void
RunConfiguration::addConfigurations(std::istream& is)
{
std::string type;
PropertySet conf;
while(is >> type)
{
is >> conf;
if (type == INFERENCE_CONF_TOKEN) {
_inferences.push_back(conf);
} else if (type == EVIDENCE_CONF_TOKEN) {
_evidences.push_back(conf);
} else if (type == EM_STEP_CONF_TOKEN) {
std::set<PropertyKey> keys = conf.keys();
std::set<PropertyKey>::iterator i = keys.begin();
EMStep e;
for ( ; i != keys.end(); ++i) {
std::vector< std::string > edges =
tokenizeString(conf.getAs<std::string>(*i), false, ";");
SmallSet< std::string > s(edges.begin(), edges.end(), edges.size());
e[*i] = s;
}
_emsteps.push_back(e);
} else if (type == EM_CONF_TOKEN) {
_em = conf;
} else if (type == PATHWAY_CONF_TOKEN) {
_path = conf;
} else {
THROW("Expecting an inference or evidence token in conf file");
}
}
}
SCM
building_get_property(int handle, const char* name)
{
Building* building = BuildingManager::current()->get_building_by_id(handle);
if (!building)
{
std::cout << "building_get_property: unknown handle: " << handle << std::endl;
return SCM_UNSPECIFIED;
}
else
{
PropertySet* properties = building->get_properties();
if (!properties)
{
return SCM_UNSPECIFIED;
}
else
{
Property* property = properties->lookup(name);
if (!property)
{
return SCM_UNSPECIFIED;
}
else
{
return Guile::property2scm(*property);
}
}
}
}
File ApplicationConfiguration::getApplicationDirectory(){
PropertySet* properties = getApplicationProperties();
File dir(properties->getValue("application-directory"));
if(!dir.exists())
dir.createDirectory();
return dir;
}
//--------------------------------------------------------------------------------------------------
///
//--------------------------------------------------------------------------------------------------
void PropertyXmlSerializer::createAddXmlElementFromPropertySet(const PropertySet& propertySet, XmlElement* parent)
{
CVF_ASSERT(parent);
XmlElement* xmlPropSet = parent->addChildElement("PropertySet");
CVF_ASSERT(xmlPropSet);
xmlPropSet->setAttributeString("classType", propertySet.classType());
std::vector<String> keys = propertySet.allKeys();
std::vector<Variant> values = propertySet.allValues();
size_t numKeyValues = keys.size();
CVF_ASSERT(numKeyValues == values.size());
for (size_t i = 0; i < numKeyValues; i++)
{
const String& key = keys[i];
const Variant& value = values[i];
if (value.isValid())
{
XmlElement* xmlKeyValueElement = createAddXmlElementFromVariant(value, xmlPropSet);
CVF_ASSERT(xmlKeyValueElement);
xmlKeyValueElement->setAttributeString("key", key);
}
}
}
TEST(Property, StringProp) {
#if __cplusplus > 201100L || (defined(_MSC_VER) && _MSC_VER >= 1800)
using namespace std;
#else
using namespace std::tr1;
#endif
PropertyDefMap propertyDefs;
Foo foo;
PropertySet props;
PropertyDefMap::iterator defi = propertyDefs.insert(PropertyDefMap::value_type("name",
PropertyDef("name",
"The name of the object.", PROP_STRING))).first;
props.addProperty(
OGRE_NEW Property<String>(&(defi->second),
bind(&Foo::getName, &foo),
bind(&Foo::setName, &foo, placeholders::_1)));
Ogre::String strName, strTest;
strTest = "A simple name";
props.setValue("name", strTest);
props.getValue("name", strName);
ASSERT_EQ(strTest, strName);
}
ImageEffect::SequenceArgs::SequenceArgs(ImageEffectHost *host, PropertySet &inArgs)
: ImageEffect::RenderScaleArgs(host, inArgs) {
interactive = (inArgs.getInt(kOfxPropIsInteractive, 0) == 1);
#ifdef OFX_API_1_2
if (host->checkAPIVersion(1, 2)) {
// Specification Mismatch
// -> Nuke 6.1, supposed to support OpenFX API 1.2 does not set those
//sequentialRender = (inArgs.getInt(kOfxImageEffectPropSequentialRenderStatus, 0) != 0);
//interactiveRender = (inArgs.getInt(kOfxImageEffectPropInteractiveRenderStatus, 0) != 0);
sequentialRender = false;
interactiveRender = false;
} else {
sequentialRender = false;
interactiveRender = false;
}
#endif
#ifdef OFX_API_1_3
if (host->checkAPIVersion(1, 3)) {
glEnabled = (inArgs.getInt(kOfxImageEffectPropOpenGLEnabled, 0) == 1);
glTextureIndex = inArgs.getInt(kOfxImageEffectPropOpenGLTextureIndex, 0);
glTextureTarget = inArgs.getInt(kOfxImageEffectPropOpenGLTextureTarget, 0);
} else {
glEnabled = false;
glTextureIndex = -1;
glTextureTarget = -1;
}
#endif
}
/** @brief ctor */
KeyArgs::KeyArgs( const PropertySet& props )
: InteractArgs( props )
{
time = props.propGetDouble( kOfxPropTime );
renderScale = getRenderScale( props );
keyString = props.propGetString( kOfxPropKeyString );
}
void KeyframeEffectModelBase::ensureKeyframeGroups() const
{
if (m_keyframeGroups)
return;
m_keyframeGroups = adoptPtrWillBeNoop(new KeyframeGroupMap);
const KeyframeVector keyframes = normalizedKeyframes(getFrames());
for (KeyframeVector::const_iterator keyframeIter = keyframes.begin(); keyframeIter != keyframes.end(); ++keyframeIter) {
const Keyframe* keyframe = keyframeIter->get();
PropertySet keyframeProperties = keyframe->properties();
for (PropertySet::const_iterator propertyIter = keyframeProperties.begin(); propertyIter != keyframeProperties.end(); ++propertyIter) {
CSSPropertyID property = *propertyIter;
ASSERT_WITH_MESSAGE(!isExpandedShorthand(property), "Web Animations: Encountered shorthand CSS property (%d) in normalized keyframes.", property);
KeyframeGroupMap::iterator groupIter = m_keyframeGroups->find(property);
PropertySpecificKeyframeGroup* group;
if (groupIter == m_keyframeGroups->end())
group = m_keyframeGroups->add(property, adoptPtrWillBeNoop(new PropertySpecificKeyframeGroup)).storedValue->value.get();
else
group = groupIter->value.get();
group->appendKeyframe(keyframe->createPropertySpecificKeyframe(property));
}
}
// Add synthetic keyframes.
for (KeyframeGroupMap::iterator iter = m_keyframeGroups->begin(); iter != m_keyframeGroups->end(); ++iter) {
iter->value->addSyntheticKeyframeIfRequired(this);
iter->value->removeRedundantKeyframes();
}
}
double SemanticObject::getLikelihood(const PropertySet& ev) const {
//propagate(ev.getTimeStamp());
double likelihood = 1;
vector<Attribute> need_to_deduce;
const map<Attribute, Property*>& ev_props = ev.getPropertyMap();
for(map<Attribute, Property*>::const_iterator it = ev_props.begin(); it != ev_props.end(); ++it) {
const Attribute& attribute = it->first;
const Property* ev_prop = it->second;
const Property* this_prop = getProperty(attribute);
if (this_prop) {
likelihood *= this_prop->getLikelihood(ev_prop->getValue());
} else {
need_to_deduce.push_back(attribute);
}
}
vector<Property> deduced_props = KnowledgeDatabase::getInstance().inferProperties(*this, need_to_deduce);
for(vector<Property>::iterator it_prop = deduced_props.begin(); it_prop != deduced_props.end(); ++it_prop) {
const Property* ev_prop = ev.getProperty(it_prop->getAttribute());
assert(ev_prop);
likelihood *= it_prop->getLikelihood(ev_prop->getValue());
}
// cout << " Likelihood existing = " << likelihood << endl;
return likelihood;
}
ImageEffect::RenderArgs::RenderArgs(ImageEffectHost *host, PropertySet &inArgs)
: ImageEffect::RenderScaleArgs(host, inArgs), ImageEffect::TimeArgs(host, inArgs) {
field = StringToImageField(inArgs.getString(kOfxImageEffectPropFieldToRender, 0));
inArgs.getInts(kOfxImageEffectPropRenderWindow, 4, &(renderWindow.x1));
#ifdef OFX_API_1_2
if (host->checkAPIVersion(1, 2)) {
// Specification Mismatch
// -> Nuke 6.1, supposed to support OpenFX API 1.2 does not set those
//sequentialRender = (inArgs.getInt(kOfxImageEffectPropSequentialRenderStatus, 0) != 0);
//interactiveRender = (inArgs.getInt(kOfxImageEffectPropInteractiveRenderStatus, 0) != 0);
sequentialRender = false;
interactiveRender = false;
} else {
sequentialRender = false;
interactiveRender = false;
}
#endif
#ifdef OFX_API_1_3
if (host->checkAPIVersion(1, 3)) {
glEnabled = (inArgs.getInt(kOfxImageEffectPropOpenGLEnabled, 0) == 1);
glTextureIndex = inArgs.getInt(kOfxImageEffectPropOpenGLTextureIndex, 0);
glTextureTarget = inArgs.getInt(kOfxImageEffectPropOpenGLTextureTarget, 0);
} else {
glEnabled = false;
glTextureIndex = -1;
glTextureTarget = -1;
}
#endif
}
void TestHSMM::test_loglik(const char* filename, size_t ID, string type){
HSMMparam param(filename);
vector<Real> likelihood_test;
FactorGraph *graph;
JTree *jt;
// Set some constants
size_t maxiter = 10000;
Real tol = 1e-9;
size_t verb = 0;
// Store the constants in a PropertySet object
PropertySet opts;
opts.set("maxiter",maxiter); // Maximum number of iterations
opts.set("tol",tol); // Tolerance for convergence
opts.set("verbose",verb); // Verbosity (amount of output generated)
cout << "Now we do testing...\n";
for(size_t i=0; i<test_data.size(); i++) {
//initialize HSMM of size equal the number of observations
graph = new FactorGraph();
graph->createHSMMFactorGraph(param.init, param.dist, test_data[i].size());
jt = new JTree(*graph, opts("updates",string("HUGIN"))("heuristic",string("MINWEIGHT")) );
//clamp the observation variables to their observed values
for(size_t j = 0; j < test_data[i].size(); j++ ){
//cout << "clamping var" << test_data[i][j].first << " to value " << test_data[i][j].second << "\n";
jt->clamp(test_data[i][j].first, test_data[i][j].second);
}
jt->init();
jt->run();
//compute normalized loglikelyhood
likelihood_test.push_back(jt->logZ()/test_data[i].size());
delete jt;
delete graph;
cout << "Tested point " << i << " out of " << test_data.size() <<"\n";
}
cout << "done.\n";
ofstream os;
stringstream result;
result << string("data/HSMMlikelihood_") << type << string("_") << ID << string(".txt");
os.open(result.str().c_str(), ios::trunc);
for(size_t i=0; i<likelihood_test.size(); i++){
os << likelihood_test.at(i)<<"\n";
}
}
bool CompositorAnimations::getAnimatedBoundingBox(FloatBox& box, const AnimationEffect& effect, double minValue, double maxValue) const
{
const KeyframeEffectModelBase& keyframeEffect = toKeyframeEffectModelBase(effect);
PropertySet properties = keyframeEffect.properties();
if (properties.isEmpty())
return true;
minValue = std::min(minValue, 0.0);
maxValue = std::max(maxValue, 1.0);
for (const auto& property : properties) {
// TODO: Add the ability to get expanded bounds for filters as well.
if (property != CSSPropertyTransform && property != CSSPropertyWebkitTransform)
continue;
const PropertySpecificKeyframeVector& frames = keyframeEffect.getPropertySpecificKeyframes(property);
if (frames.isEmpty() || frames.size() < 2)
continue;
FloatBox originalBox(box);
for (size_t j = 0; j < frames.size() - 1; ++j) {
const AnimatableTransform* startTransform = toAnimatableTransform(frames[j]->getAnimatableValue().get());
const AnimatableTransform* endTransform = toAnimatableTransform(frames[j+1]->getAnimatableValue().get());
if (!startTransform || !endTransform)
return false;
// TODO: Add support for inflating modes other than Replace.
if (frames[j]->composite() != AnimationEffect::CompositeReplace)
return false;
const TimingFunction& timing = frames[j]->easing();
double min = 0;
double max = 1;
if (j == 0) {
float frameLength = frames[j+1]->offset();
if (frameLength > 0) {
min = minValue / frameLength;
}
}
if (j == frames.size() - 2) {
float frameLength = frames[j+1]->offset() - frames[j]->offset();
if (frameLength > 0) {
max = 1 + (maxValue - 1) / frameLength;
}
}
FloatBox bounds;
timing.range(&min, &max);
if (!endTransform->transformOperations().blendedBoundsForBox(originalBox, startTransform->transformOperations(), min, max, &bounds))
return false;
box.expandTo(bounds);
}
}
return true;
}
void CompositorAnimationsImpl::getAnimationOnCompositor(const Timing& timing, const KeyframeEffectModel& effect, Vector<OwnPtr<blink::WebAnimation> >& animations)
{
ASSERT(animations.isEmpty());
CompositorTiming compositorTiming;
bool timingValid = convertTimingForCompositor(timing, compositorTiming);
ASSERT_UNUSED(timingValid, timingValid);
RefPtr<TimingFunction> timingFunction = timing.timingFunction;
if (compositorTiming.reverse)
timingFunction = CompositorAnimationsTimingFunctionReverser::reverse(timingFunction.get());
PropertySet properties = effect.properties();
ASSERT(!properties.isEmpty());
for (PropertySet::iterator it = properties.begin(); it != properties.end(); ++it) {
KeyframeVector values;
getKeyframeValuesForProperty(&effect, *it, compositorTiming.scaledDuration, compositorTiming.reverse, values);
blink::WebAnimation::TargetProperty targetProperty;
OwnPtr<blink::WebAnimationCurve> curve;
switch (*it) {
case CSSPropertyOpacity: {
targetProperty = blink::WebAnimation::TargetPropertyOpacity;
blink::WebFloatAnimationCurve* floatCurve = blink::Platform::current()->compositorSupport()->createFloatAnimationCurve();
addKeyframesToCurve(*floatCurve, values, *timingFunction.get());
curve = adoptPtr(floatCurve);
break;
}
case CSSPropertyWebkitFilter: {
targetProperty = blink::WebAnimation::TargetPropertyFilter;
blink::WebFilterAnimationCurve* filterCurve = blink::Platform::current()->compositorSupport()->createFilterAnimationCurve();
addKeyframesToCurve(*filterCurve, values, *timingFunction);
curve = adoptPtr(filterCurve);
break;
}
case CSSPropertyWebkitTransform: {
targetProperty = blink::WebAnimation::TargetPropertyTransform;
blink::WebTransformAnimationCurve* transformCurve = blink::Platform::current()->compositorSupport()->createTransformAnimationCurve();
addKeyframesToCurve(*transformCurve, values, *timingFunction.get());
curve = adoptPtr(transformCurve);
break;
}
default:
ASSERT_NOT_REACHED();
continue;
}
ASSERT(curve.get());
OwnPtr<blink::WebAnimation> animation = adoptPtr(blink::Platform::current()->compositorSupport()->createAnimation(*curve, targetProperty));
animation->setIterations(compositorTiming.adjustedIterationCount);
animation->setTimeOffset(compositorTiming.scaledTimeOffset);
animation->setAlternatesDirection(compositorTiming.alternate);
animations.append(animation.release());
}
ASSERT(!animations.isEmpty());
}
/** @brief ctor */
PenArgs::PenArgs( const PropertySet& props )
: InteractArgs( props )
{
pixelScale = getPixelScale( props );
penPosition.x = props.propGetDouble( kOfxInteractPropPenPosition, 0 );
penPosition.y = props.propGetDouble( kOfxInteractPropPenPosition, 1 );
penPressure = props.propGetDouble( kOfxInteractPropPenPressure );
}
PropertySet MR::getProperties() const {
PropertySet opts;
opts.set( "tol", props.tol );
opts.set( "verbose", props.verbose );
opts.set( "updates", props.updates );
opts.set( "inits", props.inits );
return opts;
}
PropertySet MF::getProperties() const {
PropertySet opts;
opts.Set( "tol", props.tol );
opts.Set( "maxiter", props.maxiter );
opts.Set( "verbose", props.verbose );
opts.Set( "damping", props.damping );
return opts;
}
/** @brief fetch a background colour out of the property set */
static OfxRGBColourD getBackgroundColour( const PropertySet& props )
{
OfxRGBColourD backGroundColour;
backGroundColour.r = props.propGetDouble( kOfxInteractPropBackgroundColour, 0 );
backGroundColour.g = props.propGetDouble( kOfxInteractPropBackgroundColour, 1 );
backGroundColour.b = props.propGetDouble( kOfxInteractPropBackgroundColour, 2 );
return backGroundColour;
}
PropertySet StringKeyframe::properties() const
{
// This is not used in time-critical code, so we probably don't need to
// worry about caching this result.
PropertySet properties;
for (unsigned i = 0; i < m_propertySet->propertyCount(); ++i)
properties.add(m_propertySet->propertyAt(i).id());
return properties;
}
PropertySet AnimatableValueKeyframe::properties() const
{
// This is not used in time-critical code, so we probably don't need to
// worry about caching this result.
PropertySet properties;
for (PropertyValueMap::const_iterator iter = m_propertyValues.begin(); iter != m_propertyValues.end(); ++iter)
properties.add(*iter.keys());
return properties;
}
PropertySet TreeEP::getProperties() const {
PropertySet opts;
opts.set( "tol", props.tol );
opts.set( "maxiter", props.maxiter );
opts.set( "maxtime", props.maxtime );
opts.set( "verbose", props.verbose );
opts.set( "type", props.type );
return opts;
}
//==============================================================================
ApplicationSettingsWindow::ApplicationSettingsWindow (OwlControlSettings& settings, AudioDeviceManager& deviceManager)
: theSettings(settings)
{
//[Constructor_pre] You can add your own custom stuff here..
//[/Constructor_pre]
addAndMakeVisible (audioSelector = new AudioDeviceSelectorComponent (deviceManager,0,0,0,0,true,true,false,false));
audioSelector->setName ("new component");
addAndMakeVisible (midiDeviceBox = new ComboBox ("new combo box"));
midiDeviceBox->setEditableText (false);
midiDeviceBox->setJustificationType (Justification::centredLeft);
midiDeviceBox->setTextWhenNothingSelected (String());
midiDeviceBox->setTextWhenNoChoicesAvailable (TRANS("(no choices)"));
midiDeviceBox->addItem (TRANS("OMNI"), 1);
midiDeviceBox->addItem (TRANS("1"), 2);
midiDeviceBox->addItem (TRANS("2"), 3);
midiDeviceBox->addItem (TRANS("3"), 4);
midiDeviceBox->addItem (TRANS("4"), 5);
midiDeviceBox->addItem (TRANS("5"), 6);
midiDeviceBox->addItem (TRANS("6"), 7);
midiDeviceBox->addItem (TRANS("7"), 8);
midiDeviceBox->addItem (TRANS("8"), 9);
midiDeviceBox->addItem (TRANS("9"), 10);
midiDeviceBox->addItem (TRANS("10"), 11);
midiDeviceBox->addItem (TRANS("11"), 12);
midiDeviceBox->addItem (TRANS("12"), 13);
midiDeviceBox->addItem (TRANS("13"), 14);
midiDeviceBox->addItem (TRANS("14"), 15);
midiDeviceBox->addItem (TRANS("15"), 16);
midiDeviceBox->addItem (TRANS("16"), 17);
midiDeviceBox->addListener (this);
addAndMakeVisible (label = new Label ("new label",
TRANS("MIDI Device")));
label->setFont (Font (15.00f, Font::plain));
label->setJustificationType (Justification::centredLeft);
label->setEditable (false, false, false);
label->setColour (TextEditor::textColourId, Colours::black);
label->setColour (TextEditor::backgroundColourId, Colour (0x00000000));
//[UserPreSize]
//[/UserPreSize]
setSize (600, 400);
//[Constructor] You can add your own custom stuff here..
PropertySet* properties = ApplicationConfiguration::getApplicationProperties();
deviceManager.setDefaultMidiOutput(properties->getValue("midi-output"));
deviceManager.setMidiInputEnabled(properties->getValue("midi-input"), 1);
//[/Constructor]
}
void HAK::setProperties( const PropertySet &opts ) {
DAI_ASSERT( opts.hasKey("tol") );
DAI_ASSERT( opts.hasKey("doubleloop") );
DAI_ASSERT( opts.hasKey("clusters") );
props.tol = opts.getStringAs<Real>("tol");
props.doubleloop = opts.getStringAs<bool>("doubleloop");
props.clusters = opts.getStringAs<Properties::ClustersType>("clusters");
if( opts.hasKey("maxiter") )
props.maxiter = opts.getStringAs<size_t>("maxiter");
else
props.maxiter = 10000;
if( opts.hasKey("maxtime") )
props.maxtime = opts.getStringAs<Real>("maxtime");
else
props.maxtime = INFINITY;
if( opts.hasKey("verbose") )
props.verbose = opts.getStringAs<size_t>("verbose");
else
props.verbose = 0;
if( opts.hasKey("loopdepth") )
props.loopdepth = opts.getStringAs<size_t>("loopdepth");
else
DAI_ASSERT( props.clusters != Properties::ClustersType::LOOP );
if( opts.hasKey("damping") )
props.damping = opts.getStringAs<Real>("damping");
else
props.damping = 0.0;
if( opts.hasKey("init") )
props.init = opts.getStringAs<Properties::InitType>("init");
else
props.init = Properties::InitType::UNIFORM;
}
KVOID BulletFactor::BindEffect( PropertySet kProp )
{
//////////////////////////////////////////////////////////////////////////
// 加载特效
KSTR sEffect;
if (kProp.GetStrValue("$SpawnEffect",sEffect))
{
KFLOAT fTimes = -1.0f;
kProp.GetFloatValue("$SpawnEffectTime",fTimes);
EffectObject* pObj = AttachEffect(sEffect,fTimes);
if (pObj)
{ // 设置特效缩放
KFLOAT fEfScale;
if (kProp.GetFloatValue("$SpawnEffectScale",fEfScale))
{
pObj->SetScale(fEfScale);
}
pObj->SetUserData(1);
pObj->SetCallbackObj(this);
}
}
if (kProp.GetStrValue("$IdleEffect",sEffect))
{
KFLOAT fTimes = -1.0f;
kProp.GetFloatValue("$IdleEffectTime",fTimes);
EffectObject* pObj = AttachEffect(sEffect,fTimes);
if (pObj)
{ // 设置特效缩放
KFLOAT fEfScale;
if (kProp.GetFloatValue("$IdleEffectScale",fEfScale))
{
pObj->SetScale(fEfScale);
}
pObj->SetUserData(2);
pObj->SetCallbackObj(this);
}
}
if (kProp.GetStrValue("$DestroyEffect",sEffect))
{
KFLOAT fTimes = -1.0f;
kProp.GetFloatValue("$DestroyEffectTime",fTimes);
EffectObject* pObj = AttachEffect(sEffect,fTimes);
if (pObj)
{ // 设置特效缩放
KFLOAT fEfScale;
if (kProp.GetFloatValue("$DestroyEffectScale",fEfScale))
{
pObj->SetScale(fEfScale);
}
pObj->SetUserData(3);
pObj->SetCallbackObj(this);
}
}
}
bool BruteForceOptMatching::matchPoints(ConnectedFactorGraph& graph,
const int numIter, const float maxDiff,
const float damping,
McDArray<McVec2i>& matchedPointPairs,
McDArray<int>& ambiguousAssignments) {
FactorGraph fg(graph.factors);
cout << "\n run BP for network with " << graph.factors.size()
<< " factors and " << graph.factors[0].vars().front().states()
<< "states";
PropertySet opts;
opts.set("tol", (Real)maxDiff);
opts.set("maxiter", (size_t)numIter);
opts.set("maxtime", (Real)180);
opts.set("verbose", (size_t)1);
opts.set("updates", string("SEQMAX"));
opts.set("logdomain", (bool)true);
opts.set("inference", string("MAXPROD"));
opts.set("damping", (Real)damping);
BP ia(fg, opts);
ia.init();
try {
ia.run();
} catch (Exception e) {
outputSingleFactorValues(graph);
outputDoubleFactorValues(graph);
throw e;
}
getMaxProbAssignments(ia, fg, graph, matchedPointPairs);
checkAmbiguities(ia, fg, graph, ambiguousAssignments);
checkAmbiguitiesInAssignments(graph, matchedPointPairs,
ambiguousAssignments);
return (ia.maxDiff() < maxDiff);
}
void ImageEffect::GetClipPrefArgs::setOutputs(PropertySet &outArgs) {
static std::string compBase = "OfxImageClipPropComponents_";
static std::string depthBase = "OfxImageClipPropDepth_";
static std::string parBase = "OfxImageClipPropPAR_";
bool multiDepth = (host ? host->supportsMultipleClipDepths() : false);
bool multiPAR = (host ? host->supportsMultipleClipPARs() : false);
std::map<std::string, ClipPreferences>::iterator it = prefs.begin();
while (it != prefs.end()) {
std::string name;
name = compBase + it->first;
outArgs.setString(name.c_str(), 0, ImageComponentToString(it->second.components));
if (multiDepth) {
name = depthBase + it->first;
outArgs.setString(name.c_str(), 0, BitDepthToString(it->second.bitDepth));
}
if (multiPAR) {
name = parBase + it->first;
outArgs.setDouble(name.c_str(), 0, it->second.pixelAspectRatio);
}
++it;
}
outArgs.setDouble(kOfxImageEffectPropFrameRate, 0, outPref.frameRate);
outArgs.setString(kOfxImageClipPropFieldOrder, 0, ImageFieldOrderToString(outPref.fieldOrder));
outArgs.setString(kOfxImageEffectPropPreMultiplication, 0, ImagePreMultToString(outPref.preMult));
outArgs.setInt(kOfxImageClipPropContinuousSamples, 0, (outPref.continuousSamples ? 1 : 0));
outArgs.setInt(kOfxImageEffectFrameVarying, 0, (outPref.frameVarying ? 1 : 0));
}
PropertySet KeyframeEffectModelBase::properties() const
{
PropertySet result;
if (!m_keyframes.size()) {
return result;
}
result = m_keyframes[0]->properties();
for (size_t i = 1; i < m_keyframes.size(); i++) {
PropertySet extras = m_keyframes[i]->properties();
for (PropertySet::const_iterator it = extras.begin(); it != extras.end(); ++it) {
result.add(*it);
}
}
return result;
}
void ImageEffect::GetFramesNeededArgs::setOutputs(PropertySet &outArgs) {
static std::string outBaseName = "OfxImageClipPropFrameRange_";
std::map<std::string, FrameRangeList>::iterator it = inRanges.begin();
while (it != inRanges.end()) {
std::string outName = outBaseName + it->first;
FrameRangeList &frl = it->second;
int i = 0;
for (size_t j=0; j<frl.size(); ++j, i+=2) {
outArgs.setDouble(outName.c_str(), i, frl[j].min);
outArgs.setDouble(outName.c_str(), i+1, frl[j].max);
}
++it;
}
}
/** @brief fetch a background colour out of the property set */
static OfxRGBColourD getBackgroundColour(const PropertySet &props)
{
OfxRGBColourD backGroundColour = {0., 0., 0.};
props.propGetDoubleN(kOfxInteractPropBackgroundColour, &backGroundColour.r, 3);
return backGroundColour;
}
void filterData(const std::string& filterExpr, Reader& reader)
{
Gto::Reader::Properties& properties = reader.properties();
Gto::Reader::Objects& objects = reader.objects();
for (size_t i=0; i < properties.size(); i++)
{
Gto::Reader::PropertyInfo& p = properties[i];
const Gto::Reader::ComponentInfo* c = p.component;
const Gto::Reader::ObjectInfo* o = c->object;
string name;
name = reader.stringFromId(o->name);
name += ".";
name += reader.stringFromId(c->name);
name += ".";
name += reader.stringFromId(p.name);
if (!fnmatch(filterExpr.c_str(), name.c_str(), 0))
{
filteredProperties.insert(&p);
filteredObjects.insert(o);
}
}
for (size_t i=0; i < objects.size(); i++)
{
Gto::Reader::ObjectInfo* p = &objects[i];
if (filteredObjects.find(p) != filteredObjects.end())
{
reader.accessObject(*p);
}
}
}
/** @brief fetch a render scale out of the property set */
static OfxPointD getRenderScale(const PropertySet &props)
{
OfxPointD v = {1., 1.};
props.propGetDoubleN(kOfxImageEffectPropRenderScale, &v.x, 2);
return v;
}