//--------------------------------------------------------------
void ofxGranularSynth::setDuration(float duration){
if(duration>0){
float oldDuration = mDuration;
mDuration = duration*14000;
setOverlap((float)mOverlap/(float)oldDuration);
}
}
void InspectorLayerTreeAgent::reasonsForCompositingLayer(ErrorString& errorString, const String& layerId, RefPtr<Inspector::Protocol::LayerTree::CompositingReasons>& compositingReasonsResult)
{
const RenderLayer* renderLayer = m_idToLayer.get(layerId);
if (!renderLayer) {
errorString = ASCIILiteral("Could not find a bound layer for the provided id");
return;
}
CompositingReasons reasonsBitmask = renderLayer->compositor().reasonsForCompositing(*renderLayer);
auto compositingReasons = Inspector::Protocol::LayerTree::CompositingReasons::create().release();
if (reasonsBitmask & CompositingReason3DTransform)
compositingReasons->setTransform3D(true);
if (reasonsBitmask & CompositingReasonVideo)
compositingReasons->setVideo(true);
else if (reasonsBitmask & CompositingReasonCanvas)
compositingReasons->setCanvas(true);
else if (reasonsBitmask & CompositingReasonPlugin)
compositingReasons->setPlugin(true);
else if (reasonsBitmask & CompositingReasonIFrame)
compositingReasons->setIFrame(true);
if (reasonsBitmask & CompositingReasonBackfaceVisibilityHidden)
compositingReasons->setBackfaceVisibilityHidden(true);
if (reasonsBitmask & CompositingReasonClipsCompositingDescendants)
compositingReasons->setClipsCompositingDescendants(true);
if (reasonsBitmask & CompositingReasonAnimation)
compositingReasons->setAnimation(true);
if (reasonsBitmask & CompositingReasonFilters)
compositingReasons->setFilters(true);
if (reasonsBitmask & CompositingReasonPositionFixed)
compositingReasons->setPositionFixed(true);
if (reasonsBitmask & CompositingReasonPositionSticky)
compositingReasons->setPositionSticky(true);
if (reasonsBitmask & CompositingReasonOverflowScrollingTouch)
compositingReasons->setOverflowScrollingTouch(true);
if (reasonsBitmask & CompositingReasonStacking)
compositingReasons->setStacking(true);
if (reasonsBitmask & CompositingReasonOverlap)
compositingReasons->setOverlap(true);
if (reasonsBitmask & CompositingReasonNegativeZIndexChildren)
compositingReasons->setNegativeZIndexChildren(true);
if (reasonsBitmask & CompositingReasonTransformWithCompositedDescendants)
compositingReasons->setTransformWithCompositedDescendants(true);
if (reasonsBitmask & CompositingReasonOpacityWithCompositedDescendants)
compositingReasons->setOpacityWithCompositedDescendants(true);
if (reasonsBitmask & CompositingReasonMaskWithCompositedDescendants)
compositingReasons->setMaskWithCompositedDescendants(true);
if (reasonsBitmask & CompositingReasonReflectionWithCompositedDescendants)
compositingReasons->setReflectionWithCompositedDescendants(true);
if (reasonsBitmask & CompositingReasonFilterWithCompositedDescendants)
compositingReasons->setFilterWithCompositedDescendants(true);
if (reasonsBitmask & CompositingReasonBlendingWithCompositedDescendants)
compositingReasons->setBlendingWithCompositedDescendants(true);
if (reasonsBitmask & CompositingReasonIsolatesCompositedBlendingDescendants)
compositingReasons->setIsolatesCompositedBlendingDescendants(true);
if (reasonsBitmask & CompositingReasonPerspective)
compositingReasons->setPerspective(true);
if (reasonsBitmask & CompositingReasonPreserve3D)
compositingReasons->setPreserve3D(true);
if (reasonsBitmask & CompositingReasonWillChange)
compositingReasons->setWillChange(true);
if (reasonsBitmask & CompositingReasonRoot)
compositingReasons->setRoot(true);
compositingReasonsResult = WTF::move(compositingReasons);
}
//compute audio
void GrainCluster::nextBuffer(double * accumBuff,unsigned int numFrames)
{
if (addFlag == true){
addFlag = false;
myGrains->push_back(new GrainVoice(theSounds,duration,pitch));
int idx = myGrains->size()-1;
myGrains->at(idx)->setWindow(windowType);
switch (myDirMode) {
case FORWARD:
myGrains->at(idx)->setDirection(1.0);
break;
case BACKWARD:
myGrains->at(idx)->setDirection(-1.0);
break;
case RANDOM_DIR:
if (randf()>0.5)
myGrains->at(idx)->setDirection(1.0);
else
myGrains->at(idx)->setDirection(-1.0);
break;
default:
break;
}
myGrains->at(idx)->setVolume(normedVol);
numVoices += 1;
setOverlap(overlapNorm);
}
if (removeFlag == true){
myLock->lock();
if (myGrains->size() > 1){
if (nextGrain >= myGrains->size()-1){
nextGrain = 0;
}
myGrains->pop_back();
setOverlap(overlapNorm);
}
removeFlag = false;
myLock->unlock();
}
if (isActive == true){
//initialize play positions array
double playPositions[theSounds->size()];
double playVols[theSounds->size()];
//buffer variables
unsigned int nextFrame = 0;
//compute sub_buffers for reduced function calls
int frameSkip = 256;
//fill buffer
for (int j = 0; j < (numFrames/(frameSkip)); j++){
//check for bang
if ((local_time > bang_time) || (awaitingPlay)){
//debug
//cout << "bang " << nextGrain << endl;
//reset local
if (!awaitingPlay){
local_time = 0;
//clear play and volume buffs
for (int i = 0; i < theSounds->size(); i++){
playPositions[i] = (double)(-1.0);
playVols[i] = (double) 0.0;
}
//TODO: get position vector for grain with idx nextGrain from controller
//udate positions vector (currently randomized)q
if (myVis)
myVis->getTriggerPos(nextGrain,playPositions,playVols,duration);
}
//get next pitch (using LFO) - eventually generalize to an applyLFOs method (if LFO control will be exerted over multiple params)
if ((pitchLFOAmount > 0.0f) && (pitchLFOFreq > 0.0f)){
float nextPitch = fabs(pitch + pitchLFOAmount * sin(2*PI*pitchLFOFreq*GTime::instance().sec));
myGrains->at(nextGrain)->setPitch(nextPitch);
}
//update spatialization/get new channel multiplier set
updateSpatialization();
myGrains->at(nextGrain)->setChannelMultipliers(channelMults);
//trigger grain
awaitingPlay = myGrains->at(nextGrain)->playMe(playPositions,playVols);
//only advance if next grain is playable. otherwise, cycle through again
//to wait for playback
if (!awaitingPlay){
//queue next grain for trigger
nextGrain++;
//wrap grain idx
if (nextGrain >= myGrains->size())
nextGrain = 0;
}else{
//debug
//cout << "playback delayed "<< endl;
}
}
//advance time
local_time+=frameSkip;
//sample offset (1 sample at a time for now)
nextFrame = j*frameSkip;
//iterate over all grains
for (int k = 0; k < myGrains->size(); k++){
myGrains->at(k)->nextBuffer(accumBuff,frameSkip, nextFrame,k);
}
}
}
}
//Constructor
GrainCluster::GrainCluster(vector<AudioFile*> * soundSet, float theNumVoices)
{
//initialize mutext
myLock = new Mutex();
//cluster id
myId = ++clusterId;
//playback bool to make sure we precisely time grain triggers
awaitingPlay = false;
//number of voices
numVoices = theNumVoices;
//initialize random number generator (for random motion)
srand(time(NULL));
//initialize interfacing flags
addFlag = false;
removeFlag = false;
//keep pointer to the sound set
theSounds = soundSet;
//trigger idx
nextGrain = 0;
//intialize timer
local_time = 0;
//default duration (ms)
duration = 500.0;
//default pitch
pitch = 1.0f;
//default window type
windowType = HANNING;
//initialize pitch LFO
pitchLFOFreq = 0.01f;
pitchLFOAmount = 0.0f;
//initialize channel multiplier array
channelMults = new double[MY_CHANNELS];
for (int i = 0; i < MY_CHANNELS; i++){
channelMults[i] = 0.999f;
}
currentAroundChan = 1;
stereoSide = 0;
side = 1;
spatialMode = UNITY;
channelLocation = -1;
myDirMode = RANDOM_DIR;
//create grain voice vector
myGrains = new vector<GrainVoice *>;
//populate grain cloud
for (int i = 0; i < numVoices; i++)
{
myGrains->push_back(new GrainVoice( theSounds, duration, pitch));
}
//set volume of cloud to unity
setVolumeDb(0.0);
//set overlap (default to full overlap)
setOverlap(1.0f);
// //direction
// setDirection(RANDOM_DIR);
//initialize trigger time (samples)
bang_time = duration * MY_SRATE * (double) 0.001 / overlap;
//load grains
for (int i = 0; i < myGrains->size(); i++){
myGrains->at(i)->setDurationMs(duration);
}
//state - (user can remove cloud from "play" for editing)
isActive = true;
}
int fei::Vector_core::scatterToOverlap()
{
if (fei::numProcs(comm_) == 1 || haveFEVector()) {
return(0);
}
#ifndef FEI_SER
if (!overlapAlreadySet_) {
setOverlap();
}
//...and now the overlap is whatever is in our remotelyOwned_ vectors.
//first find out which procs we'll be receiving from.
std::vector<int> recvProcs;
for(unsigned i=0; i<remotelyOwned_.size(); ++i) {
if ((int)i == fei::localProc(comm_)) continue;
if (remotelyOwned_[i]->size() == 0) continue;
recvProcs.push_back((int)i);
}
//find out the send-procs.
std::vector<int> sendProcs;
fei::mirrorProcs(comm_, recvProcs, sendProcs);
//declare arrays to send from, and corresponding sizes
std::vector<std::vector<int> > send_ints(sendProcs.size());
std::vector<std::vector<double> > send_doubles(sendProcs.size());
std::vector<int> send_sizes(sendProcs.size());
std::vector<MPI_Request> mpiReqs(sendProcs.size()+recvProcs.size());
std::vector<MPI_Status> mpiStatuses(sendProcs.size()+recvProcs.size());
int tag1 = 11111;
int tag2 = 11112;
//first, the procs we're going to send to, have to let us know
//how much data we're supposed to send. So we have to receive
//sizes and then indices from the "send"-procs.
for(unsigned i=0; i<sendProcs.size(); ++i) {
MPI_Irecv(&send_sizes[i], 1, MPI_INT, sendProcs[i],
tag1, comm_, &mpiReqs[i]);
}
//now we'll send the sizes of our remotely-owned data to the
//procs that we will be receiving the data from, and also the
//indices that we want to receive.
for(unsigned i=0; i<recvProcs.size(); ++i) {
int proc = recvProcs[i];
int size = remotelyOwned_[proc]->size();
MPI_Send(&size, 1, MPI_INT, proc, tag1, comm_);
}
MPI_Waitall(sendProcs.size(), &mpiReqs[0], &mpiStatuses[0]);
//now resize our send_ints and send_doubles arrays, and post the recvs
//for indices that we're supposed to pack.
for(unsigned i=0; i<sendProcs.size(); ++i) {
int proc = sendProcs[i];
int size = send_sizes[i];
send_ints[i].resize(size);
MPI_Irecv(&(send_ints[i][0]), size, MPI_INT, proc, tag1,
comm_, &mpiReqs[i]);
send_doubles[i].resize(size);
}
//now send the indices that we want to receive data for.
for(unsigned i=0; i<recvProcs.size(); ++i) {
int proc = recvProcs[i];
int size = remotelyOwned_[proc]->size();
int* indices = &(remotelyOwned_[proc]->indices())[0];
MPI_Send(indices, size, MPI_INT, proc, tag1, comm_);
}
MPI_Waitall(sendProcs.size(), &mpiReqs[0], &mpiStatuses[0]);
//now post our recvs.
for(unsigned i=0; i<recvProcs.size(); ++i) {
int proc = recvProcs[i];
int size = remotelyOwned_[proc]->size();
double* coefs = &(remotelyOwned_[proc]->coefs())[0];
MPI_Irecv(coefs, size, MPI_DOUBLE, proc, tag2, comm_, &mpiReqs[i]);
}
//now pack and send the coefs that the other procs need from us.
for(unsigned i=0; i<sendProcs.size(); ++i) {
int proc = sendProcs[i];
int num = send_sizes[i];
int err = copyOutOfUnderlyingVector(num, &(send_ints[i][0]),
&(send_doubles[i][0]), 0);
if (err != 0) {
FEI_COUT << "fei::Vector_core::scatterToOverlap ERROR getting data to send."<<FEI_ENDL;
return(err);
}
MPI_Send(&(send_doubles[i][0]), num, MPI_DOUBLE, proc,
tag2, comm_);
}
MPI_Waitall(recvProcs.size(), &mpiReqs[0], &mpiStatuses[0]);
#endif //#ifndef FEI_SER
return(0);
}