//-------------------------------------------------------------------------------
// General dumping methods -- dumping relevant parts of ontology
//-------------------------------------------------------------------------------
void TBox :: dump ( dumpInterface* dump ) const
{
dump->prologue();
// dump all (relevant) roles
dumpAllRoles(dump);
// dump all (relevant) concepts
for ( c_const_iterator pc = c_begin(); pc != c_end(); ++pc )
if ( isRelevant(*pc) )
dumpConcept( dump, *pc );
for ( i_const_iterator pi = i_begin(); pi != i_end(); ++pi )
if ( isRelevant(*pi) )
dumpConcept( dump, *pi );
// dump GCIs
if ( getTG() != bpTOP )
{
dump->startAx (diImpliesC);
dump->dumpTop();
dump->contAx (diImpliesC);
dumpExpression ( dump, getTG() );
dump->finishAx (diImpliesC);
}
dump->epilogue();
}
void Faculty::update(Subject* sbj) {
if (sbj == this->sbj) {
if (isRelevant(dynamic_cast<University*>(sbj)->getLastChangeType())) {
notify();
}
}
}
BlobVectorPtr TrackerThread::findRelevantBlobs(BlobVectorPtr pBlobs, bool bTouch)
{
string sConfigPrefix;
if (bTouch) {
sConfigPrefix = "/tracker/touch/";
} else {
sConfigPrefix = "/tracker/track/";
}
int minArea = m_pConfig->getIntParam(sConfigPrefix+"areabounds/@min");
int maxArea = m_pConfig->getIntParam(sConfigPrefix+"areabounds/@max");
float minEccentricity = m_pConfig->getFloatParam(sConfigPrefix+
"eccentricitybounds/@min");
float maxEccentricity = m_pConfig->getFloatParam(sConfigPrefix+
"eccentricitybounds/@max");
BlobVectorPtr pRelevantBlobs(new BlobVector());
for(BlobVector::iterator it = pBlobs->begin(); it != pBlobs->end(); ++it) {
if (isRelevant(*it, minArea, maxArea, minEccentricity, maxEccentricity)) {
pRelevantBlobs->push_back(*it);
}
if (pRelevantBlobs->size() > 50) {
break;
}
}
return pRelevantBlobs;
}
bool AgentInitializer::parseProperties( TiXmlElement * node, const std::string & sceneFldr) {
//first let's decide if this is a velocity modifier
if (node->ValueStr() == "VelModifier"){
//this is, we need to find out if we can parse it
BFSM::VelModifier *vel = BFSM::parseVelModifier( node, sceneFldr);
if ( vel == 0x0 ) {
return false;
} else {
_velModifiers.push_back(vel);
}
} else if ( isRelevant( node->ValueStr() ) ) {
// Extract the attributes of the tag
TiXmlAttribute * attr;
for ( attr = node->FirstAttribute(); attr; attr = attr->Next() ) {
ParseResult result = setFromXMLAttribute( attr->Name(), attr->ValueStr() );
if ( result == FAILURE ) {
return false;
} else if ( result == IGNORED ) {
logger << Logger::WARN_MSG << "Encountered an unexpected per-agent attribute (" << attr->Name() << ") on line " << attr->Row() << ".";
}
}
// Now look for advanced property specifications
TiXmlElement* child;
for( child = node->FirstChildElement(); child; child = child->NextSiblingElement()) {
if ( ! parsePropertySpec( child ) ) {
return false;
}
}
}
// Irrelevant nodes are, by definition, successful.
return true;
}
void TBox :: dumpAllRoles ( dumpInterface* dump ) const
{
RoleMaster::const_iterator p;
for ( p = ORM.begin(); p != ORM.end(); ++p )
if ( isRelevant(*p) )
{
fpp_assert ( !(*p)->isSynonym() );
dumpRole ( dump, *p );
}
for ( p = DRM.begin(); p != DRM.end(); ++p )
if ( isRelevant(*p) )
{
fpp_assert ( !(*p)->isSynonym() );
dumpRole ( dump, *p );
}
}
void TBox :: dumpRole ( dumpInterface* dump, const TRole* p ) const
{
// dump defRole and parents
if ( p->getId() > 0 || !isRelevant(p->inverse()) )
{
const TRole* q = ( p->getId()>0 ? p : p->inverse() );
dump->startAx (diDefineR);
dump->dumpRole(q);
dump->finishAx (diDefineR);
// dump parents
for ( const auto& parent: q->told() )
{
dump->startAx (diImpliesR);
dump->dumpRole(q);
dump->contAx (diImpliesR);
dump->dumpRole(static_cast<const TRole*>(parent));
dump->finishAx (diImpliesR);
}
}
// dump transitility
if ( p->isTransitive() )
{
dump->startAx (diTransitiveR);
dump->dumpRole(p);
dump->finishAx (diTransitiveR);
}
// dump functionality (for topmost-functional roles only)
if ( p->isTopFunc() )
{
dump->startAx (diFunctionalR);
dump->dumpRole(p);
dump->finishAx (diFunctionalR);
}
// dump "domain"
if ( p->getBPDomain() != bpTOP )
{
dump->startAx (diDomainR);
dump->dumpRole(p);
dump->contAx (diDomainR);
dumpExpression ( dump, p->getBPDomain() );
dump->finishAx (diDomainR);
}
// dump "range"
if ( p->getBPRange() != bpTOP )
{
dump->startAx (diRangeR);
dump->dumpRole(p);
dump->contAx (diRangeR);
dumpExpression ( dump, p->getBPRange() );
dump->finishAx (diRangeR);
}
}
SatValue DecisionEngine::getPolarity(SatVariable var)
{
Debug("decision") << "getPolarity(" << var <<")" << std::endl;
if(d_relevancyStrategy != NULL) {
Assert(isRelevant(var));
return d_relevancyStrategy->getPolarity( d_cnfStream->getNode(SatLiteral(var)) );
} else {
return SAT_VALUE_UNKNOWN;
}
}
void TrackerThread::drawBlobs(BlobVectorPtr pBlobs, BitmapPtr pSrcBmp,
BitmapPtr pDestBmp, int Offset, bool bTouch)
{
if (!pDestBmp) {
return;
}
ScopeTimer timer(ProfilingZoneDraw);
string sConfigPrefix;
if (bTouch) {
sConfigPrefix = "/tracker/touch/";
} else {
sConfigPrefix = "/tracker/track/";
}
int minArea = m_pConfig->getIntParam(sConfigPrefix+"areabounds/@min");
int maxArea = m_pConfig->getIntParam(sConfigPrefix+"areabounds/@max");
float minEccentricity = m_pConfig->getFloatParam(
sConfigPrefix+"eccentricitybounds/@min");
float maxEccentricity = m_pConfig->getFloatParam(
sConfigPrefix+"eccentricitybounds/@max");
// Get max. pixel value in Bitmap
int max = 0;
HistogramPtr pHist = pSrcBmp->getHistogram(4);
int i;
for (i = 255; i >= 0; i--) {
if ((*pHist)[i] != 0) {
max = i;
i = 0;
}
}
for (BlobVector::iterator it2 = pBlobs->begin(); it2 != pBlobs->end(); ++it2) {
if (isRelevant(*it2, minArea, maxArea, minEccentricity, maxEccentricity)) {
if (bTouch) {
(*it2)->render(pSrcBmp, pDestBmp,
Pixel32(0xFF, 0xFF, 0xFF, 0xFF), Offset, max, bTouch, true,
Pixel32(0x00, 0x00, 0xFF, 0xFF));
} else {
(*it2)->render(pSrcBmp, pDestBmp,
Pixel32(0xFF, 0xFF, 0x00, 0x80), Offset, max, bTouch, true,
Pixel32(0x00, 0x00, 0xFF, 0xFF));
}
} else {
if (bTouch) {
(*it2)->render(pSrcBmp, pDestBmp,
Pixel32(0xFF, 0x00, 0x00, 0xFF), Offset, max, bTouch, false);
} else {
(*it2)->render(pSrcBmp, pDestBmp,
Pixel32(0x80, 0x80, 0x00, 0x80), Offset, max, bTouch, false);
}
}
}
}
void InferredTypeTable::visitChildren(JSCell* cell, SlotVisitor& visitor)
{
InferredTypeTable* inferredTypeTable = jsCast<InferredTypeTable*>(cell);
ConcurrentJSLocker locker(inferredTypeTable->m_lock);
for (auto& entry : inferredTypeTable->m_table) {
auto entryValue = entry.value;
if (!entryValue)
continue;
if (entryValue->isRelevant())
visitor.append(entryValue);
else
entry.value.clear();
}
}
void TrackerThread::calcContours(BlobVectorPtr pBlobs)
{
ScopeTimer timer(ProfilingZoneDraw);
string sConfigPrefix;
sConfigPrefix = "/tracker/track/";
int minArea = m_pConfig->getIntParam(sConfigPrefix+"areabounds/@min");
int maxArea = m_pConfig->getIntParam(sConfigPrefix+"areabounds/@max");
float minEccentricity = m_pConfig->getFloatParam(
sConfigPrefix+"eccentricitybounds/@min");
float maxEccentricity = m_pConfig->getFloatParam(
sConfigPrefix+"eccentricitybounds/@max");
int ContourPrecision = m_pConfig->getIntParam("/tracker/contourprecision/@value");
if (ContourPrecision != 0) {
for (BlobVector::iterator it = pBlobs->begin(); it != pBlobs->end(); ++it) {
if (isRelevant(*it, minArea, maxArea, minEccentricity, maxEccentricity)) {
(*it)->calcContour(ContourPrecision);
}
}
}
}
