void Translator::reloadConfiguration()
{
KConfigGroup grp = config();
m_primary = grp.readEntry(CONFIG_PRIMARY);
m_secondary = grp.readEntry(CONFIG_SECONDARY);
m_yandexKey = grp.readEntry(CONFIG_YANDEX_KEY);
m_glosbeWord = stringToBool(grp.readEntry(CONFIG_GLOSBE_WORD));
m_glosbePhrase = stringToBool(grp.readEntry(CONFIG_GLOSBE_PHRASE));
m_glosbeExamples = stringToBool(grp.readEntry(CONFIG_GLOSBE_EXAMPLES));
m_yandexWord = stringToBool(grp.readEntry(CONFIG_YANDEX_WORD));
m_yandexPhrase = stringToBool(grp.readEntry(CONFIG_YANDEX_PHRASE));
}
void setBool(const char* value, uint8_t* target) {
bool result;
if(stringToBool(&result, value)){
*target = result; // convert bool to uint8_t
eepromManager.storeTempConstantsAndSettings();
}
}
void CSVreader::readVector( const string &filename, const string &csvdelimiter, vector<bool> &sarr, int numY )
{
numY++;
ifstream fin(filename.c_str());
string s;
vector<string> selements;
//vector<double> delements;
int x = 0;
while ( !fin.eof() )
{
getline(fin, s);
if ( !s.empty() )
{
splitString(s, selements, csvdelimiter);
sarr.push_back(stringToBool(selements[1]));
selements.clear();
//delements.clear();
}
x++;
if (x>=numY) break;
}
fin.close();
}
void ArgList::setArgValue(const std::string & sName, const std::string & sValue)
{
ArgBasePtr pArg = getArg(sName);
Arg<string>* pStringArg = dynamic_cast<Arg<string>* >(&*pArg);
Arg<UTF8String>* pUTF8StringArg = dynamic_cast<Arg<UTF8String>* >(&*pArg);
Arg<int>* pIntArg = dynamic_cast<Arg<int>* >(&*pArg);
Arg<float>* pFloatArg = dynamic_cast<Arg<float>* >(&*pArg);
Arg<bool>* pBoolArg = dynamic_cast<Arg<bool>* >(&*pArg);
Arg<glm::vec2>* pVec2Arg = dynamic_cast<Arg<glm::vec2>* >(&*pArg);
Arg<glm::vec3>* pVec3Arg = dynamic_cast<Arg<glm::vec3>* >(&*pArg);
Arg<glm::ivec3>* pIVec3Arg = dynamic_cast<Arg<glm::ivec3>* >(&*pArg);
Arg<vector<float> >* pFVectorArg = dynamic_cast<Arg<vector<float> >* >(&*pArg);
Arg<vector<int> >* pIVectorArg = dynamic_cast<Arg<vector<int> >* >(&*pArg);
Arg<vector<glm::vec2> >* pVec2VectorArg =
dynamic_cast<Arg<vector<glm::vec2> >* >(&*pArg);
Arg<vector<glm::ivec3> >* pIVec3VectorArg =
dynamic_cast<Arg<vector<glm::ivec3> >* >(&*pArg);
Arg<CollVec2Vector>* pCollVec2VectorArg =
dynamic_cast<Arg<CollVec2Vector>* >(&*pArg);
if (pStringArg) {
pStringArg->setValue(sValue);
} else if (pUTF8StringArg) {
pUTF8StringArg->setValue(sValue);
} else if (pIntArg) {
pIntArg->setValue(stringToInt(sValue));
} else if (pFloatArg) {
pFloatArg->setValue(stringToFloat(sValue));
} else if (pBoolArg) {
pBoolArg->setValue(stringToBool(sValue));
} else if (pVec2Arg) {
pVec2Arg->setValue(stringToVec2(sValue));
} else if (pVec3Arg) {
pVec3Arg->setValue(stringToVec3(sValue));
} else if (pIVec3Arg) {
pIVec3Arg->setValue(stringToIVec3(sValue));
} else if (pFVectorArg) {
vector<float> v;
fromString(sValue, v);
pFVectorArg->setValue(v);
} else if (pIVectorArg) {
vector<int> v;
fromString(sValue, v);
pIVectorArg->setValue(v);
} else if (pVec2VectorArg) {
vector<glm::vec2> v;
fromString(sValue, v);
pVec2VectorArg->setValue(v);
} else if (pIVec3VectorArg) {
vector<glm::ivec3> v;
fromString(sValue, v);
pIVec3VectorArg->setValue(v);
} else if (pCollVec2VectorArg) {
CollVec2Vector v;
fromString(sValue, v);
pCollVec2VectorArg->setValue(v);
} else {
AVG_ASSERT(false);
}
}
// QC:G
GraphicalEffects Factory::loadEffects(TiXmlElement *xmlData) {
GraphicalEffects effects;
const char* aVal;
bool b;
int i;
coord c;
Rect r;
Point p;
if((aVal=xmlData->Attribute("effects"))) {
effects.setEffects(aVal);
}
if(stringToPoint(xmlData->Attribute("scale"), p))
effects.setScale(p);
if(stringToPoint(xmlData->Attribute("sectionPointStart"), p))
effects.setSectionPointStart(p);
if(stringToPoint(xmlData->Attribute("sectionWidthHeight"), p))
effects.setSectionWidthHeight(p);
if(stringToRect(xmlData->Attribute("section"), r))
effects.setSection(r);
if(stringToCoord(xmlData->Attribute("rotation"), &c))
effects.setRotation(c);
if(stringToInt(xmlData->Attribute("opacity"), &i))
effects.setOpacity(i);
if(stringToInt(xmlData->Attribute("redFilter"), &i))
effects.setIntegerEffect("RFIL", i);
if(stringToInt(xmlData->Attribute("greenFilter"), &i))
effects.setIntegerEffect("GFIL", i);
if(stringToInt(xmlData->Attribute("blueFilter"), &i))
effects.setIntegerEffect("BFIL", i);
effects.setBlendMode(xmlData->Attribute("blend"));
if(stringToBool(xmlData->Attribute("renderCache"), &b))
effects.setRenderCache(b);
if((aVal=xmlData->Attribute("preProcess"))) {
effects.setPreProcess(aVal, NULL);
}
if((aVal=xmlData->Attribute("postProcess"))) {
effects.setPostProcess(aVal, NULL);
}
return effects;
}
/*!
Sets rememberDimensions value in configuration to \a newValue.
\sa rememberDimensions
*/
void CcfConfig::setRememberDimensions(bool newValue)
{
QString current = mConfiguration->value("remember dimensions on exit");
bool currentBool = stringToBool(current);
if (currentBool != newValue) {
mConfiguration->replace("remember dimensions on exit", boolToString(newValue));
emit rememberDimensionsChanged();
}
}
void CheckQualityConfig::ParseConfiguration(const cv::FileNode& node)
{
ConfigBase::ParseConfiguration(node);
std::string isManual;
node[config::kManualKeyPath] >> isManual;
(*m_parameterStorage)[config::kManualKeyPath] = new ConfigurationElement<bool>(stringToBool(isManual));
std::string* parameter = new std::string();
node[config::kCheckQualityNewLandmarkDataFileNameKeyPath] >> *parameter;
(*m_parameterStorage)[config::kCheckQualityNewLandmarkDataFileNameKeyPath] = new ConfigurationElement<std::string>(parameter);
}
void TestbedConfigManager::parseConfigFile() {
Common::SeekableReadStream *rs = getConfigReadStream();
if (!rs) {
Testsuite::logPrintf("Info! No config file found, using default configuration.\n");
initDefaultConfiguration();
return;
}
_configFileInterface.loadFromStream(*rs);
Common::INIFile::SectionList sections = _configFileInterface.getSections();
Testsuite *currTS = 0;
for (Common::INIFile::SectionList::const_iterator i = sections.begin(); i != sections.end(); i++) {
if (i->name.equalsIgnoreCase("Global")) {
// Global params may be directly queried, ignore them
} else {
// A testsuite, process it.
currTS = getTestsuiteByName(i->name);
Common::INIFile::SectionKeyList kList = i->getKeys();
if (!currTS) {
Testsuite::logPrintf("Warning! Error in config: Testsuite %s not found\n", i->name.c_str());
continue;
}
for (Common::INIFile::SectionKeyList::const_iterator j = kList.begin(); j != kList.end(); j++) {
if (j->key.equalsIgnoreCase("this")) {
currTS->enable(stringToBool(j->value));
} else {
if (!currTS->enableTest(j->key, stringToBool(j->value))) {
Testsuite::logPrintf("Warning! Error in config: Test %s not found\n", j->key.c_str());
}
}
}
}
}
delete rs;
}
std::vector<bool> StringTools::stringVectorToBoolVector(std::vector<std::string> inputStringVector)
{
std::vector<bool> result;
std::string tmpString;
for(std::vector<std::string>::iterator currentStringVectorEntry = inputStringVector.begin(); currentStringVectorEntry < inputStringVector.end(); ++currentStringVectorEntry)
{
trimString( *currentStringVectorEntry );
tmpString.clear();
tmpString = *currentStringVectorEntry;
trimString(tmpString);
result.push_back( stringToBool(tmpString) );
}
return result;
}
static STDataItem stringToItem(const STString &str)
{
STString itemTag = getFirstTagName(str);
if (itemTag.empty() ) {
return STDataItem("");
}
STString interTagStr = getTagStr(str, itemTag, false);
if (interTagStr.empty() ) {
return STDataItem("");
}
STDataItem item(itemTag);
if (isValueStr(interTagStr)) {
STString valueTag = getFirstTagName(interTagStr);
STString valueStr = getTagStr(interTagStr, valueTag);
if ("bool" == valueTag) {
item = stringToBool(valueStr);
}
else if ("int" == valueTag) {
item = stringToInt(valueStr);
}
else if ("string" == valueTag) {
item = valueStr;
}
}
else {
STString childStr = interTagStr;
int childPos = -1;
STString childTag = getFirstTagName(childStr, childPos);
while (!childTag.empty()) {
STString realChildStr = getTagStr(childStr, childTag, true);
STDataItem child = stringToItem(getTagStr(childStr, childTag, true));
if ( child.isValid() ) {
item.addChild(child);
}
childStr = childStr.substr(childPos+realChildStr.size()
, childStr.size()-childPos-realChildStr.size());
childTag = getFirstTagName(childStr, childPos);
}
}
return item;
}
void TestbedConfigManager::selectTestsuites() {
parseConfigFile();
if (_configFileInterface.hasKey("isSessionInteractive", "Global")) {
Common::String in;
_configFileInterface.getKey("isSessionInteractive", "Global", in);
ConfParams.setSessionAsInteractive(stringToBool(in));
}
if (!ConfParams.isSessionInteractive()) {
// Non interactive sessions don't need to go beyond
return;
}
// XXX: disabling these as of now for fastly testing other tests
// Testsuite::isSessionInteractive = false;
Common::String prompt("Welcome to the ScummVM testbed!\n"
"It is a framework to test the various ScummVM subsystems namely GFX, Sound, FS, events etc.\n"
"If you see this, it means interactive tests would run on this system :)\n");
if (!ConfParams.isGameDataFound()) {
prompt += "\nSeems like Game data files are not configured properly.\n"
"Create Game data files using script ./create-testbed-data.sh in dists/engine-data\n"
"Next, Configure the game path in launcher / command-line.\n"
"Currently a few testsuites namely FS/AudioCD/MIDI would be disabled\n";
}
Testsuite::logPrintf("Info! : Interactive tests are also being executed.\n");
if (Testsuite::handleInteractiveInput(prompt, "Proceed?", "Customize", kOptionRight)) {
if (Engine::shouldQuit()) {
return;
}
// Select testsuites using checkboxes
TestbedOptionsDialog tbd(_testsuiteList, this);
tbd.runModal();
}
// Clear it to remove entries before next rerun
_configFileInterface.clear();
}
void addToContext( QNFA *cxt, QDomElement c, int fid,
QFormatScheme *f, QHash<QString, int>& pids,
const QStringList& pref,
const QStringList& suff,
bool cs)
{
QString tag = c.tagName();
if ( !c.hasChildNodes() && tag != "embed" )
return;
cs = stringToBool(c.attribute("caseSensitive"), cs);
if ( (tag == "start") || (tag == "stop") || (tag == "escape") )
{
return;
} else if ( tag == "word" ) {
//qDebug("adding word : %s", qPrintable(c.firstChild().toText().data()));
const QString value = c.firstChild().toText().data();
if ( pref.isEmpty() && suff.isEmpty() )
{
addWord(cxt, value, fid, cs);
} else if ( pref.count() ) {
foreach ( const QString& p, pref )
{
if ( suff.isEmpty() )
{
addWord(cxt, p + value, fid, cs);
} else {
foreach ( const QString& s, suff )
{
addWord(cxt, p + value + s, fid, cs);
}
}
}
} else {
void getBusData(ifstream& input,vector<Bus>& vecBus)
{//读取所有节点信息
if(!input)
return;
string str;
while(1)
{
str.clear();
getline(input,str);
if(str=="<Bus::nx type=全数>")
{
int i=0;
str.clear();
getline(input,str);
vector<string> vecBusHeader=split(str);
int busNameColumn(0);//识别表头
int busVoltColumn(0);
int busVColumn(0);
int busAngColumn(0);
int busOffColumn(0);
int busV_maxColumn(0);
int busV_minColumn(0);
for(size_t t=0;t<vecBusHeader.size();++t)
{
if(vecBusHeader[t]=="node")
{
busNameColumn=t;
}
else if(vecBusHeader[t]=="volt")
{
busVoltColumn=t;
}
else if(vecBusHeader[t]=="V")
{
busVColumn=t;
}
else if(vecBusHeader[t]=="Ang")
{
busAngColumn=t;
}
else if(vecBusHeader[t]=="off")
{
busOffColumn=t;
}
else if(vecBusHeader[t]=="v_max")
{
busV_maxColumn=t;
}
else if(vecBusHeader[t]=="v_min")
{
busV_minColumn=t;
}
else
continue;
}
const int busNameColumnConst=busNameColumn;
const int busVoltColumnConst=busVoltColumn;
const int busVColumnConst=busVColumn;
const int busAngColumnConst=busAngColumn;
const int busOffColumnConst=busOffColumn;
const int busV_maxColumnConst=busV_maxColumn;
const int busV_minColumnConst=busV_minColumn;
//记录所需要行列的位置
str.clear();//其中一行数据是不需要的，先清除一行数据
getline(input,str);
str.clear();
getline(input,str);
while(str!="</Bus::nx>")
{
vector<string> vec=split(str);
//所有数据都已经存放在vec中，接下来是选出有用数据,对数所进行转换
int volt=stringToInt(vec[busVoltColumnConst]);
double v=stringToDouble(vec[busVColumnConst]);
double ang=stringToDouble(vec[busAngColumnConst]);
bool off=stringToBool(vec[busOffColumnConst]);
double V_max=stringToDouble(vec[busV_maxColumnConst]);
double V_min=stringToDouble(vec[busV_minColumnConst]);
Bus bus=createBus(i,vec[busNameColumnConst],volt,v,ang,off,V_max,V_min);
size_t t=0;
for(;t<vecBus.size();++t)
{
if(vecBus[t]==bus)
{
str.clear();
getline(input,str);
break;
}
}
if(t<vecBus.size())continue;
vecBus.push_back(bus);
i++;
str.clear();
getline(input,str);
}
}
if(str=="</Bus::nx>")
break;
}
}
void getAClineData(ifstream& input,vector<ACline>& vecACline)
{//读取所有ACline
if(!input)
return;
string str;
while(1)
{
str.clear();
getline(input,str);
if(str=="<ACline::nx type=全数>")
{//需要先读取很多行无用信息才能找到目标行，检索方法可以考虑改进
int i=0;
str.clear();
getline(input,str);
vector<string> vecAClineHeader=split(str);
int AClineNameColumn(0);//识别表头
int AClineVoltColumn(0);
int AClineRColumn(0);
int AClineXColumn(0);
int AClineBColumn(0);
int AClineI_nodeColumn(0);
int AClineJ_nodeColumn(0);
int AClineI_PColumn(0);
int AClineI_QColumn(0);
int AClineJ_PColumn(0);
int AClineJ_QColumn(0);
int AClineImaxColumn(0);
int AClineAreaColumn(0);
int AClineI_offColumn(0);
int AClineJ_offColumn(0);
for(size_t t=0;t<vecAClineHeader.size();++t)
{//考虑用枚举替换，更清晰
if(vecAClineHeader[t]=="name")
{
AClineNameColumn=t;
}
else if(vecAClineHeader[t]=="volt")
{
AClineVoltColumn=t;
}
else if(vecAClineHeader[t]=="R")
{
AClineRColumn=t;
}
else if(vecAClineHeader[t]=="X")
{
AClineXColumn=t;
}
else if(vecAClineHeader[t]=="B")
{
AClineBColumn=t;
}
else if(vecAClineHeader[t]=="I_node")
{
AClineI_nodeColumn=t;
}
else if(vecAClineHeader[t]=="J_node")
{
AClineJ_nodeColumn=t;
}
else if(vecAClineHeader[t]=="I_P")
{
AClineI_PColumn=t;
}
else if(vecAClineHeader[t]=="I_Q")
{
AClineI_QColumn=t;
}
else if(vecAClineHeader[t]=="J_P")
{
AClineJ_PColumn=t;
}
else if(vecAClineHeader[t]=="J_Q")
{
AClineJ_QColumn=t;
}
else if(vecAClineHeader[t]=="Imax")
{
AClineImaxColumn=t;
}
else if(vecAClineHeader[t]=="area")
{
AClineAreaColumn=t;
}
else if(vecAClineHeader[t]=="I_off")
{
AClineI_offColumn=t;
}
else if(vecAClineHeader[t]=="J_off")
{
AClineJ_offColumn=t;
}
else
continue;
}
const int AClineNameColumnConst=AClineNameColumn;
const int AClineVoltColumnConst=AClineVoltColumn;
const int AClineRColumnConst=AClineRColumn;
const int AClineXColumnConst=AClineXColumn;
const int AClineBColumnConst=AClineBColumn;
const int AClineI_nodeColumnConst=AClineI_nodeColumn;
const int AClineJ_nodeColumnConst=AClineJ_nodeColumn;
const int AClineI_PColumnConst=AClineI_PColumn;
const int AClineI_QColumnConst=AClineI_QColumn;
const int AClineJ_PColumnConst=AClineJ_PColumn;
const int AClineJ_QColumnConst=AClineJ_QColumn;
const int AClineImaxColumnConst=AClineImaxColumn;
const int AClineAreaColumnConst=AClineAreaColumn;
const int AClineI_offColumnConst=AClineI_offColumn;
const int AClineJ_offColumnConst=AClineJ_offColumn;
//记录所需要行列的位置
str.clear();//其中一行数据是不需要的，先清除一行数据
getline(input,str);
str.clear();
getline(input,str);
while(str!="</ACline::nx>")
{
vector<string> vec=split(str);
//所有数据都已经存放在vec中，接下来是选出有用数据,对数所进行转换
int volt=stringToInt(vec[AClineVoltColumnConst]);
string name=vec[AClineNameColumnConst];
double r=stringToDouble(vec[AClineRColumnConst]);
double x=stringToDouble(vec[AClineXColumnConst]);
double b=stringToDouble(vec[AClineBColumnConst]);
string i_nodename=vec[AClineI_nodeColumnConst];
string j_nodename=vec[AClineJ_nodeColumnConst];
double i_p=stringToDouble(vec[AClineI_PColumnConst]);
double i_q=stringToDouble(vec[AClineI_QColumnConst]);
double j_p=stringToDouble(vec[AClineJ_PColumnConst]);
double j_q=stringToDouble(vec[AClineJ_QColumnConst]);
double imax=stringToDouble(vec[AClineImaxColumnConst]);
string area=vec[AClineAreaColumnConst];
bool iOff=stringToBool(vec[AClineI_offColumnConst]);
bool jOff=stringToBool(vec[AClineJ_offColumnConst]);
//判断ACline两端节点是否都在Bus表内，并找到对应的拓扑节点编号，满足则为有用信息
/*int i_node=0;
int j_node=0;//拓扑节点编号
//理论上是不可能存在相同节点的
if(i_nodename==j_nodename)continue;
for(vector<Bus>::iterator iter=vecBus.begin();iter!=vecBus.end();++iter)
{
if(i_nodename==iter->getBusName())
i_node=iter->getBusCode();
else if(j_nodename==iter->getBusName())
j_node=iter->getBusCode();
}*/
//在bus表中找到对应的节点才创建ACline对象
ACline acline=createACline(i,name,volt,r,x,b,i_nodename,j_nodename,
i_p,i_q,j_p,j_q,imax,area,iOff,jOff);
size_t t=0;
for(;t<vecACline.size();++t)
{//判断是否存在相同支路，其实没必要检索整个容器，只需检索前若干个
//其实没必要判断，不会出现相同支路
if(vecACline[t]==acline)
{
str.clear();
getline(input,str);
break;
}
}
if(t<vecACline.size())continue;
vecACline.push_back(acline);
i++;
str.clear();
getline(input,str);
}
}
if(str=="</ACline::nx>")
break;
}
}
void getLoadData(ifstream& input,vector<Load>& vecLoad)
{//读取所有节点或其他信息函数
if(!input)
return;
string str;
while(1)
{
str.clear();
getline(input,str);
if(str=="<Load::nx type=全数>")
{
str.clear();
getline(input,str);
vector<string> vecLoadHeader=split(str);
int loadVoltColumn(0);//识别表头
int loadEqColumn(0);
int loadNodeColumn(0);
int loadPColumn(0);
int loadQColumn(0);
int loadOffColumn(0);
for(size_t t=0;t<vecLoadHeader.size();++t)
{
if(vecLoadHeader[t]=="volt")
{
loadVoltColumn=t;
}
else if(vecLoadHeader[t]=="Eq")
{
loadEqColumn=t;
}
else if(vecLoadHeader[t]=="node")
{
loadNodeColumn=t;
}
else if(vecLoadHeader[t]=="P")
{
loadPColumn=t;
}
else if(vecLoadHeader[t]=="Q")
{
loadQColumn=t;
}
else if(vecLoadHeader[t]=="off")
{
loadOffColumn=t;
}
else
continue;
}
const int loadVoltColumnConst=loadVoltColumn;
const int loadEqColumnConst=loadEqColumn;
const int loadNodeColumnConst=loadNodeColumn;
const int loadPColumnConst=loadPColumn;
const int loadQColumnConst=loadQColumn;
const int loadOffColumnConst=loadOffColumn;
//记录所需要行列的位置
str.clear();//其中一行数据是不需要的，先清除一行数据
getline(input,str);
str.clear();
getline(input,str);
while(str!="</Load::nx>")
{
vector<string> vec=split(str);
//所有数据都已经存放在vec中，接下来是选出有用数据,对数所进行转换
int volt=stringToInt(vec[loadVoltColumnConst]);
int eq=stringToInt(vec[loadEqColumnConst]);
string node=vec[loadNodeColumnConst];
double p=stringToDouble(vec[loadPColumnConst]);
double q=stringToDouble(vec[loadQColumnConst]);
bool off=stringToBool(vec[loadOffColumnConst]);
Load load=createLoad(volt,eq,node,p,q,off);
/*size_t t=0;
for(;t<vecLoad.size();++t)
{
if(vecLoad[t]==load)
{
str.clear();
getline(input,str);
break;
}
}
if(t<vecLoad.size())continue;*/
vecLoad.push_back(load);
str.clear();
getline(input,str);
}
}
if(str=="</Load::nx>")
break;
}
}
void SceneManagerCMPlay::Config(string directory)
{
sceneBranch = TextTree::FileToRead(directory);
for (vector<Branch>::iterator branch = sceneBranch.childBranches.begin(); branch != sceneBranch.childBranches.end(); ++branch)
{
if (branch->branchName == "SpatialPartition")
{
// create a spatial partition manager if it is not defined
if (spatialPartitionManager == NULL)
{
spatialPartitionManager = new SpatialPartitionManager();
}
int type = 0;
Vector3 partitionDimension;
Vector2 partitionDimension2D;
bool numPartitionBased = true;
std::cout << "Setting up spatial partitioning" << std::endl;
for (vector<Attribute>::iterator attri = branch->attributes.begin(); attri != branch->attributes.end(); ++attri)
{
Attribute tempAttri = *attri;
string attriName = tempAttri.name;
string attriValue = tempAttri.value;
if (attriName == "Type")
{
type = stoi(attriValue);
}
else if (attriName == "WorldStart")
{
if (type == 3)
{
stringToVector(attriValue, world3DStart);
}
else
{
stringToVector(attriValue, world2DStart);
}
}
else if (attriName == "WorldEnd")
{
if (type == 3)
{
stringToVector(attriValue, world3DEnd);
}
else
{
stringToVector(attriValue, world2DEnd);
}
}
else if (attriName == "Partitions")
{
if (type == 3)
{
stringToVector(attriValue, partitionDimension);
}
else
{
stringToVector(attriValue, partitionDimension2D);
}
}
else if (attriName == "PartitionBased")
{
stringToBool(attriValue, numPartitionBased);
}
}
// 3D spatial partition
if (type == 3)
{
spatialPartitionManager->Init(world3DStart, world3DEnd, partitionDimension, numPartitionBased, resourceManager.retrieveMesh("DEBUG_CUBE"));
}
// assume its 2D
else
{
spatialPartitionManager->Init(world2DStart, world2DEnd, partitionDimension2D, numPartitionBased, resourceManager.retrieveMesh("DEBUG_QUAD"));
}
}
else if (branch->branchName == "SceneNode")
{
std::cout << "Creating scenenode container!" << std::endl;
for (vector<Attribute>::iterator attri = branch->attributes.begin(); attri != branch->attributes.end(); ++attri)
{
Attribute tempAttri = *attri;
string attriName = tempAttri.name;
string attriValue = tempAttri.value;
if (attriName == "Container")
{
GameObject3D* object;
SceneNode* node;
int containerSize = stoi(tempAttri.value);
for (int i = 0; i < containerSize; ++i)
{
object = new GameObject3D;
node = new SceneNode;
node->SetGameObject(object);
nodeList.push_back(node);
}
}
}
}
}
}
int action(QDomElement c, QFormatScheme *f, QHash<QString, int>& pids, int fid = 0)
{
QString paren, spid, spt, sfid;
sfid = c.attribute("format");
if ( sfid.count() )
{
fid |= QNFAAction::Highlight | QNFAAction::format(f->id(sfid));
}
paren = c.attribute("parenthesis");
if ( paren.count() )
{
spid = paren.section(':', 0, -2);
spt = paren.section(':', -1, -1);
if ( spt.endsWith("@nomatch") )
{
spt.chop(8);
} else {
fid |= QNFAAction::MatchParen;
}
if ( spid.count() )
{
/*qDebug("paren : [%s|%s] => 0x%x",
qPrintable(spid), qPrintable(spt),
(spt == "open" ? QNFAAction::ParenOpen : QNFAAction::ParenClose) | pid(spid, pids));
*/
if ( spt == "open" )
fid |= QNFAAction::ParenOpen;
else if ( spt == "close" )
fid |= QNFAAction::ParenClose;
else if ( spt == "boundary" )
fid |= QNFAAction::ParenOpen | QNFAAction::ParenClose;
fid |= QNFAAction::parenthesis(pid(spid, pids));
/*
qDebug("paren : [%s|%s] => 0x%x",
qPrintable(spid), qPrintable(spt),
fid & QNFAAction::ParenMask);
*/
}
}
if ( stringToBool(c.attribute("indent"), false) )
fid |= QNFAAction::Indent;
if ( stringToBool(c.attribute("fold"), false) )
fid |= QNFAAction::Fold;
// TODO : determine ambiguity automatically
if ( stringToBool(c.attribute("ambiguous"), false) )
fid |= QNFAAction::Ambiguous;
return fid;
}
void ResourcePool::processMesh(string config)
{
Branch meshBranch = TextTree::FileToRead(config);
for (vector<Branch>::iterator branch = meshBranch.childBranches.begin(); branch != meshBranch.childBranches.end(); ++branch)
{
string meshName = branch->branchName;
Color meshColor;
enum MISC_VARIABLE
{
VAR_LENGTH,
VAR_WIDTH,
VAR_HEIGHT,
VAR_RADIUS,
VAR_INNER_RADIUS,
VAR_OUTER_RADIUS,
VAR_SLICES,
VAR_STACKS,
VAR_ANIM_TIME,
MAX_VAR,
};
float meshVar[MAX_VAR];
for (int i = 0; i < MAX_VAR; ++i)
{
meshVar[i] = 1.0f;
}
string meshVarNames[MAX_VAR] =
{
"Length",
"Width",
"Height",
"Radius",
"InnerRadius",
"OuterRadius",
"Slices",
"Stacks",
};
// default 2D mesh variables
int meshPosX = 0;
int meshPosY = 0;
int meshTextRow = 0;
int meshTextCol = 0;
// Spirte Animation
int meshSpriteRow = 0;
int meshSpriteCol = 0;
// Tile sheet
int meshTileRow = 0;
int meshTileCol = 0;
string directory = "";
string meshType = "";
unsigned textureID = 0;
for (vector<Attribute>::iterator attri = branch->attributes.begin(); attri != branch->attributes.end(); ++attri)
{
Attribute tempAttri = *attri;
string attriName = tempAttri.name;
string attriValue = tempAttri.value;
if (attriName == "ColorValue")
{
Vector3 tempColor;
stringToVector(attriValue, tempColor);
meshColor.Set(tempColor.x, tempColor.y, tempColor.z);
}
if (attriName == "ColorName")
{
meshColor = retrieveColor(attriValue);
}
else if (attriName == "Type")
{
meshType = attriValue;
}
else if (attriName == "Texture")
{
textureID = this->retrieveTexture(attriValue);
}
else if (attriName == "Directory")
{
directory = attriValue;
}
else if (attriName == "SpriteRow")
{
meshSpriteRow = stoi(attriValue);
}
else if (attriName == "SpriteCol")
{
meshSpriteCol = stoi(attriValue);
}
else if (attriName == "TextRow")
{
meshTextRow = stoi(attriValue);
}
else if (attriName == "TextCol")
{
meshTextCol = stoi(attriValue);
}
else if (attriName == "PosX")
{
meshPosX = stoi(attriValue);
}
else if (attriName == "PosY")
{
meshPosY = stoi(attriValue);
}
else if (attriName == "TileRow")
{
meshTileRow = stoi(attriValue);
}
else if (attriName == "TileCol")
{
meshTileCol = stoi(attriValue);
}
else
{
for (int k = 0; k < MAX_VAR; ++k)
{
if (attriName == meshVarNames[k])
{
meshVar[k] = stof(attriValue);
break;
}
}
}
}
// process data, generate mesh using meshbuilder
Mesh* mesh = NULL;
if (meshType == "Axis")
{
mesh = MeshBuilder::GenerateAxes(meshName, meshVar[VAR_LENGTH], meshVar[VAR_HEIGHT], meshVar[VAR_WIDTH]);
}
else if (meshType == "Ray")
{
mesh = MeshBuilder::GenerateRay(meshName, meshVar[VAR_LENGTH]);
}
else if (meshType == "Quad")
{
mesh = MeshBuilder::GenerateQuad(meshName, meshColor, meshVar[VAR_LENGTH], meshVar[VAR_WIDTH]);
}
else if (meshType == "Cube")
{
mesh = MeshBuilder::GenerateCube(meshName, meshColor, meshVar[VAR_LENGTH]);
}
else if (meshType == "Circle")
{
mesh = MeshBuilder::GenerateCircle(meshName, meshColor, (unsigned)meshVar[VAR_SLICES], meshVar[VAR_RADIUS]);
}
else if (meshType == "DebugQuad")
{
mesh = MeshBuilder::GenerateDebugQuad(meshName, meshColor, meshVar[VAR_LENGTH]);
}
else if (meshType == "DebugCircle")
{
mesh = MeshBuilder::GenerateDebugCircle(meshName, meshColor, (unsigned)meshVar[VAR_SLICES], meshVar[VAR_RADIUS]);
}
else if (meshType == "DebugCube")
{
mesh = MeshBuilder::GenerateDebugCube(meshName, meshColor, meshVar[VAR_LENGTH]);
}
else if (meshType == "Sphere")
{
mesh = MeshBuilder::GenerateSphere(meshName, meshColor, (unsigned)meshVar[VAR_STACKS], (unsigned)meshVar[VAR_SLICES], meshVar[VAR_RADIUS]);
}
else if (meshType == "Skyplane")
{
mesh = MeshBuilder::GenerateSkyPlane(meshName, meshColor, (unsigned)meshVar[VAR_SLICES], (float)meshVar[VAR_INNER_RADIUS], (float)meshVar[VAR_OUTER_RADIUS], (float)meshTileRow, (float)meshTileCol);
}
else if (meshType == "Terrain")
{
HEIGHTMAP tempHeightmap;
tempHeightmap.name = meshName;
mesh = MeshBuilder::GenerateTerrain(meshName, directory, tempHeightmap.heightMap);
if (this->addHeightmap(tempHeightmap.name, tempHeightmap))
{
std::cout << "Successfully added new heightmap!" << std::endl;
}
}
else if (meshType == "Obj")
{
mesh = MeshBuilder::GenerateOBJ(meshName, directory);
}
else if (meshType == "Text")
{
mesh = MeshBuilder::GenerateText(meshName, meshTextRow, meshTextCol);
}
else if (meshType == "2D")
{
mesh = MeshBuilder::Generate2DMesh(meshName, meshColor, (int)meshVar[VAR_WIDTH], (int)meshVar[VAR_HEIGHT]);
}
else if (meshType == "SpriteAnimation")
{
mesh = MeshBuilder::GenerateSpriteAnimation(meshName, meshSpriteRow, meshSpriteCol);
SpriteAnimation *sa = dynamic_cast<SpriteAnimation*>(mesh);
Branch tempBranch = *branch;
// handle animations variables
for (vector<Branch>::iterator childbranch = tempBranch.childBranches.begin(); childbranch != tempBranch.childBranches.end(); ++childbranch)
{
int id = 0;
int startFrame = 0;
int endFrame = 0;
bool repeat = false;
bool pause = false;
float animationTime = 0.f;
for (vector<Attribute>::iterator childAttri = childbranch->attributes.begin(); childAttri != childbranch->attributes.end(); ++childAttri)
{
Attribute tempAttri = *childAttri;
string attriName = tempAttri.name;
string attriValue = tempAttri.value;
if (attriName == "ID")
{
id = stoi(attriValue);
}
else if (attriName == "StartFrame")
{
startFrame = stoi(attriValue);
}
else if (attriName == "EndFrame")
{
endFrame = stoi(attriValue);
}
else if (attriName == "Repeat")
{
stringToBool(attriValue, repeat);
}
else if (attriName == "Pause")
{
stringToBool(attriValue, pause);
}
else if (attriName == "AnimationTime")
{
animationTime = stof(attriValue);
}
}
if (sa)
{
Animation* anime = new Animation();
anime->Set(id, startFrame, endFrame, repeat, pause, animationTime);
sa->animations.push_back(anime);
}
}
//sort (sa->animations.begin(), sa->animations.end());
}
else if (meshType == "TileSheet")
{
mesh = MeshBuilder::GenerateTileSheet(meshName, meshTileRow, meshTileCol);
}
// push back mesh
if (mesh != NULL)
{
if (textureID != 0)
{
mesh->textureID = textureID;
}
if (addMesh(branch->branchName, mesh))
{
std::cout << "Successfully added new mesh!" << std::endl;
}
}
}
}
int processAtMLton (GC_state s, int start, int argc, char **argv,
char **worldFile) {
int i;
i = start;
while (s->controls.mayProcessAtMLton
and i < argc
and (0 == strcmp (argv [i], "@MLton"))) {
bool done;
i++;
done = FALSE;
while (!done) {
if (i == argc)
die ("Missing -- at end of @MLton args.");
else {
char *arg;
arg = argv[i];
if (0 == strcmp (arg, "copy-generational-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton copy-generational-ratio missing argument.");
s->controls.ratios.copyGenerational = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.copyGenerational)
die ("@MLton copy-generational-ratio argument must be greater than 1.0.");
} else if (0 == strcmp (arg, "copy-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton copy-ratio missing argument.");
s->controls.ratios.copy = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.copy)
die ("@MLton copy-ratio argument must be greater than 1.0.");
} else if (0 == strcmp (arg, "fixed-heap")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton fixed-heap missing argument.");
s->controls.fixedHeap = align (stringToBytes (argv[i++]),
2 * s->sysvals.pageSize);
} else if (0 == strcmp (arg, "gc-messages")) {
i++;
s->controls.messages = TRUE;
} else if (0 == strcmp (arg, "gc-summary")) {
i++;
s->controls.summary = TRUE;
} else if (0 == strcmp (arg, "gc-summary-file")) {
i++;
if (i == argc || (0 == strcmp (argv[i], "--")))
die ("@MLton gc-summary-file missing argument.");
s->controls.summary = TRUE;
s->controls.summaryFile = fopen(argv[i++], "w");
if (s->controls.summaryFile == NULL) {
die ("Invalid @MLton gc-summary-file %s (%s).", argv[i-1], strerror(errno));
}
} else if (0 == strcmp (arg, "grow-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton grow-ratio missing argument.");
s->controls.ratios.grow = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.grow)
die ("@MLton grow-ratio argument must be greater than 1.0.");
} else if (0 == strcmp (arg, "hash-cons")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton hash-cons missing argument.");
s->controls.ratios.hashCons = stringToFloat (argv[i++]);
unless (0.0 <= s->controls.ratios.hashCons
and s->controls.ratios.hashCons <= 1.0)
die ("@MLton hash-cons argument must be between 0.0 and 1.0.");
} else if (0 == strcmp (arg, "live-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton live-ratio missing argument.");
s->controls.ratios.live = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.live)
die ("@MLton live-ratio argument must be greater than 1.0.");
} else if (0 == strcmp (arg, "load-world")) {
unless (s->controls.mayLoadWorld)
die ("May not load world.");
i++;
s->amOriginal = FALSE;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton load-world missing argument.");
*worldFile = argv[i++];
} else if (0 == strcmp (arg, "mark-compact-generational-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton mark-compact-generational-ratio missing argument.");
s->controls.ratios.markCompactGenerational = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.markCompactGenerational)
die ("@MLton mark-compact-generational-ratio argument must be greater than 1.0.");
} else if (0 == strcmp (arg, "mark-compact-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton mark-compact-ratio missing argument.");
s->controls.ratios.markCompact = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.markCompact)
die ("@MLton mark-compact-ratio argument must be greater than 1.0.");
} else if (0 == strcmp (arg, "max-heap")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton max-heap missing argument.");
s->controls.maxHeap = align (stringToBytes (argv[i++]),
2 * s->sysvals.pageSize);
} else if (0 == strcmp (arg, "may-page-heap")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton may-page-heap missing argument.");
s->controls.mayPageHeap = stringToBool (argv[i++]);
} else if (0 == strcmp (arg, "no-load-world")) {
i++;
s->controls.mayLoadWorld = FALSE;
} else if (0 == strcmp (arg, "nursery-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton nursery-ratio missing argument.");
s->controls.ratios.nursery = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.nursery)
die ("@MLton nursery-ratio argument must be greater than 1.0.");
} else if (0 == strcmp (arg, "ram-slop")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton ram-slop missing argument.");
s->controls.ratios.ramSlop = stringToFloat (argv[i++]);
} else if (0 == strcmp (arg, "show-sources")) {
showSources (s);
exit (0);
} else if (0 == strcmp (arg, "stop")) {
i++;
s->controls.mayProcessAtMLton = FALSE;
} else if (0 == strcmp (arg, "stack-current-grow-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton stack-current-grow-ratio missing argument.");
s->controls.ratios.stackCurrentGrow = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.stackCurrentGrow)
die ("@MLton stack-current-grow-ratio argument must greater than 1.0.");
} else if (0 == strcmp (arg, "stack-current-max-reserved-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton stack-current-max-reserved-ratio missing argument.");
s->controls.ratios.stackCurrentMaxReserved = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.stackCurrentMaxReserved)
die ("@MLton stack-current-max-reserved-ratio argument must greater than 1.0.");
} else if (0 == strcmp (arg, "stack-current-permit-reserved-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton stack-current-permit-reserved-ratio missing argument.");
s->controls.ratios.stackCurrentPermitReserved = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.stackCurrentPermitReserved)
die ("@MLton stack-current-permit-reserved-ratio argument must greater than 1.0.");
} else if (0 == strcmp (arg, "stack-current-shrink-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton stack-current-shrink-ratio missing argument.");
s->controls.ratios.stackCurrentShrink = stringToFloat (argv[i++]);
unless (0.0 <= s->controls.ratios.stackCurrentShrink
and s->controls.ratios.stackCurrentShrink <= 1.0)
die ("@MLton stack-current-shrink-ratio argument must be between 0.0 and 1.0.");
} else if (0 == strcmp (arg, "stack-max-reserved-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton stack-max-reserved-ratio missing argument.");
s->controls.ratios.stackMaxReserved = stringToFloat (argv[i++]);
unless (1.0 < s->controls.ratios.stackMaxReserved)
die ("@MLton stack-max-reserved-ratio argument must greater than 1.0.");
} else if (0 == strcmp (arg, "stack-shrink-ratio")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton stack-shrink-ratio missing argument.");
s->controls.ratios.stackShrink = stringToFloat (argv[i++]);
unless (0.0 <= s->controls.ratios.stackShrink
and s->controls.ratios.stackShrink <= 1.0)
die ("@MLton stack-shrink-ratio argument must be between 0.0 and 1.0.");
} else if (0 == strcmp (arg, "use-mmap")) {
i++;
if (i == argc || 0 == strcmp (argv[i], "--"))
die ("@MLton use-mmap missing argument.");
GC_setCygwinUseMmap (stringToBool (argv[i++]));
} else if (0 == strcmp (arg, "--")) {
i++;
done = TRUE;
} else if (i > 1)
die ("Strange @MLton arg: %s", argv[i]);
else done = TRUE;
}
}
}
return i;
}
static void parse(PmuXML & pmuXml, const char * const xml)
{
mxml_node_t *root = mxmlLoadString(NULL, xml, MXML_NO_CALLBACK);
for (mxml_node_t *node = mxmlFindElement(root, root, TAG_PMU, NULL, NULL, MXML_DESCEND); node != NULL;
node = mxmlFindElement(node, root, TAG_PMU, NULL, NULL, MXML_DESCEND)) {
const char * const pmncName = mxmlElementGetAttr(node, ATTR_PMNC_NAME);
const char * const cpuidStr = mxmlElementGetAttr(node, ATTR_CPUID);
int cpuid;
if (!stringToInt(&cpuid, cpuidStr, 0)) {
logg.logError("The cpuid for '%s' in pmu XML is not an integer", pmncName);
handleException();
}
const char * const coreName = mxmlElementGetAttr(node, ATTR_CORE_NAME);
const char * const dtName = mxmlElementGetAttr(node, ATTR_DT_NAME);
const char * const speName = mxmlElementGetAttr(node, ATTR_SPE_NAME);
const char * const pmncCountersStr = mxmlElementGetAttr(node, ATTR_PMNC_COUNTERS);
const char * const profileStr = mxmlElementGetAttr(node, AATR_PROFILE);
int pmncCounters;
if (!stringToInt(&pmncCounters, pmncCountersStr, 0)) {
logg.logError("The pmnc_counters for '%s' in pmu XML is not an integer", pmncName);
handleException();
}
if (pmncName == NULL || cpuid == 0 || coreName == NULL || pmncCounters == 0) {
logg.logError("A pmu from the pmu XML is missing one or more of the required attributes (%s, %s, %s and %s)", ATTR_PMNC_NAME, ATTR_CPUID, ATTR_CORE_NAME, ATTR_PMNC_COUNTERS);
handleException();
}
//Check whether the pmu is v8, needed when hardware is 64 bit but kernel is 32 bit.
bool isV8 = false;
if (profileStr != nullptr) {
if (profileStr[0] == '8') {
isV8 = true;
}
}
logg.logMessage("Found <%s %s=\"%s\" %s=\"%s\" %s=\"0x%05x\" %s=\"%d\" />",
TAG_PMU,
ATTR_CORE_NAME, coreName,
ATTR_PMNC_NAME, pmncName,
ATTR_CPUID, cpuid,
ATTR_PMNC_COUNTERS, pmncCounters);
pmuXml.cpus.emplace_back(strdup(coreName), strdup(pmncName), lib::strdup_null(dtName),
lib::strdup_null(speName), cpuid, pmncCounters, isV8);
}
for (mxml_node_t *node = mxmlFindElement(root, root, TAG_UNCORE_PMU, NULL, NULL, MXML_DESCEND); node != NULL;
node = mxmlFindElement(node, root, TAG_UNCORE_PMU, NULL, NULL, MXML_DESCEND)) {
const char * const pmncName = mxmlElementGetAttr(node, ATTR_PMNC_NAME);
const char * const coreName = mxmlElementGetAttr(node, ATTR_CORE_NAME);
const char * const pmncCountersStr = mxmlElementGetAttr(node, ATTR_PMNC_COUNTERS);
int pmncCounters;
if (!stringToInt(&pmncCounters, pmncCountersStr, 0)) {
logg.logError("The pmnc_counters for '%s' in pmu XML is not an integer", pmncName);
handleException();
}
const char * const hasCyclesCounterStr = mxmlElementGetAttr(node, ATTR_HAS_CYCLES_COUNTER);
const bool hasCyclesCounter = stringToBool(hasCyclesCounterStr, true);
if (pmncName == NULL || coreName == NULL || pmncCounters == 0) {
logg.logError("An uncore_pmu from the pmu XML is missing one or more of the required attributes (%s, %s and %s)", ATTR_PMNC_NAME, ATTR_CORE_NAME, ATTR_PMNC_COUNTERS);
handleException();
}
// check if the path contains a wildcard
if (strstr(pmncName, UNCORE_PMNC_NAME_WILDCARD) == nullptr)
{
// no - just add one item
logg.logMessage("Found <%s %s=\"%s\" %s=\"%s\" %s=\"%s\" %s=\"%d\" />",
TAG_UNCORE_PMU,
ATTR_CORE_NAME, coreName,
ATTR_PMNC_NAME, pmncName,
ATTR_HAS_CYCLES_COUNTER, hasCyclesCounter ? "true" : "false",
ATTR_PMNC_COUNTERS, pmncCounters);
pmuXml.uncores.emplace_back(strdup(coreName), strdup(pmncName), pmncCounters, hasCyclesCounter);
}
else
{
// yes - add actual matching items from filesystem
bool matched = false;
std::unique_ptr<DIR, int (*)(DIR*)> dir { opendir(PERF_DEVICES), closedir };
if (dir != nullptr) {
struct dirent * dirent;
while ((dirent = readdir(dir.get())) != NULL) {
if (matchPMUName(pmncName, dirent->d_name)) {
// matched dirent
logg.logMessage("Found <%s %s=\"%s\" %s=\"%s\" %s=\"%s\" %s=\"%d\" />",
TAG_UNCORE_PMU,
ATTR_CORE_NAME, coreName,
ATTR_PMNC_NAME, dirent->d_name,
ATTR_HAS_CYCLES_COUNTER, hasCyclesCounter ? "true" : "false",
ATTR_PMNC_COUNTERS, pmncCounters);
new UncorePmu(strdup(coreName), strdup(dirent->d_name), pmncCounters, hasCyclesCounter);
matched = true;
}
}
}
if (!matched) {
logg.logMessage("No matching devices for wildcard <%s %s=\"%s\" %s=\"%s\" %s=\"%s\" %s=\"%d\" />",
TAG_UNCORE_PMU,
ATTR_CORE_NAME, coreName,
ATTR_PMNC_NAME, pmncName,
ATTR_HAS_CYCLES_COUNTER, hasCyclesCounter ? "true" : "false",
ATTR_PMNC_COUNTERS, pmncCounters);
}
}
}
mxmlDelete(root);
}
/*!
Returns true if rememberDimensions value is checked in configuration.
\sa setRememberDimensions
*/
bool CcfConfig::isRememberDimensionsSet() const
{
QString result = mConfiguration->value("remember dimensions on exit");
return stringToBool(result);
}
Property Property::fromXMLNode(const QDomElement &element)
{
if (element.tagName() == "Property")
{
Property p;
p.setName(element.attribute("name"));
p.setDocName(element.attribute("docName"));
p.setDocBrief(element.attribute("docBrief"));
p.setDocDetail(element.attribute("docDetail"));
p.setType(element.attribute("type"));
p.setTypeStringName(element.attribute("typeStringName"));
p.setDefaultValue(QVariant(element.attribute("defaultValue")));
p.setRevision(element.attribute("revision").toInt());
p.setMember(stringToBool(element.attribute("member")));
p.setRead(stringToBool(element.attribute("read")));
p.setWrite(stringToBool(element.attribute("write")));
p.setReset(stringToBool(element.attribute("reset")));
p.setNotify(stringToBool(element.attribute("notify")));
p.setEnabled(stringToBool(element.attribute("enabled")));
p.setDesignable(stringToBool(element.attribute("designable")));
p.setScriptable(stringToBool(element.attribute("scriptable")));
p.setStored(stringToBool(element.attribute("stored")));
p.setUser(stringToBool(element.attribute("user")));
p.setConstant(stringToBool(element.attribute("constant")));
p.setFinal(stringToBool(element.attribute("final")));
return p;
}
else
{
return Property();
}
}
void getUnit(ifstream& input,vector<Unit>& vecUnit)
{
if(!input)
return;
string str;
while(1)
{
str.clear();
getline(input,str);
if(str=="<Unit::nx type=全数>")
{//需要先读取很多行无用信息才能找到目标行，检索方法可以考虑改进
str.clear();
getline(input,str);
vector<string> vecUnitHeader=split(str);
int UnitEqColumn(0);//识别表头
int UnitV_RateColumn(0);
int UnitP_RateColumn(0);
int UnitTopoNodeColumn(0);
int UnitPColumn(0);
int UnitQColumn(0);
int UnitUeColumn(0);
int UnitAngColumn(0);
int UnitOffColumn(0);
int UnitP_HColumn(0);
int UnitP_LColumn(0);
int UnitQ_HColumn(0);
int UnitQ_LColumn(0);
int UnitVoltColumn(0);
for(size_t t=0;t<vecUnitHeader.size();++t)
{//考虑switch，更清晰
if(vecUnitHeader[t]=="Eq")
{
UnitEqColumn=t;
}
else if(vecUnitHeader[t]=="V_Rate")
{
UnitV_RateColumn=t;
}
else if(vecUnitHeader[t]=="P_Rate")
{
UnitP_RateColumn=t;
}
else if(vecUnitHeader[t]=="node")
{
UnitTopoNodeColumn=t;
}
else if(vecUnitHeader[t]=="P")
{
UnitPColumn=t;
}
else if(vecUnitHeader[t]=="Q")
{
UnitQColumn=t;
}
else if(vecUnitHeader[t]=="Ue")
{
UnitUeColumn=t;
}
else if(vecUnitHeader[t]=="Ang")
{
UnitAngColumn=t;
}
else if(vecUnitHeader[t]=="off")
{
UnitOffColumn=t;
}
else if(vecUnitHeader[t]=="P_H")
{
UnitP_HColumn=t;
}
else if(vecUnitHeader[t]=="P_L")
{
UnitP_LColumn=t;
}
else if(vecUnitHeader[t]=="Q_H")
{
UnitQ_HColumn=t;
}
else if(vecUnitHeader[t]=="Q_L")
{
UnitQ_LColumn=t;
}
else if(vecUnitHeader[t]=="Volt")
{
UnitVoltColumn=t;
}
else
continue;
}
const int UnitEqColumnConst=UnitEqColumn;//识别表头
const int UnitV_RateColumnConst=UnitV_RateColumn;
const int UnitP_RateColumnConst=UnitP_RateColumn;
const int UnitTopoNodeColumnConst=UnitTopoNodeColumn;
const int UnitPColumnConst=UnitPColumn;
const int UnitQColumnConst=UnitQColumn;
const int UnitUeColumnConst=UnitUeColumn;
const int UnitAngColumnConst=UnitAngColumn;
const int UnitOffColumnConst=UnitOffColumn;
const int UnitP_HColumnConst=UnitP_HColumn;
const int UnitP_LColumnConst=UnitP_LColumn;
const int UnitQ_HColumnConst=UnitQ_HColumn;
const int UnitQ_LColumnConst=UnitQ_LColumn;
const int UnitVoltColumnConst=UnitVoltColumn;
//记录所需要行列的位置
str.clear();//其中一行数据是不需要的，先清除一行数据
getline(input,str);
str.clear();
getline(input,str);
while(str!="</Unit::nx>")
{
vector<string> vec=split(str);
//所有数据都已经存放在vec中，接下来是选出有用数据,对数所进行转换
bool eq=stringToBool(vec[UnitEqColumnConst]);
double v_Rate=stringToDouble(vec[UnitV_RateColumnConst]);
double p_Rate=stringToDouble(vec[UnitP_RateColumnConst]);
string topoNode=vec[UnitTopoNodeColumnConst];
double p=stringToDouble(vec[UnitPColumnConst]);
double q=stringToDouble(vec[UnitQColumnConst]);
double ue=stringToDouble(vec[UnitUeColumnConst]);
double ang=stringToDouble(vec[UnitAngColumnConst]);
bool off=stringToBool(vec[UnitOffColumnConst]);
double p_H=stringToDouble(vec[UnitP_HColumnConst]);
double p_L=stringToDouble(vec[UnitP_LColumnConst]);
double q_H=stringToDouble(vec[UnitQ_HColumnConst]);
double q_L=stringToDouble(vec[UnitQ_LColumnConst]);
int volt=stringToInt(vec[UnitVoltColumnConst]);
//在bus表中找到对应的节点才创建ACline对象
Unit unit=createUnit(eq,v_Rate,p_Rate,topoNode,p,q,ue,ang,off,
p_H,p_L,q_H,q_L,volt);
vecUnit.push_back(unit);
str.clear();
getline(input,str);
}
}
if(str=="</Unit::nx>")
break;
}
}
bool TrackerConfig::getBoolParam(const std::string& sXPathExpr) const
{
return stringToBool(getParam(sXPathExpr));
}
void getTransData(ifstream& input,vector<Transformer>& vecTrans)
{//读取所有节点或其他信息函数
if(!input)
return;
string str;
while(1)
{
str.clear();
getline(input,str);
if(str=="<Transformer::nx type=全数>")
{
str.clear();
getline(input,str);
vector<string> vecTransHeader=split(str);
//识别表头
int transCodeColumn(0);
int transTypeColumn(0);
int transI_VolColumn(0);
int transK_VolColumn(0);
int transJ_VolColumn(0);
int transI_SColumn(0);
int transK_SColumn(0);
int transJ_SColumn(0);
int transItap_HColumn(0);
int transItap_LColumn(0);
int transItap_EColumn(0);
int transItap_CColumn(0);
int transItap_VColumn(0);
int transKtap_HColumn(0);
int transKtap_LColumn(0);
int transKtap_EColumn(0);
int transKtap_CColumn(0);
int transKtap_VColumn(0);
int transJtap_VColumn(0);
int transRiColumn(0);
int transXiColumn(0);
int transRkColumn(0);
int transXkColumn(0);
int transRjColumn(0);
int transXjColumn(0);
int transI_nodeColumn(0);
int transK_nodeColumn(0);
int transJ_nodeColumn(0);
int transI_PColumn(0);
int transI_QColumn(0);
int transK_PColumn(0);
int transK_QColumn(0);
int transJ_PColumn(0);
int transJ_QColumn(0);
int transI_tapColumn(0);
int transK_tapColumn(0);
int transI_offColumn(0);
int transK_offColumn(0);
int transJ_offColumn(0);
for(size_t t=0;t<vecTransHeader.size();++t)
{
if(vecTransHeader[t]=="id")
{
transCodeColumn=t;
}
else if(vecTransHeader[t]=="type")
{
transTypeColumn=t;
}
else if(vecTransHeader[t]=="I_Vol")
{
transI_VolColumn=t;
}
else if(vecTransHeader[t]=="K_Vol")
{
transK_VolColumn=t;
}
else if(vecTransHeader[t]=="J_Vol")
{
transJ_VolColumn=t;
}
else if(vecTransHeader[t]=="I_S")
{
transI_SColumn=t;
}
else if(vecTransHeader[t]=="K_S")
{
transK_SColumn=t;
}
else if(vecTransHeader[t]=="J_S")
{
transJ_SColumn=t;
}
else if(vecTransHeader[t]=="Itap_H")
{
transItap_HColumn=t;
}
else if(vecTransHeader[t]=="Itap_L")
{
transItap_LColumn=t;
}
else if(vecTransHeader[t]=="Itap_E")
{
transItap_EColumn=t;
}
else if(vecTransHeader[t]=="Itap_C")
{
transItap_CColumn=t;
}
else if(vecTransHeader[t]=="Itap_V")
{
transItap_VColumn=t;
}
else if(vecTransHeader[t]=="Ktap_H")
{
transKtap_HColumn=t;
}
else if(vecTransHeader[t]=="Ktap_L")
{
transKtap_LColumn=t;
}
else if(vecTransHeader[t]=="Ktap_E")
{
transKtap_EColumn=t;
}
else if(vecTransHeader[t]=="Ktap_C")
{
transKtap_CColumn=t;
}
else if(vecTransHeader[t]=="Ktap_V")
{
transKtap_VColumn=t;
}
else if(vecTransHeader[t]=="Jtap_V")
{
transJtap_VColumn=t;
}
else if(vecTransHeader[t]=="Ri")
{
transRiColumn=t;
}
else if(vecTransHeader[t]=="Xi")
{
transXiColumn=t;
}
else if(vecTransHeader[t]=="Rk")
{
transRkColumn=t;
}
else if(vecTransHeader[t]=="Xk")
{
transXkColumn=t;
}
else if(vecTransHeader[t]=="Rj")
{
transRjColumn=t;
}
else if(vecTransHeader[t]=="Xj")
{
transXjColumn=t;
}
else if(vecTransHeader[t]=="I_node")
{
transI_nodeColumn=t;
}
else if(vecTransHeader[t]=="K_node")
{
transK_nodeColumn=t;
}
else if(vecTransHeader[t]=="J_node")
{
transJ_nodeColumn=t;
}
else if(vecTransHeader[t]=="I_P")
{
transI_PColumn=t;
}
else if(vecTransHeader[t]=="I_Q")
{
transI_QColumn=t;
}
else if(vecTransHeader[t]=="K_P")
{
transK_PColumn=t;
}
else if(vecTransHeader[t]=="K_Q")
{
transK_QColumn=t;
}
else if(vecTransHeader[t]=="J_P")
{
transJ_PColumn=t;
}
else if(vecTransHeader[t]=="J_Q")
{
transJ_QColumn=t;
}
else if(vecTransHeader[t]=="I_tap")
{
transI_tapColumn=t;
}
else if(vecTransHeader[t]=="K_tap")
{
transK_tapColumn=t;
}
else if(vecTransHeader[t]=="I_off")
{
transI_offColumn=t;
}
else if(vecTransHeader[t]=="K_off")
{
transK_offColumn=t;
}
else if(vecTransHeader[t]=="J_off")
{
transJ_offColumn=t;
}
else
continue;
}
const int transCodeColumnConst=transCodeColumn;
const int transTypeColumnConst=transTypeColumn;
const int transI_VolColumnConst=transI_VolColumn;
const int transK_VolColumnConst=transK_VolColumn;
const int transJ_VolColumnConst=transJ_VolColumn;
const int transI_SColumnConst=transI_SColumn;
const int transK_SColumnConst=transK_SColumn;
const int transJ_SColumnConst=transJ_SColumn;
const int transItap_HColumnConst=transItap_HColumn;
const int transItap_LColumnConst=transItap_LColumn;
const int transItap_EColumnConst=transItap_EColumn;
const int transItap_CColumnConst=transItap_CColumn;
const int transItap_VColumnConst=transItap_VColumn;
const int transKtap_HColumnConst=transKtap_HColumn;
const int transKtap_LColumnConst=transKtap_LColumn;
const int transKtap_EColumnConst=transKtap_EColumn;
const int transKtap_CColumnConst=transKtap_CColumn;
const int transKtap_VColumnConst=transKtap_VColumn;
const int transJtap_VColumnConst=transJtap_VColumn;
const int transRiColumnConst=transRiColumn;
const int transXiColumnConst=transXiColumn;
const int transRkColumnConst=transRkColumn;
const int transXkColumnConst=transXkColumn;
const int transRjColumnConst=transRjColumn;
const int transXjColumnConst=transXjColumn;
const int transI_nodeColumnConst=transI_nodeColumn;
const int transK_nodeColumnConst=transK_nodeColumn;
const int transJ_nodeColumnConst=transJ_nodeColumn;
const int transI_PColumnConst=transI_PColumn;
const int transI_QColumnConst=transI_QColumn;
const int transK_PColumnConst=transK_PColumn;
const int transK_QColumnConst=transK_QColumn;
const int transJ_PColumnConst=transJ_PColumn;
const int transJ_QColumnConst=transJ_QColumn;
const int transI_tapColumnConst=transI_tapColumn;
const int transK_tapColumnConst=transK_tapColumn;
const int transI_offColumnConst=transI_offColumn;
const int transK_offColumnConst=transK_offColumn;
const int transJ_offColumnConst=transJ_offColumn;
//记录所需要行列的位置
str.clear();//其中一行数据是不需要的，先清除一行数据
getline(input,str);
str.clear();
getline(input,str);
while(str!="</Transformer::nx>")
{
vector<string> vec=split(str);
//所有数据都已经存放在vec中，接下来是选出有用数据,对数所进行转换
int code=stringToInt(vec[transCodeColumnConst]);
int type=stringToInt(vec[transTypeColumnConst]);
int i_vol=stringToInt(vec[transI_VolColumnConst]);
int k_vol=stringToInt(vec[transK_VolColumnConst]);
int j_vol=stringToInt(vec[transJ_VolColumnConst]);
int i_s=stringToInt(vec[transI_SColumnConst]);
int k_s=stringToInt(vec[transK_SColumnConst]);
int j_s=stringToInt(vec[transJ_SColumnConst]);
int itap_h=stringToInt(vec[transItap_HColumnConst]);
int itap_l=stringToInt(vec[transItap_LColumnConst]);
int itap_e=stringToInt(vec[transItap_EColumnConst]);
double itap_c=stringToDouble(vec[transItap_CColumnConst]);
int itap_v=stringToInt(vec[transItap_VColumnConst]);
int ktap_h=stringToInt(vec[transKtap_HColumnConst]);
int ktap_l=stringToInt(vec[transKtap_LColumnConst]);
int ktap_e=stringToInt(vec[transKtap_EColumnConst]);
double ktap_c=stringToDouble(vec[transKtap_CColumnConst]);
int ktap_v=stringToInt(vec[transKtap_VColumnConst]);
int jtap_v=stringToInt(vec[transJtap_VColumnConst]);
double ri=stringToDouble(vec[transRiColumnConst]);
double xi=stringToDouble(vec[transXiColumnConst]);
double rk=stringToDouble(vec[transRkColumnConst]);
double xk=stringToDouble(vec[transXkColumnConst]);
double rj=stringToDouble(vec[transRjColumnConst]);
double xj=stringToDouble(vec[transXjColumnConst]);
string i_node=vec[transI_nodeColumnConst];
// string i_node="abcefdfdfaf";
string k_node=vec[transK_nodeColumnConst];
string j_node=vec[transJ_nodeColumnConst];
double i_p=stringToDouble(vec[transI_PColumnConst]);
double i_q=stringToDouble(vec[transI_QColumnConst]);
double k_p=stringToDouble(vec[transK_PColumnConst]);
double k_q=stringToDouble(vec[transK_QColumnConst]);
double j_p=stringToDouble(vec[transJ_PColumnConst]);
double j_q=stringToDouble(vec[transJ_QColumnConst]);
int i_tap=stringToInt(vec[transI_tapColumnConst]);
int k_tap=stringToInt(vec[transK_tapColumnConst]);
bool iOff=stringToBool(vec[transI_offColumnConst]);
bool kOff=stringToBool(vec[transK_offColumnConst]);
bool jOff=stringToBool(vec[transJ_offColumnConst]);
//判断Transformer两端节点是否都在Bus表内，并找到对应的拓扑节点编号，满足则为有用信息
/*int i_node=0;
int j_node=0;//拓扑节点编号
for(vector<Bus>::iterator iter=vecBus.begin();iter!=vecBus.end();++iter)
{
if( i_nodename==(*iter).getBusName() )
i_node=(*iter).getBusCode();
if( j_nodename==(*iter).getBusName() )
j_node=(*iter).getBusCode();
}*/
Transformer trans=createTransformer( code, type, i_vol, k_vol, j_vol, i_s, k_s, j_s,
itap_h, itap_l, itap_e, itap_c, itap_v, ktap_h, ktap_l, ktap_e, ktap_c, ktap_v, jtap_v,
ri, xi, rk, xk, rj, xj, i_node, k_node, j_node, i_p, i_q, k_p, k_q, j_p, j_q,
i_tap, k_tap , iOff, kOff, jOff);
/*size_t t=0;
for(;t<vecTrans.size();++t)
{
if(vecTrans[t]==trans)
{
str.clear();
getline(input,str);
break;
}
}
if(t<vecTrans.size())continue;*/
vecTrans.push_back(trans);
str.clear();
getline(input,str);
}
}
if(str=="</Transformer::nx>")
break;
}
}
/*!
Returns true is configuration says that window should be maximised.
\sa setMaximised
*/
bool CcfConfig::isMaximised() const
{
QString result = mConfiguration->value("maximised");
return stringToBool(result);
}
