// ----------------------------------------------------------
LogSvcHandler::LogSvcHandler(const std::string& soName) :
sourceObjectName_m(soName)
{
setRemoteLevelType(NOT_DEFINED_LOG_LEVEL);
setLocalLevelType(NOT_DEFINED_LOG_LEVEL);
char *acsSTDIO = getenv("ACS_LOG_STDOUT");
int envStdioPriority = -1;
if (acsSTDIO && *acsSTDIO)
{
envStdioPriority = atoi(acsSTDIO);
}
char *acsCentralizeLogger = getenv("ACS_LOG_CENTRAL");
int envCentralizePriority = -1;
if (acsCentralizeLogger && *acsCentralizeLogger)
{
envCentralizePriority = atoi(acsCentralizeLogger);
}
setLevels(LM_TRACE, LM_TRACE,DEFAULT_LOG_LEVEL);
if(envStdioPriority >= 0)
setLevels((Priority)-1, static_cast<Logging::BaseLog::Priority>(LogLevelDefinition::getACELogPriority(envStdioPriority)), ENV_LOG_LEVEL);
if(envCentralizePriority >= 0)
setLevels(static_cast<Logging::BaseLog::Priority>(LogLevelDefinition::getACELogPriority(envCentralizePriority)), (Priority)-1, ENV_LOG_LEVEL);
}
void configure(const LLSD& config)
{
Globals& g = Globals::get();
Settings& s = Settings::get();
g.invalidateCallSites();
s.functionLevelMap.clear();
s.classLevelMap.clear();
s.fileLevelMap.clear();
setPrintLocation(config["print-location"]);
setDefaultLevel(decodeLevel(config["default-level"]));
LLSD sets = config["settings"];
LLSD::array_const_iterator a, end;
for (a = sets.beginArray(), end = sets.endArray(); a != end; ++a)
{
const LLSD& entry = *a;
ELevel level = decodeLevel(entry["level"]);
setLevels(s.functionLevelMap, entry["functions"], level);
setLevels(s.classLevelMap, entry["classes"], level);
setLevels(s.fileLevelMap, entry["files"], level);
}
}
void configure(const LLSD& config)
{
AIAccess<Settings> settings_w(Settings::get());
AIAccess<Globals>(Globals::get())->invalidateCallSites();
settings_w->functionLevelMap.clear();
settings_w->classLevelMap.clear();
settings_w->fileLevelMap.clear();
settings_w->tagLevelMap.clear();
settings_w->uniqueLogMessages.clear();
setPrintLocation(settings_w, config["print-location"]);
setDefaultLevel(settings_w, decodeLevel(config["default-level"]));
LLSD sets = config["settings"];
LLSD::array_const_iterator a, end;
for (a = sets.beginArray(), end = sets.endArray(); a != end; ++a)
{
const LLSD& entry = *a;
ELevel level = decodeLevel(entry["level"]);
setLevels(settings_w->functionLevelMap, entry["functions"], level);
setLevels(settings_w->classLevelMap, entry["classes"], level);
setLevels(settings_w->fileLevelMap, entry["files"], level);
setLevels(settings_w->tagLevelMap, entry["tags"], level);
}
}
void setLevels(Tree* t, int height) {
if(!t) {
return;
}
else {
t->level = height;
setLevels(t->left, height + 1);
setLevels(t->right, height + 1);
}
}
void AudioThumbnail::addBlock (const int64 startSample, const AudioSampleBuffer& incoming,
int startOffsetInBuffer, int numSamples)
{
jassert (startSample >= 0);
const int firstThumbIndex = (int) (startSample / samplesPerThumbSample);
const int lastThumbIndex = (int) ((startSample + numSamples + (samplesPerThumbSample - 1)) / samplesPerThumbSample);
const int numToDo = lastThumbIndex - firstThumbIndex;
if (numToDo > 0)
{
const int numChans = jmin (channels.size(), incoming.getNumChannels());
const HeapBlock<MinMaxValue> thumbData ((size_t) (numToDo * numChans));
const HeapBlock<MinMaxValue*> thumbChannels ((size_t) numChans);
for (int chan = 0; chan < numChans; ++chan)
{
const float* const sourceData = incoming.getSampleData (chan, startOffsetInBuffer);
MinMaxValue* const dest = thumbData + numToDo * chan;
thumbChannels [chan] = dest;
for (int i = 0; i < numToDo; ++i)
{
float low, high;
const int start = i * samplesPerThumbSample;
FloatVectorOperations::findMinAndMax (sourceData + start, jmin (samplesPerThumbSample, numSamples - start), low, high);
dest[i].setFloat (low, high);
}
}
setLevels (thumbChannels, firstThumbIndex, numChans, numToDo);
}
}
int weighting(Tree* huffman) {
if(!huffman) {
return 0;
}
setLevels(huffman, 0);
return getSum(huffman);
}
MeterSegmentOverload::MeterSegmentOverload(const String& componentName, float fThreshold, float fRange, int CrestFactor, bool bThickBorder, int nColor)
{
// set component name
setName(componentName);
// display thick border on meter segment?
hasThickBorder = bThickBorder;
// lower threshold, meter segment will be dark below this level
fLowerThreshold = fThreshold;
// level range above lower threshold; this affects the brightness
fThresholdRange = fRange;
// upper threshold, meter segment will be fully lit above this
// level
fUpperThreshold = fThreshold + fThresholdRange;
// meter crest factor
nCrestFactor = CrestFactor;
// show peak level marker on segment?
bPeakMarker = false;
// initialise meter segment's brightness (0.0f is dark, 1.0f is
// fully lit)
fBrightness = 0.0f;
// set meter segment's hue from colour number
if (nColor == 0)
{
// meter segment is red
fHue = 0.00f;
}
else if (nColor == 1)
{
// meter segment is yellow
fHue = 0.18f;
}
else if (nColor == 2)
{
// meter segment is green
fHue = 0.30f;
}
else
{
// meter segment is blue
fHue = 0.58f;
}
// initialise maximum level
fMaximumLevel = -9999.9f;
strMaximumLevel = "";
// make sure that segment is drawn after initialisation
setLevels(-9999.9f, -9999.9f, -9999.9f);
}
// -----------------------------------------------------------------------------
//
// -----------------------------------------------------------------------------
void MultiOtsuThreshold::readFilterParameters(AbstractFilterParametersReader* reader, int index)
{
reader->openFilterGroup(this, index);
setSelectedCellArrayPath( reader->readDataArrayPath( "SelectedCellArrayPath", getSelectedCellArrayPath() ) );
setNewCellArrayName( reader->readString( "NewCellArrayName", getNewCellArrayName() ) );
setSaveAsNewArray( reader->readValue( "SaveAsNewArray", getSaveAsNewArray() ) );
setSlice( reader->readValue( "Slice", getSlice() ) );
setLevels( reader->readValue( "Levels", getLevels() ) );
reader->closeFilterGroup();
}
SingleCollectionTreeItemModel::SingleCollectionTreeItemModel( Collections::Collection *collection,
const QList<CategoryId::CatMenuId> &levelType )
:CollectionTreeItemModelBase( )
{
m_collection = collection;
//we only have one collection that, by its very nature, is always expanded
m_expandedCollections.insert( m_collection );
setLevels( levelType );
connect( collection, SIGNAL( updated() ), this, SLOT( slotFilter() ) ) ;
}
bool OilifyFilter::init(void)
{
// skip OpenCL initialization in case context is not given
if (m_ctx == nullptr) return (m_good = true);
// compile program
m_program = m_ctx->buildProgramFromSourceFile(CLSRCFILE("oilify.cl"));
if (m_program.isNull())
{
ERRORM("Failed to create Oilify filter program: " << m_program.log().toStdString());
return false;
}
// create kernel
#ifndef OPTIMIZED_VER
m_kernel = m_program.createKernel("oilify");
if (m_kernel.isNull())
{
ERRORM("Failed to create Oilify filter kernel: " << m_program.log().toStdString());
return false;
}
#else
m_kernel_oilify = m_program.createKernel("oilify");
if (m_kernel_oilify.isNull())
{
ERRORM("Failed to create Oilify filter kernel: " << m_program.log().toStdString());
return false;
}
m_kernel_oilify_prepare = m_program.createKernel("oilify_prepare");
if (m_kernel_oilify_prepare.isNull())
{
ERRORM("Failed to create oilify_prepare filter kernel: " << m_program.log().toStdString());
return false;
}
#endif
setRadius(DEFAULT_RADIUS);
setLevels(DEFAULT_LEVELS);
return (m_good = true);
}
void
ServiceBase::sortByGenreArtist()
{
setLevels( QList<CategoryId::CatMenuId>() << CategoryId::Genre << CategoryId::Artist );
}
void
ServiceBase::sortByAlbum()
{
setLevels( QList<CategoryId::CatMenuId>() << CategoryId::Album );
}
void PhysicsHashSpace::initHashSpace()
{
setLevels(getLevels());
initSpace();
}