std::string NeuralNetworkRepresentation::insertNeuron(ioPair identification,
unsigned int layer, unsigned int type) {
boost::shared_ptr<NeuronRepresentation> neuron = boost::shared_ptr<
NeuronRepresentation>(
new NeuronRepresentation(identification, layer, type));
// insert into map
if (neurons_.count(identification)) {
std::cout << "ATTENTION: attempting to insert a neuron with id " <<
identification.first << "-" << identification.second <<
", which already exists" << std::endl;
}
neurons_[identification] = neuron;
// generate weights
for (NeuronMap::iterator it = neurons_.begin(); it != neurons_.end();
++it) {
// generate incoming
if (!neuron->isInput() &&
(neuron->getType() != NeuronRepresentation::OSCILLATOR)) {
weights_[StringPair(it->second->getId(), neuron->getId())] = 0.;
}
// generate outgoing (no need to worry about double declaration of the
// recursion, as we deal with a map!)
if (!it->second->isInput())
weights_[StringPair(neuron->getId(), it->second->getId())] = 0.;
}
return neuron->getId();
}
void GameDatabase::LoadGame(const size_t index, Game &game,
const GameObjectEnginePtr &engine,
ISerialize& stats)
{
wxASSERT(mOffsets.size() > index);
wxFileInputStream x(FilePath::Data(DataFileGames));
wxDataInputStream games(x);
// Seek to this position in the game file.
x.SeekI(mOffsets[index]);
// Read in the rulesets this game was using.
wxUint32 size;
games >> size;
StringPairArray rulesets;
rulesets.reserve(size);
for(wxUint32 i = 0; i < size; ++i)
{
wxString module, ruleset;
games >> module;
games >> ruleset;
rulesets.push_back(StringPair(module, ruleset));
}
games >> size;
StringPairArray options;
options.reserve(size);
for(wxUint32 i = 0; i < size; ++i)
{
wxString module, ruleset;
games >> module;
games >> ruleset;
options.push_back(StringPair(module, ruleset));
}
// Fire off the load event for any listeners to deal with it.
if(engine)
{
Controller::get().Transmit(shEventLoadRulesets, rulesets);
Controller::get().Transmit(shEventLoadOptions, options);
// Immediately start up the game, too.
Controller::get().Transmit(shEventStartGame, false);
}
game.load(games, engine);
// Stats must always go at the end so we can ignore them while loading if
// desired.
stats.load(games);
}
TGen::Engine::CommandTokenizer::CommandTokenizer() {
autoAddTilNextIgnore = true;
ignores.push_back(" ");
ignores.push_back("\t");
ignores.push_back("\r");
quotes.push_back(StringPair("\"", "\""));
comments.push_back(StringPair("//", "\n"));
comments.push_back(StringPair("/*", "*/"));
tokens["\n"] = TGen::Engine::CommandTokenEOL;
tokens[";"] = TGen::Engine::CommandTokenEOL;
}
Model::Model(const QString& hashTableFilename, QTextStream& out) {
countTagsPair.clear();
dict.clear();
endsAndTags.clear();
countEndsTags.clear();
QFile fin(hashTableFilename);
if (!fin.open(QIODevice::ReadOnly)) {
out << "ERROR: hash table file not found" << endl;
}
QByteArray rawInput = fin.readAll();
rawInput = qUncompress(rawInput);
QTextStream htFile(rawInput, QIODevice::ReadOnly);
htFile.setCodec("CP1251");
QString tmp1, tmp2, tmp3;
ulong longtmp;
QString curTags;
while (true) {
htFile >> tmp1;
if (tmp1 == "&") {
htFile >> curTags;
continue;
}
if (tmp1 == "----------") {
break;
}
htFile >> tmp2;
dict.insert(tmp2, StringPair(tmp1, curTags));
}
void AlsaDeviceListModel::init(
const char * _iface,
const char * _filter)
{
void **hints, **n;
char *name, *descr, *io;
if (snd_device_name_hint(-1, _iface, &hints) < 0)
return;
n = hints;
while (*n != NULL) {
name = snd_device_name_get_hint(*n, "NAME");
descr = snd_device_name_get_hint(*n, "DESC");
io = snd_device_name_get_hint(*n, "IOID");
// Filter out non-null or filtered items
if (io == NULL || _filter == NULL || strcmp(io, _filter) == 0)
m_devices.append(StringPair(name, descr));
if (name != NULL)
free(name);
if (descr != NULL)
free(descr);
if (io != NULL)
free(io);
n++;
}
snd_device_name_free_hint(hints);
}
TGen::PropertyTreeTokenizer::PropertyTreeTokenizer() {
autoAddTilNextIgnore = true;
ignores.push_back(" ");
ignores.push_back("\t");
ignores.push_back("\r");
//ignores.push_back("\n");
quotes.push_back(StringPair("\"", "\""));
comments.push_back(StringPair("//", "\n"));
comments.push_back(StringPair("/*", "*/"));
tokens["{"] = TGen::PropertyTokenBlockStart;
tokens["}"] = TGen::PropertyTokenBlockEnd;
tokens["\n"] = TGen::PropertyTokenEOL;
tokens[";"] = TGen::PropertyTokenNodeEnd;
}
int ads_MyDialog()
{
// sample from brxtemplate
//++-- See StdAfx for these types
StringPairs LayerList;
AcDbDatabase *pDb = acdbHostApplicationServices()->workingDatabase();
pDb->layerTableId();
LayerTablePointer pLayerTable(pDb->layerTableId(),AcDb::kForRead);
if(pLayerTable.openStatus() != eOk)
{
ads_retnil();
return( RSRSLT);
}
AcDbLayerTableIterator *pLayerTableIterator;
pLayerTable->newIterator(pLayerTableIterator);
//++-- iterate though and get our stuff
for (pLayerTableIterator->start();
!pLayerTableIterator->done();
pLayerTableIterator->step())
{
AcDbObjectId LayerId;
TCHAR *LayerName;
CString LayerColor;
pLayerTableIterator->getRecordId(LayerId);
LayerTableRecordPointer pLayerTableRecord(LayerId,AcDb::kForRead);
pLayerTableRecord->getName(LayerName);
AcCmColor clr = pLayerTableRecord->color();
LayerColor = clr.bookName();
LayerColor.Format(_T("Red = %03d Green = %03d Blue = %03d "),
clr.red(), clr.green() , clr.blue());
LayerList.push_back(StringPair(String(LayerName), String(LayerColor)));
}
delete pLayerTableIterator;
{
// you should always call this before your diaog;
CAcModuleResourceOverride resOverride;
//show our dialog
MyDialog dlg(LayerList,CWnd::FromHandle(adsw_acadMainWnd()));
dlg.DoModal();
}
ads_retnil();
return( RSRSLT);
}
SBAPI SBRetarget* SBRetargetManager::getRetarget( std::string sourceSk, std::string targetSk )
{
StringPair skNamePair = StringPair(sourceSk,targetSk);
SmartBody::SBRetarget* retarget = NULL;
if (_retargets.find(skNamePair) != _retargets.end())
{
retarget = _retargets[skNamePair];
}
return retarget;
}
MapTokenizer::MapTokenizer() {
autoAddTilNextIgnore = true;
ignores.push_back(" ");
ignores.push_back("\t");
ignores.push_back("\r");
// ignores.push_back("\n");
quotes.push_back(StringPair("\"", "\""));
comments.push_back(StringPair("//", "\n"));
comments.push_back(StringPair("/*", "*/"));
tokens["{"] = MapTokenBlockStart;
tokens["}"] = MapTokenBlockEnd;
tokens["mesh"] = MapTokenMesh;
tokens["vertices"] = MapTokenVertices;
tokens["indices"] = MapTokenIndices;
tokens["\n"] = MapTokenEndOfLine;
}
SBAPI SBRetarget* SBRetargetManager::createRetarget( std::string sourceSk, std::string targetSk )
{
if (getRetarget(sourceSk, targetSk))
{
LOG("Retarget for skeleton pair (%s,%s) already exist.", sourceSk.c_str(), targetSk.c_str());
return NULL;
}
SmartBody::SBRetarget* retarget = new SmartBody::SBRetarget(sourceSk,targetSk);
StringPair skNamePair = StringPair(sourceSk,targetSk);
_retargets[skNamePair] = retarget;
return retarget;
}
void NeuralNetworkRepresentation::generateCloneWeights(
std::map<std::string, std::string> &oldNew) {
typedef std::map<std::string, std::string> MyMap;
// for every neuron in the cloned tree
for (MyMap::iterator itNeuron = oldNew.begin(); itNeuron != oldNew.end(); ++itNeuron) {
std::string oldRon = itNeuron->first;
std::string newRon = itNeuron->second;
// for every weight
for (WeightMap::iterator it = weights_.begin(); it != weights_.end();
++it) {
// if outgoing
if (it->first.first.compare(oldRon) == 0) {
// if destination neuron was in original subtree
if (oldNew.find(it->first.second) != oldNew.end()) {
weights_[StringPair(newRon,
oldNew.find(it->first.second)->second)] =
it->second;
} else {
weights_[StringPair(newRon, it->first.second)] = it->second;
}
}
// if incoming
if (it->first.second.compare(oldRon) == 0) {
// if destination neuron was in original subtree
if (oldNew.find(it->first.first) != oldNew.end()) {
weights_[StringPair(oldNew.find(it->first.first)->second,
newRon)] = it->second;
} else {
weights_[StringPair(it->first.first, newRon)] = it->second;
}
}
}
}
}
long AliasDialog::onModify(FXObject*, FXSelector, void*)
{
FXint row = m_table->getCurrentItem();
FXString oldkey = m_table->getItemText(row).before('\t');
FXDialogBox aliasEdit(this, _("Alias edit"), DECOR_TITLE|DECOR_BORDER, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0);
FXVerticalFrame *contents = new FXVerticalFrame(&aliasEdit, LAYOUT_SIDE_LEFT|LAYOUT_FILL_X|LAYOUT_FILL_Y, 0, 0, 0, 0, 10, 10, 10, 10, 0, 0);
FXMatrix *matrix = new FXMatrix(contents, 2, MATRIX_BY_COLUMNS|LAYOUT_SIDE_TOP|LAYOUT_FILL_X|LAYOUT_FILL_Y);
new FXLabel(matrix, _("Alias:"), NULL, JUSTIFY_LEFT|LAYOUT_FILL_COLUMN|LAYOUT_FILL_ROW);
FXTextField *alias = new FXTextField(matrix, 25, NULL, 0, FRAME_THICK|FRAME_SUNKEN|LAYOUT_FILL_COLUMN|LAYOUT_FILL_ROW);
alias->setText(oldkey);
new FXLabel(matrix, _("Command:"), NULL, JUSTIFY_LEFT|LAYOUT_FILL_COLUMN|LAYOUT_FILL_ROW);
FXTextField *command = new FXTextField(matrix, 25, NULL, 0, FRAME_THICK|FRAME_SUNKEN|LAYOUT_FILL_COLUMN|LAYOUT_FILL_ROW);
command->setText(m_table->getItemText(row).after('\t'));
FXHorizontalFrame *buttonframe = new FXHorizontalFrame(contents, LAYOUT_FILL_X|LAYOUT_FILL_Y|PACK_UNIFORM_WIDTH);
new dxEXButton(buttonframe, _("&Cancel"), NULL, &aliasEdit, FXDialogBox::ID_CANCEL, FRAME_RAISED|FRAME_THICK|LAYOUT_RIGHT, 0, 0, 0, 0, 10, 10, 2, 2);
new dxEXButton(buttonframe, _("&OK"), NULL, &aliasEdit, FXDialogBox::ID_ACCEPT, BUTTON_INITIAL|BUTTON_DEFAULT|FRAME_RAISED|FRAME_THICK|LAYOUT_RIGHT, 0, 0, 0, 0, 10, 10, 2, 2);
if(aliasEdit.execute(PLACEMENT_OWNER))
{
if(alias->getText().empty() || command->getText().empty())
return 1;
if(alias->getText()[0] != '/')
{
dxEXMessageBox::information(this, MBOX_OK, _("Information"), _("Alias command has to start with '/'"));
return 1;
}
if(alias->getText().contains(' '))
{
dxEXMessageBox::information(this, MBOX_OK, _("Information"), _("Alias command cann't contain space"));
return 1;
}
if(commandExist(alias->getText()) && comparecase(alias->getText(), oldkey))
{
dxEXMessageBox::information(this, MBOX_OK, _("Information"), _("Command '%s' already exist"), alias->getText().text());
return 1;
}
m_aliases.erase(oldkey);
m_aliases.insert(StringPair(alias->getText(), command->getText()));
updateTable();
}
return 1;
}
//------------------------------------------------------------------------------
// Method: ExtendBridge
//
// Description: Constructor.
//
// Return:
// none
//
//------------------------------------------------------------------------------
ExtendBridge::ExtendBridge() {
// initialize the OLE
OleInitialize(NULL);
pExtendDisp = NULL;
extendPath = NULL;
//
// Standard libraries (libraries usually required by SEI models)
//
libraries.insert(StringPair(SEI_LIB, "SEI-2.lix"));
libraries.insert(StringPair(BPR_LIB, "BPR.lix"));
libraries.insert(StringPair(UTILITIES_LIB, "Utilities.lix"));
libraries.insert(StringPair(DISCRETE_LIB, "Discrete Event.lix"));
libraries.insert(StringPair(GENERIC_LIB, "Generic.lix"));
libraries.insert(StringPair(PLOTTER_LIB, "Plotter.lix"));
}
bool GraphFile::IsDimacsFile(std::string filename) const {
std::ifstream file_stream;
file_stream.open(filename);
AssertOrDie(static_cast<bool>(file_stream), "Error: can't open " + filename);
bool problem_line_seen = false;
size_t vertices = 0, edges = 0;
std::set< StringPair > edges_seen;
std::set< std::string > vertices_seen;
std::string line;
while (std::getline(file_stream, line)) {
StringTokens line_tokens = Split(line, " \t");
if (line_tokens.empty() || line_tokens[0].length() != 1) {
return false;
}
switch (line_tokens[0][0]) {
case 'c': {
break;
}
case 'e' : {
if (!problem_line_seen ||
line_tokens.size() != 3 ||
!IsNum(line_tokens[1]) ||
!IsNum(line_tokens[2])) {
return false;
}
std::string u = line_tokens[1], v = line_tokens[2];
if (edges_seen.find(StringPair(u, v)) != edges_seen.end()) {
return false;
}
vertices_seen.insert(u);
vertices_seen.insert(v);
edges_seen.insert(StringPair(u, v));
edges_seen.insert(StringPair(v, u));
break;
}
case 'p' : {
if (problem_line_seen ||
line_tokens.size() != 4 ||
!IsNum(line_tokens[2]) ||
!IsNum(line_tokens[3]) ) {
return false;
}
problem_line_seen = true;
vertices = std::stoi(line_tokens[2]);
edges = std::stoi(line_tokens[3]);
break;
}
default: {
return false;
}
}
}
if (2*edges != edges_seen.size() ||
vertices > vertices_seen.size() ||
!problem_line_seen) {
return false;
}
file_stream.close();
return true;
}
bool processStateMachineNode(AnimNode::Pointer node, const QJsonObject& jsonObj, const QString& nodeId, const QUrl& jsonUrl) {
auto smNode = std::static_pointer_cast<AnimStateMachine>(node);
assert(smNode);
READ_STRING(currentState, jsonObj, nodeId, jsonUrl, false);
auto statesValue = jsonObj.value("states");
if (!statesValue.isArray()) {
qCCritical(animation) << "AnimNodeLoader, bad array \"states\" in stateMachine node, id =" << nodeId;
return false;
}
// build a map for all children by name.
std::map<QString, int> childMap;
buildChildMap(childMap, node);
// first pass parse all the states and build up the state and transition map.
using StringPair = std::pair<QString, QString>;
using TransitionMap = std::multimap<AnimStateMachine::State::Pointer, StringPair>;
TransitionMap transitionMap;
using StateMap = std::map<QString, AnimStateMachine::State::Pointer>;
StateMap stateMap;
auto statesArray = statesValue.toArray();
for (const auto& stateValue : statesArray) {
if (!stateValue.isObject()) {
qCCritical(animation) << "AnimNodeLoader, bad state object in \"states\", id =" << nodeId;
return false;
}
auto stateObj = stateValue.toObject();
READ_STRING(id, stateObj, nodeId, jsonUrl, false);
READ_FLOAT(interpTarget, stateObj, nodeId, jsonUrl, false);
READ_FLOAT(interpDuration, stateObj, nodeId, jsonUrl, false);
READ_OPTIONAL_STRING(interpType, stateObj);
READ_OPTIONAL_STRING(interpTargetVar, stateObj);
READ_OPTIONAL_STRING(interpDurationVar, stateObj);
READ_OPTIONAL_STRING(interpTypeVar, stateObj);
auto iter = childMap.find(id);
if (iter == childMap.end()) {
qCCritical(animation) << "AnimNodeLoader, could not find stateMachine child (state) with nodeId =" << nodeId << "stateId =" << id;
return false;
}
AnimStateMachine::InterpType interpTypeEnum = AnimStateMachine::InterpType::SnapshotPrev; // default value
if (!interpType.isEmpty()) {
interpTypeEnum = stringToInterpType(interpType);
if (interpTypeEnum == AnimStateMachine::InterpType::NumTypes) {
qCCritical(animation) << "AnimNodeLoader, bad interpType on stateMachine state, nodeId = " << nodeId << "stateId =" << id;
return false;
}
}
auto statePtr = std::make_shared<AnimStateMachine::State>(id, iter->second, interpTarget, interpDuration, interpTypeEnum);
assert(statePtr);
if (!interpTargetVar.isEmpty()) {
statePtr->setInterpTargetVar(interpTargetVar);
}
if (!interpDurationVar.isEmpty()) {
statePtr->setInterpDurationVar(interpDurationVar);
}
if (!interpTypeVar.isEmpty()) {
statePtr->setInterpTypeVar(interpTypeVar);
}
smNode->addState(statePtr);
stateMap.insert(StateMap::value_type(statePtr->getID(), statePtr));
auto transitionsValue = stateObj.value("transitions");
if (!transitionsValue.isArray()) {
qCritical(animation) << "AnimNodeLoader, bad array \"transitions\" in stateMachine node, stateId =" << id << "nodeId =" << nodeId;
return false;
}
auto transitionsArray = transitionsValue.toArray();
for (const auto& transitionValue : transitionsArray) {
if (!transitionValue.isObject()) {
qCritical(animation) << "AnimNodeLoader, bad transition object in \"transtions\", stateId =" << id << "nodeId =" << nodeId;
return false;
}
auto transitionObj = transitionValue.toObject();
READ_STRING(var, transitionObj, nodeId, jsonUrl, false);
READ_STRING(state, transitionObj, nodeId, jsonUrl, false);
transitionMap.insert(TransitionMap::value_type(statePtr, StringPair(var, state)));
}
}
// second pass: now iterate thru all transitions and add them to the appropriate states.
for (auto& transition : transitionMap) {
AnimStateMachine::State::Pointer srcState = transition.first;
auto iter = stateMap.find(transition.second.second);
if (iter != stateMap.end()) {
srcState->addTransition(AnimStateMachine::State::Transition(transition.second.first, iter->second));
} else {
qCCritical(animation) << "AnimNodeLoader, bad state machine transtion from srcState =" << srcState->_id << "dstState =" << transition.second.second << "nodeId =" << nodeId;
return false;
}
}
auto iter = stateMap.find(currentState);
if (iter == stateMap.end()) {
qCCritical(animation) << "AnimNodeLoader, bad currentState =" << currentState << "could not find child node" << "id =" << nodeId;
}
smNode->setCurrentState(iter->second);
return true;
}
bool GoogleTranslate::parseReply(const QByteArray &reply)
{
#if QT_VERSION >= QT_VERSION_CHECK(5,0,0)
// JSON coming from Google is invalid due to sequences
// like ",,". Replacing all ",," with ",null," allows
// us to parse JSON with QJsonDocument.
QString json = QString::fromUtf8(reply);
if (json.isEmpty()) {
m_error = commonString(EmptyResultCommonString).arg(displayName());
return true;
}
int i = 1;
bool skip = json.at(0) == '"';
while (i < json.length()) {
const QStringRef mid = json.midRef(i - 1, 2);
if (mid.at(1) == '"' && mid.compare(QLatin1String("\\\"")) != 0) {
skip = !skip;
++i;
}
if (!skip && (mid.compare(QLatin1String(",,")) == 0
|| mid.compare(QLatin1String("[,")) == 0
|| mid.compare(QLatin1String(",]")) == 0)) {
json.insert(i, "null");
i += 4;
}
++i;
}
const QVariant data = parseJson(json.toUtf8());
#else
const QVariant data = parseJson(reply);
#endif
if (!data.isValid() || data.type() != QVariant::List)
return false;
const QVariantList dl = data.toList();
if (dl.isEmpty()) {
m_error = commonString(EmptyResultCommonString).arg(displayName());
return true;
}
const QString detected = dl.value(2).toString();
m_detectedLanguage = Language(detected, getLanguageName(detected));
m_translation.clear();
m_translit = StringPair();
foreach (const QVariant &ti, dl.value(0).toList()) {
const QVariantList tr = ti.toList();
if (!tr.value(0).isNull())
m_translation.append(tr.value(0).toString());
if (!tr.value(2).isNull())
m_translit.second.append(tr.value(2).toString());
if (!tr.value(3).isNull())
m_translit.first.append(tr.value(3).toString());
}
m_dict->clear();
if (dl.value(1).type() == QVariant::List) {
foreach (const QVariant &di, dl.value(1).toList()) {
const QVariantList dil = di.toList();
// Translations
const QStringList trans = dil.value(1).toStringList();
// Part of speech
DictionaryPos pos(dil.value(0).toString(), trans);
// Reverse translations
foreach (const QVariant &ei, dil.value(2).toList()) {
const QVariantList eil = ei.toList();
// Word from translations for which reverse translations are provided
QString word = eil.value(0).toString();
// Reverse translations for the aforementioned word
const QStringList rtrans = eil.value(1).toStringList();
// Article for the aforementioned word (if provided)
if (!eil.value(4).toString().isEmpty())
word.prepend(eil.value(4).toString() + " ");
pos.reverseTranslations()->append(word, QStringList(), rtrans);
}
m_dict->append(pos);
}
}
bool NeuralNetworkRepresentation::connectionExists(std::string from,
std::string to) {
return (weights_.count(StringPair(from, to)) > 0);
}
///////////////////////////////////////////////////////////////
//
// CPerfStatServerInfoImpl::GetStats
//
//
//
///////////////////////////////////////////////////////////////
void CPerfStatServerInfoImpl::GetStats ( CPerfStatResult* pResult, const std::map < SString, int >& strOptionMap, const SString& strFilter )
{
//
// Set option flags
//
bool bHelp = MapContains ( strOptionMap, "h" );
bool bIncludeDebugInfo = MapContains ( strOptionMap, "d" );
//
// Process help
//
if ( bHelp )
{
pResult->AddColumn ( "Server info help" );
pResult->AddRow ()[0] ="Option h - This help";
pResult->AddRow ()[0] ="Option d - Include debug info";
return;
}
// Calculate current rates
long long llIncomingBytesPS = CPerfStatManager::GetPerSecond ( m_llDeltaGameBytesRecv, m_DeltaTickCount.ToLongLong () );
long long llIncomingBytesPSBlocked = CPerfStatManager::GetPerSecond ( m_llDeltaGameBytesRecvBlocked, m_DeltaTickCount.ToLongLong () );
long long llOutgoingBytesPS = CPerfStatManager::GetPerSecond ( m_llDeltaGameBytesSent, m_DeltaTickCount.ToLongLong () );
long long llOutgoingBytesResentPS = CPerfStatManager::GetPerSecond ( m_llDeltaGameBytesResent, m_DeltaTickCount.ToLongLong () );
SString strIncomingPacketsPS = CPerfStatManager::GetPerSecondString ( m_llDeltaGamePacketsRecv, m_DeltaTickCount.ToDouble () );
SString strIncomingPacketsPSBlocked = CPerfStatManager::GetPerSecondString ( m_llDeltaGamePacketsRecvBlocked, m_DeltaTickCount.ToDouble () );
SString strOutgoingPacketsPS = CPerfStatManager::GetPerSecondString ( m_llDeltaGamePacketsSent, m_DeltaTickCount.ToDouble () );
SString strOutgoingMessagesResentPS = CPerfStatManager::GetPerSecondString ( m_llDeltaGameMessagesResent, m_DeltaTickCount.ToDouble () );
// Estimate total network usage
long long llIncomingPacketsPS = CPerfStatManager::GetPerSecond ( m_llDeltaGamePacketsRecv, m_DeltaTickCount.ToLongLong () );
long long llIncomingPacketsPSBlocked = CPerfStatManager::GetPerSecond ( m_llDeltaGamePacketsRecvBlocked, m_DeltaTickCount.ToLongLong () );
long long llOutgoingPacketsPS = CPerfStatManager::GetPerSecond ( m_llDeltaGamePacketsSent, m_DeltaTickCount.ToLongLong () );
long long llNetworkUsageBytesPS = ( llIncomingPacketsPS + llOutgoingPacketsPS ) * UDP_PACKET_OVERHEAD + llIncomingBytesPS + llOutgoingBytesPS;
long long llNetworkUsageBytesPSInclBlocked = ( llIncomingPacketsPS + llIncomingPacketsPSBlocked + llOutgoingPacketsPS ) * UDP_PACKET_OVERHEAD + llIncomingBytesPS + llIncomingBytesPSBlocked + llOutgoingBytesPS;
// Calculate uptime
time_t tUptime = time ( NULL ) - m_tStartTime;
time_t tDays = tUptime / ( 60 * 60 * 24 );
tUptime = tUptime % ( 60 * 60 * 24 );
time_t tHours = tUptime / ( 60 * 60 );
tUptime = tUptime % ( 60 * 60 );
time_t tMinutes = tUptime / ( 60 );
SString strNone;
CMainConfig* pConfig = g_pGame->GetConfig ();
m_InfoList.clear ();
m_StatusList.clear ();
m_OptionsList.clear ();
// Fill info lists
m_InfoList.push_back ( StringPair ( "Platform", CStaticFunctionDefinitions::GetOperatingSystemName () ) );
m_InfoList.push_back ( StringPair ( "Version", CStaticFunctionDefinitions::GetVersionSortable () ) );
m_InfoList.push_back ( StringPair ( "Date", GetLocalTimeString ( true ) ) );
m_InfoList.push_back ( StringPair ( "Uptime", SString ( "%d Days %d Hours %02d Mins", (int)tDays, (int)tHours, (int)tMinutes ) ) );
m_InfoList.push_back ( StringPair ( "Memory", GetProcessMemoryUsage() ) );
if ( !pConfig->GetThreadNetEnabled () )
m_StatusList.push_back ( StringPair ( "Server FPS", SString ( "%d", g_pGame->GetServerFPS () ) ) );
else
m_StatusList.push_back ( StringPair ( "Server FPS sync (logic)", SString ( "%3d (%d)", g_pGame->GetSyncFPS (), g_pGame->GetServerFPS () ) ) );
m_StatusList.push_back ( StringPair ( "Players", SString ( "%d / %d", g_pGame->GetPlayerManager ()->Count (), pConfig->GetMaxPlayers () ) ) );
m_StatusList.push_back ( StringPair ( "Bytes/sec incoming", CPerfStatManager::GetScaledByteString ( llIncomingBytesPS ) ) );
m_StatusList.push_back ( StringPair ( "Bytes/sec outgoing", CPerfStatManager::GetScaledByteString ( llOutgoingBytesPS ) ) );
m_StatusList.push_back ( StringPair ( "Packets/sec incoming", strIncomingPacketsPS ) );
m_StatusList.push_back ( StringPair ( "Packets/sec outgoing", strOutgoingPacketsPS ) );
m_StatusList.push_back ( StringPair ( "Packet loss outgoing", CPerfStatManager::GetPercentString ( llOutgoingBytesResentPS, llOutgoingBytesPS ) ) );
m_StatusList.push_back ( StringPair ( "Approx network usage", CPerfStatManager::GetScaledBitString ( llNetworkUsageBytesPS * 8LL ) + "/s" ) );
if ( pConfig->GetThreadNetEnabled () )
{
m_StatusList.push_back ( StringPair ( "Msg queue incoming", SString ( "%d", CNetBufferWatchDog::ms_uiInResultQueueSize ) ) );
if ( bIncludeDebugInfo )
m_StatusList.push_back ( StringPair ( " finished incoming", SString ( "%d", CNetBufferWatchDog::ms_uiFinishedListSize ) ) );
m_StatusList.push_back ( StringPair ( "Msg queue outgoing", SString ( "%d", CNetBufferWatchDog::ms_uiOutCommandQueueSize ) ) );
if ( bIncludeDebugInfo )
m_StatusList.push_back ( StringPair ( " finished outgoing", SString ( "%d", CNetBufferWatchDog::ms_uiOutResultQueueSize ) ) );
}
if ( ASE* pAse = ASE::GetInstance() )
m_StatusList.push_back ( StringPair ( "ASE queries", SString ( "%d (%d/min)", pAse->GetTotalQueryCount (), pAse->GetQueriesPerMinute () ) ) );
m_OptionsList.push_back ( StringPair ( "MinClientVersion", g_pGame->CalculateMinClientRequirement () ) );
m_OptionsList.push_back ( StringPair ( "RecommendedClientVersion", pConfig->GetRecommendedClientVersion () ) );
m_OptionsList.push_back ( StringPair ( "NetworkEncryptionEnabled", SString ( "%d", pConfig->GetNetworkEncryptionEnabled () ) ) );
m_OptionsList.push_back ( StringPair ( "VoiceEnabled", SString ( "%d", pConfig->IsVoiceEnabled () ) ) );
m_OptionsList.push_back ( StringPair ( "Busy sleep time", SString ( "%d ms", pConfig->GetPendingWorkToDoSleepTime () ) ) );
m_OptionsList.push_back ( StringPair ( "Idle sleep time", SString ( "%d ms", pConfig->GetNoWorkToDoSleepTime () ) ) );
m_OptionsList.push_back ( StringPair ( "BandwidthReductionMode", pConfig->GetSetting ( "bandwidth_reduction" ) ) );
m_OptionsList.push_back ( StringPair ( "LightSyncEnabled", SString ( "%d", g_pBandwidthSettings->bLightSyncEnabled ) ) );
m_OptionsList.push_back ( StringPair ( "ThreadNetEnabled", SString ( "%d", pConfig->GetThreadNetEnabled () ) ) );
const static CTickRateSettings defaultRates;
if ( defaultRates.iPureSync != g_TickRateSettings.iPureSync )
m_OptionsList.push_back ( StringPair ( "Player sync interval", SString ( "%d", g_TickRateSettings.iPureSync ) ) );
if ( defaultRates.iLightSync != g_TickRateSettings.iLightSync )
m_OptionsList.push_back ( StringPair ( "Lightweight sync interval", SString ( "%d", g_TickRateSettings.iLightSync ) ) );
if ( defaultRates.iCamSync != g_TickRateSettings.iCamSync )
m_OptionsList.push_back ( StringPair ( "Camera sync interval", SString ( "%d", g_TickRateSettings.iCamSync ) ) );
if ( defaultRates.iPedSync != g_TickRateSettings.iPedSync )
m_OptionsList.push_back ( StringPair ( "Ped sync interval", SString ( "%d", g_TickRateSettings.iPedSync ) ) );
if ( defaultRates.iUnoccupiedVehicle != g_TickRateSettings.iUnoccupiedVehicle )
m_OptionsList.push_back ( StringPair ( "Unocc. veh. sync interval", SString ( "%d", g_TickRateSettings.iUnoccupiedVehicle ) ) );
if ( defaultRates.iKeySyncRotation != g_TickRateSettings.iKeySyncRotation )
m_OptionsList.push_back ( StringPair ( "Keysync mouse sync interval", SString ( "%d", g_TickRateSettings.iKeySyncRotation ) ) );
if ( defaultRates.iKeySyncAnalogMove != g_TickRateSettings.iKeySyncAnalogMove )
m_OptionsList.push_back ( StringPair ( "Keysync analog sync interval", SString ( "%d", g_TickRateSettings.iKeySyncAnalogMove ) ) );
if ( defaultRates.iKeySyncAnalogMove != g_TickRateSettings.iNearListUpdate )
m_OptionsList.push_back ( StringPair ( "Update near interval", SString ( "%d", g_TickRateSettings.iNearListUpdate ) ) );
if ( bIncludeDebugInfo )
{
m_StatusList.push_back ( StringPair ( "Bytes/sec outgoing resent", CPerfStatManager::GetScaledByteString ( llOutgoingBytesResentPS ) ) );
m_StatusList.push_back ( StringPair ( "Msgs/sec outgoing resent", strOutgoingMessagesResentPS ) );
m_StatusList.push_back ( StringPair ( "Bytes/sec blocked", CPerfStatManager::GetScaledByteString ( llIncomingBytesPSBlocked ) ) );
m_StatusList.push_back ( StringPair ( "Packets/sec blocked", strIncomingPacketsPSBlocked ) );
m_StatusList.push_back ( StringPair ( "Usage incl. blocked", CPerfStatManager::GetScaledBitString ( llNetworkUsageBytesPSInclBlocked * 8LL ) + "/s" ) );
m_OptionsList.push_back ( StringPair ( "Main (Logic) core #", SString ( "%d", _GetCurrentProcessorNumber () ) ) );
m_OptionsList.push_back ( StringPair ( "Threadnet (Sync) core #", SString ( "%d", g_uiThreadnetProcessorNumber ) ) );
m_OptionsList.push_back ( StringPair ( "Raknet thread core #", SString ( "%d", m_PrevLiveStats.uiNetworkUpdateLoopProcessorNumber ) ) );
m_OptionsList.push_back ( StringPair ( "DB thread core #", SString ( "%d", g_uiDatabaseThreadProcessorNumber ) ) );
// Get net performance stats
if ( m_NetPerformanceStatsUpdateTimer.Get() > 2000 )
{
m_NetPerformanceStatsUpdateTimer.Reset();
g_pNetServer->GetNetPerformanceStatistics ( &m_NetPerformanceStats, true );
}
m_OptionsList.push_back ( StringPair ( "Update cycle prep time max", SString ( "%s ms (Avg %s ms)", *CPerfStatManager::GetScaledFloatString( m_NetPerformanceStats.uiUpdateCyclePrepTimeMaxUs / 1000.f ), *CPerfStatManager::GetScaledFloatString( m_NetPerformanceStats.uiUpdateCyclePrepTimeAvgUs / 1000.f ) ) ) );
m_OptionsList.push_back ( StringPair ( "Update cycle process time max", SString ( "%s ms (Avg %s ms)", *CPerfStatManager::GetScaledFloatString( m_NetPerformanceStats.uiUpdateCycleProcessTimeMaxUs / 1000.f ), *CPerfStatManager::GetScaledFloatString( m_NetPerformanceStats.uiUpdateCycleProcessTimeAvgUs / 1000.f ) ) ) );
m_OptionsList.push_back ( StringPair ( "Update cycle datagrams max", SString ( "%d (Avg %s)", m_NetPerformanceStats.uiUpdateCycleDatagramsMax, *CPerfStatManager::GetScaledFloatString( m_NetPerformanceStats.fUpdateCycleDatagramsAvg ) ) ) );
m_OptionsList.push_back ( StringPair ( "Update cycle datagrams limit", SString ( "%d", m_NetPerformanceStats.uiUpdateCycleDatagramsLimit ) ) );
m_OptionsList.push_back ( StringPair ( "Update cycle sends limited", SString ( "%d (%s %%)", m_NetPerformanceStats.uiUpdateCycleSendsLimitedTotal, *CPerfStatManager::GetScaledFloatString( m_NetPerformanceStats.fUpdateCycleSendsLimitedPercent ) ) ) );
}
// Add columns
pResult->AddColumn ( "Info.Name" );
pResult->AddColumn ( "Info.Value" );
pResult->AddColumn ( "Status.Name" );
pResult->AddColumn ( "Status.Value" );
pResult->AddColumn ( "Settings.Name" );
pResult->AddColumn ( "Settings.Value" );
// Output rows
std::vector < StringPair >* columnList[] = { &m_InfoList, &m_StatusList, &m_OptionsList };
uint uiMaxRows = Max ( Max ( m_InfoList.size (), m_StatusList.size () ), m_OptionsList.size () );
for ( uint i = 0 ; i < uiMaxRows ; i++ )
{
SString* row = pResult->AddRow ();
int c = 0;
for ( uint a = 0 ; a < NUMELMS( columnList ) ; a++ )
{
const std::vector < StringPair >& column = *columnList[a];
if ( i < column.size () )
{
row[c++] = column[i].strName;
row[c++] = column[i].strValue;
}
else
{
row[c++] = "";
row[c++] = "";
}
}
}
}
void TextRangeRegExp::addRange(QString from, QString to)
{
_ranges.append( StringPair( from, to ) );
}
