWidthOffset,bool isVisible, bool isActive) : CDialogBox( windowsHeight, windowsWidth, height_precent, width_percent, position_percent, buttonWidthPercent, buttonHeightPercent, lit, textHeightOffset, textWidthOffset, isVisible, isActive) , m_sMessage("Default_TextBox") , m_uFontID(0) , m_TextColor(colBLACK) {} void CTextBox::Render (CRenderManager *renderManager, CFontManager* fm) { if (CGuiElement::m_bIsVisible) { CDialogBox::Render(renderManager, fm); //Pintamos el texto fm->DrawText( CGuiElement::m_Position.x+20, CGuiElement::m_Position.y + (uint32)(CGuiElement::m_uHeight*0.4f), m_TextColor, m_uFontID, m_sMessage.c_str()); } } void CTextBox::SetFont (CColor textColor, uint32 fontID) { m_uFontID = fontID; m_TextColor = textColor; }

04563d637fea132077c49010408f12bf7f871f5b

842997c28ef03f8deb3422d0bb123c707732a252

/src/moaicore/MOAIEventSource.cpp

eaf9dc7b50ca5f7a6f6cf30bee0db52822c05908

no_license

bjorn/moai-beta

e31f600a3456c20fba683b8e39b11804ac88d202

2f06a454d4d94939dc3937367208222735dd164f

refs/heads/master

UTF-8

C++

cpp

// Copyright (c) 2010-2011 Zipline Games, Inc. All Rights Reserved. // http://getmoai.com #include "pch.h" #include <moaicore/MOAIEventSource.h> #include <moaicore/MOAILogMessages.h> //================================================================// // lua //================================================================// //----------------------------------------------------------------// /** @name setListener @text Sets a listener callback for a given event ID. It is up to individual classes to declare their event IDs. @in MOAIEventSource self @in number eventID The ID of the event. @in function callback The callback to be called when the object emits the event. @out nil */ int MOAIEventSource::_setListener ( lua_State* L ) { MOAI_LUA_SETUP ( MOAIEventSource, "UNF" ); self->AffirmListenerTable ( state ); self->mListenerTable.PushRef ( state ); lua_pushvalue ( state, 2 ); lua_pushvalue ( state, 3 ); lua_settable ( state, -3 ); return 0; } //================================================================// // MOAIEventSource //================================================================// //----------------------------------------------------------------// void MOAIEventSource::AffirmListenerTable ( USLuaState& state ) { if ( !mListenerTable ) { lua_newtable ( state ); this->mListenerTable.SetRef ( state, -1, false ); state.Pop ( 1 ); } } //----------------------------------------------------------------// MOAIEventSource::MOAIEventSource () { RTTI_BEGIN RTTI_EXTEND ( USLuaObject ) RTTI_END } //----------------------------------------------------------------// MOAIEventSource::~MOAIEventSource () { } //----------------------------------------------------------------// bool MOAIEventSource::PushListenerAndSelf ( u32 eventID, USLuaState& state ) { if ( this->mListenerTable ) { this->mListenerTable.PushRef ( state ); if ( state.GetFieldWithType ( -1, eventID, LUA_TFUNCTION )) { lua_replace ( state, -2 ); this->PushLuaUserdata ( state ); return true; } state.Pop ( 1 ); } return false; } //----------------------------------------------------------------// void MOAIEventSource::RegisterLuaClass ( USLuaState& state ) { UNUSED ( state ); } //----------------------------------------------------------------// void MOAIEventSource::RegisterLuaFuncs ( USLuaState& state ) { luaL_Reg regTable [] = { { "setListener", _setListener }, { NULL, NULL } }; luaL_register ( state, 0, regTable ); }

1a30bb3d46e23897a50745dbf35f103b78bd6739

992d3f90ab0f41ca157000c4b18d071087d14d85

/CURLOADE.CPP

e2e48e17702e251ef94b04feb092480c5c55fc93

no_license

axemclion/visionizzer

cabc53c9be41c07c04436a4733697e4ca35104e3

5b0158f8a3614e519183055e50c27349328677e7

refs/heads/master