int FMINST::run()
{
const int nframes = framesToRun();
for (int i = 0; i < nframes; i++) {
if (--branch <= 0) {
if (fastUpdate) {
if (amptable)
amp = ampmult * tablei(currentFrame(), amptable, amptabs);
float guide = tablei(currentFrame(), indexenv, indtabs);
peakdev = modfreq * (minindex + (indexdiff * guide));
}
else
doupdate();
branch = getSkip();
}
float out[2];
float modsig = modosc->next() * peakdev;
carosc->setfreq(carfreq + modsig);
out[0] = carosc->next() * amp;
if (outputChannels() == 2) {
out[1] = (1.0 - pan) * out[0];
out[0] *= pan;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int WAVY::run()
{
const int frames = framesToRun();
const int chans = outputChannels();
for (int i = 0; i < frames; i++) {
if (--_branch <= 0) {
doupdate();
_branch = getSkip();
}
float sig1 = _oscilA->nexti();
float sig2 = _oscilB->nexti();
float out[chans];
if (_fp)
out[0] = eval(sig1, sig2) * _amp;
else
out[0] = (*_combiner)(sig1, sig2) * _amp;
if (chans == 2) {
out[1] = out[0] * (1.0f - _pan);
out[0] *= _pan;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int MMESH2D :: run()
{
int i;
float out[2];
for (i = 0; i < framesToRun(); i++) {
if (--branch <= 0) {
double p[10];
update (p, 10, kAmp | kPan);
amp = p[2];
if (amptable)
amp *= theEnv->next(currentFrame());
branch = getSkip();
}
out[0] = dcblocker->next(theMesh->tick()) * amp;
if (outputChannels() == 2) {
out[1] = out[0] * (1.0 - pctleft);
out[0] *= pctleft;
}
rtaddout(out);
increment();
}
return framesToRun();
}
void SuperColliderLoopElement::guiEvent(ofxUIEventArgs &e) {
if (e.getName() == "Play") {
setPlaying(isPlay);
}
else if (e.getName() == "Rec") {
setToRecord(toRecord);
}
else if (e.getName() == "Solo") {
setSolo(solo);
SuperColliderLoopElement *ref = this;
ofNotifyEvent(soloEvent, ref);
}
else if (e.getName() == "Del") {
SuperColliderLoopElement *ref = this;
ofNotifyEvent(deleteEvent, ref);
}
else if (e.getName() == "Skip") {
skip = pow((float) 2, (float) ((ofxUIRadio *) gui->getWidget("Skip"))->getValue());
count = beat % (numBeats * getSkip());
}
else if (e.getName() == "BusIn") {
int channel = ((ofxUIRadio *) gui->getWidget("BusIn"))->getValue();
bufWriter->set("channel", channel);
}
else if (e.getName() == "Volume") {
cout << "write vol " << volume << endl;
bufReader->set("volume", volume);
}
}
int WAVETABLE::run()
{
const int nframes = framesToRun();
for (int i = 0; i < nframes; i++) {
if (--branch <= 0) {
if (fastUpdate) {
if (amptable)
amp = ampmult * tablei(currentFrame(), amptable, amptabs);
}
else
doupdate();
branch = getSkip();
}
float out[2];
out[0] = osc->next() * amp;
if (outputChannels() == 2) {
out[1] = (1.0 - spread) * out[0];
out[0] *= spread;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int DISTORT::run()
{
const int insamps = framesToRun() * inputChannels();
rtgetin(in, this, insamps);
for (int i = 0; i < insamps; i += inputChannels()) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
float sig = in[i + inchan];
if (!bypass) {
sig *= (gain / 32768.0f); // apply gain, convert range
sig = distort->next(sig, param);
sig *= 32768.0f;
if (usefilt)
sig = filt->tick(sig);
}
sig *= amp;
float out[2];
if (outputChannels() == 2) {
out[0] = sig * pctleft;
out[1] = sig * (1.0f - pctleft);
}
else
out[0] = sig;
rtaddout(out);
increment();
}
return framesToRun();
}
int GVERB::run()
{
const int samps = framesToRun() * inputChannels();
int i;
float out[2];
rtgetin(in, this, samps);
for (i = 0; i < samps; i += inputChannels()) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
if (currentFrame() > inputframes) in[i+inputchan] = 0.0;
gverb_do(p, in[i+inputchan], out, out+1);
out[0] = (out[0] * amp) + (in[i+inputchan] * p->drylevel);
out[1] = (out[1] * amp) + (in[i+inputchan] * p->drylevel);
rtaddout(out);
increment();
}
return i;
}
int CRACKLE::run()
{
for (int i = 0; i < framesToRun(); i++) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
x3 = x2;
x2 = x1;
x1 = x0;
x0 = std::abs(0.03 - x2 + x3 - param * x1);
float out[2];
out[0] = x0 * amp * 5;
if (outputChannels() == 2) {
out[1] = out[0] * (1.0 - pan);
out[0] *= pan;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int MBOWED :: run()
{
int i;
float out[2];
for (i = 0; i < framesToRun(); i++) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
if (--vibupdate < 0) { // reset the vibrato freq after each cycle
float vibfreq = theRand->range(viblo, vibhi);
theVib->setfreq(vibfreq);
vibupdate = (int)(SR/vibfreq);
}
out[0] = theBow->tick(bowvel) * amp;
theBow->setFrequency(freqbase + (freqamp * ( (theVib->next()+2.0) * 0.5 )));
if (outputChannels() == 2) {
out[1] = out[0] * (1.0 - pctleft);
out[0] *= pctleft;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int GRANSYNTH::run()
{
const int frames = framesToRun();
const int outchans = outputChannels();
int i;
for (i = 0; i < frames; i++) {
if (--_branch <= 0) {
doupdate();
_branch = getSkip();
}
_stream->prepare();
float out[outchans];
if (outchans == 2) {
out[0] = _stream->lastL() * _amp;
out[1] = _stream->lastR() * _amp;
}
else
out[0] = _stream->lastL() * _amp;
rtaddout(out);
increment();
}
return i;
}
int STEREO::run()
{
const int inchans = inputChannels();
const int samps = framesToRun() * inchans;
rtgetin(in, this, samps);
for (int i = 0; i < samps; i += inchans) {
if (--branch <= 0) {
if (fastUpdate) {
if (amptable)
amp = ampmult * tablei(currentFrame(), amptable, amptabs);
}
else
doupdate();
branch = getSkip();
}
float out[2];
out[0] = out[1] = 0.0;
for (int j = 0; j < inchans; j++) {
if (outPan[j] >= 0.0) {
out[0] += in[i+j] * outPan[j] * amp;
out[1] += in[i+j] * (1.0 - outPan[j]) * amp;
}
}
rtaddout(out);
increment();
}
return framesToRun();
}
int JFIR :: run()
{
const int samps = framesToRun() * inputChannels();
rtgetin(in, this, samps);
for (int i = 0; i < samps; i += inputChannels()) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
float insig;
if (currentFrame() < insamps) // still taking input
insig = in[i + inchan] * amp;
else // in ring-down phase
insig = 0.0;
float out[2];
if (bypass)
out[0] = insig;
else
out[0] = filt->tick(insig);
if (outputchans == 2) {
out[1] = out[0] * (1.0 - pctleft);
out[0] *= pctleft;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int MULTIWAVE::run()
{
const int samps = framesToRun();
const int chans = outputChannels();
float out[chans];
for (int i = 0; i < samps; i++) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
for (int j = 0; j < chans; j++)
out[j] = 0.0f;
for (int j = 0; j < numpartials; j++) {
float sig = oscil[j]->next() * amp[j];
if (chans == 1)
out[0] += sig;
else {
out[0] += sig * pan[j];
out[1] += sig * (1.0 - pan[j]);
}
}
float scale = (1.0 / float(numpartials)) * (overall_amp * chans);
for (int j = 0; j < chans; j++)
out[j] *= scale;
rtaddout(out);
increment();
}
return framesToRun();
}
int TRANS3::run()
{
const int outframes = framesToRun();
const int inchans = inputChannels();
float *outp = outbuf; // point to inst private out buffer
double frac;
for (int i = 0; i < outframes; i++) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
while (getframe) {
if (inframe >= RTBUFSAMPS) {
rtgetin(in, this, RTBUFSAMPS * inchans);
inframe = 0;
}
oldersig = oldsig;
oldsig = newsig;
newsig = newestsig;
newestsig = in[(inframe * inchans) + inchan];
inframe++;
incount++;
if (counter - (double) incount < 0.0)
getframe = false;
}
// const double frac = (counter - (double) incount) + 2.0;
const double frac = (counter - (double) incount) + 1.0;
outp[0] = interp3rdOrder(oldersig, oldsig, newsig, newestsig, frac) * amp;
#ifdef DEBUG_FULL
printf("i: %d counter: %g incount: %d frac: %g inframe: %d cursamp: %d\n",
i, counter, incount, frac, inframe, currentFrame());
printf("interping %g, %g, %g, %g => %g\n", oldersig, oldsig, newsig, newestsig, outp[0]);
#endif
if (outputChannels() == 2) {
outp[1] = outp[0] * (1.0 - pctleft);
outp[0] *= pctleft;
}
outp += outputChannels();
increment();
counter += _increment; // keeps track of interp pointer
if (counter - (double) incount >= 0.0)
getframe = true;
}
#ifdef DEBUG
printf("OUT %d frames\n\n", i);
#endif
return framesToRun();
}
void SuperColliderLoopElement::setBeat(int beat) {
this->beat = beat;
if (beat % getNumBeats() == 0 && getPlaying())
{
count = (count + 1) % getSkip();
if (count % (numBeats * getSkip()) == 0) {
if (!mute) play();
count = 0;
}
}
if (beat == 0 && getToRecord()) {
beginRecording();
}
else if (isRecord && (beat >= numBeats || beat == 0)) {
setRecording(false);
}
}
int MYINST::run()
{
// framesToRun() gives the number of sample frames -- 1 sample for each
// channel -- that we have to write during this scheduler time slice.
const int samps = framesToRun() * inputChannels();
// Read <samps> samples from the input file (or audio input device).
rtgetin(_in, this, samps);
// Each loop iteration processes 1 sample frame. */
for (int i = 0; i < samps; i += inputChannels()) {
// This block updates certain parameters at the control rate -- the
// rate set by the user with the control_rate() or reset() script
// functions. The Instrument base class holds this value as a number
// of sample frames to skip between updates. Get this value using
// getSkip() to reset the <_branch> counter.
if (--_branch <= 0) {
doupdate();
_branch = getSkip();
}
// Grab the current input sample, scaled by the amplitude multiplier.
float insig = _in[i + _inchan] * _amp;
float out[2]; // Space for only 2 output chans!
// Just copy it to the output array with no processing.
out[0] = insig;
// If we have stereo output, use the pan pfield.
if (outputChannels() == 2) {
out[1] = out[0] * (1.0f - _pan);
out[0] *= _pan;
}
// Write this sample frame to the output buffer.
rtaddout(out);
// Increment the count of sample frames this instrument has written.
increment();
}
// Return the number of frames we processed.
return framesToRun();
}
int REVERBIT::run()
{
int samps = framesToRun() * inputChannels();
if (currentFrame() < insamps)
rtgetin(in, this, samps);
for (int i = 0; i < samps; i += inputChannels()) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
float insig[2], out[2];
if (currentFrame() < insamps) { // still taking input from file
insig[0] = in[i] * amp;
insig[1] = (inputChannels() == 2) ? in[i + 1] * amp : insig[0];
}
else // in ring-down phase
insig[0] = insig[1] = 0.0;
float rvbsig = -reverbpct * reverb(insig[0] + insig[1], rvbarray);
if (usefilt)
rvbsig = tone(rvbsig, tonedata);
delput(rvbsig, delarray, deltabs);
float delsig = delget(delarray, rtchan_delaytime, deltabs);
out[0] = insig[0] + rvbsig;
out[1] = insig[1] + delsig;
if (dcblock) {
float tmp_in[2];
tmp_in[0] = out[0];
tmp_in[1] = out[1];
out[0] = tmp_in[0] - prev_in[0] + (0.99 * prev_out[0]);
prev_in[0] = tmp_in[0];
prev_out[0] = out[0];
out[1] = tmp_in[1] - prev_in[1] + (0.99 * prev_out[1]);
prev_in[1] = tmp_in[1];
prev_out[1] = out[1];
}
rtaddout(out);
increment();
}
return framesToRun();
}
int MBASE::getInput(int currentFrame, int frames)
{
// number of samples to process this time through
const int inChans = inputChannels();
int rsamps = frames * inChans;
rtgetin(in, this, rsamps);
int n = 0;
int lCurSamp; // local copy for inner loops
float insig;
#ifdef LOOP_DEBUG
int nsig = 0, nzeros = 0;
#endif
float scale = 1.0/inChans;
// apply curve to input signal and mix down to mono if necessary
for (int s = 0, curFrm = currentFrame; s < rsamps; s += inChans, curFrm++)
{
if (curFrm < insamps) { /* processing input signal */
#ifdef LOOP_DEBUG
nsig++;
#endif
if (--m_branch < 0) {
inamp = update(3, insamps, curFrm);
if (amparray)
inamp *= tablei(curFrm, amparray, amptabs);
m_branch = getSkip();
}
if (m_inchan == AVERAGE_CHANS) {
insig = 0.0;
for (int c = 0; c < inChans; c++)
insig += in[s + c];
insig *= scale;
}
else
insig = in[s + m_inchan];
insig *= inamp;
}
else { /* flushing delays & reverb */
#ifdef LOOP_DEBUG
nzeros++;
#endif
insig = 0.0;
}
in[n++] = insig; // write back into input array to save space
}
#ifdef LOOP_DEBUG
DBG1(printf("getInput(): %d signal, %d zero padded\n", nsig, nzeros));
#endif
return 0;
}
varData *getGenVar(indexList *varList,varType type,int *vals,int size){
indexList *indList = varList;
skipList *sList = indList->keyList;
varInd ind;
ind.key = vals;
ind.size = size;
varInd *retInd = getSkip(sList,&ind);
if(!retInd)
return NULL;
varData *retData = retInd->vdat;
return retData;
}
int FREEVERB :: run()
{
float *inL, *inR, *outL, *outR;
inL = in;
inR = inputChannels() > 1 ? in + 1 : in;
outL = outbuf;
outR = outputChannels() > 1 ? outbuf + 1 : outbuf;
int samps = framesToRun() * inputChannels();
if (currentFrame() < insamps)
rtgetin(in, this, samps);
// Scale input signal by amplitude multiplier and setline curve.
for (int i = 0; i < samps; i += inputChannels()) {
if (--branch <= 0) {
double p[11];
update(p, 11, kRoomSize | kPreDelay | kDamp | kDry | kWet | kWidth);
if (currentFrame() < insamps) { // amp is pre-effect
amp = update(3, insamps);
if (amparray)
amp *= tablei(currentFrame(), amparray, amptabs);
}
updateRvb(p);
branch = getSkip();
}
if (currentFrame() < insamps) { // still taking input from file
in[i] *= amp;
if (inputChannels() == 2)
in[i + 1] *= amp;
}
else { // in ringdown phase
in[i] = 0.0;
if (inputChannels() == 2)
in[i + 1] = 0.0;
}
increment();
}
// Hand off to Freeverb to do the actual work.
rvb->processreplace(inL, inR, outL, outR, framesToRun(), inputChannels(),
outputChannels());
return framesToRun();
}
int PANECHO::run()
{
int samps = framesToRun() * inputChannels();
if (currentFrame() < insamps)
rtgetin(in, this, samps);
for (int i = 0; i < samps; i += inputChannels()) {
if (--branch <= 0) {
double p[7];
update(p, 7, kDelTime0 | kDelTime1 | kDelRegen);
amp = update(3, insamps);
if (amptable)
amp *= tablei(currentFrame(), amptable, amptabs);
float thisdeltime = p[4];
if (thisdeltime != prevdeltime0) {
delsamps0 = getdelsamps(thisdeltime);
prevdeltime0 = thisdeltime;
}
thisdeltime = p[5];
if (thisdeltime != prevdeltime1) {
delsamps1 = getdelsamps(thisdeltime);
prevdeltime1 = thisdeltime;
}
regen = p[6];
branch = getSkip();
}
float sig, out[2];
if (currentFrame() < insamps)
sig = in[i + inchan] * amp;
else
sig = 0.0;
out[0] = sig + (delay1->getsamp(delsamps1) * regen);
out[1] = delay0->getsamp(delsamps0);
delay0->putsamp(out[0]);
delay1->putsamp(out[1]);
rtaddout(out);
increment();
}
return framesToRun();
}
int CONVOLVE1::run()
{
const int inchans = inputChannels();
const int outchans = outputChannels();
const int nframes = framesToRun();
if (currentFrame() < _inframes) {
const int insamps = nframes * inchans;
rtgetin(_inbuf, this, insamps);
for (int i = _inchan; i < insamps; i += inchans)
_bucket->drop(_inbuf[i]);
}
else {
for (int i = 0; i < nframes; i++)
_bucket->drop(0.0f);
}
// If in last run invocation, make sure everything in bucket is processed.
if (currentFrame() + nframes >= nSamps())
_bucket->flush();
float drypct = 1.0 - _wetpct;
for (int i = 0; i < nframes; i++) {
if (--_branch <= 0) {
doupdate();
drypct = 1.0 - _wetpct;
_branch = getSkip();
}
float out[2];
out[0] = (_wet[_outReadIndex] * _wetpct) + (_dry[_outReadIndex] * drypct);
incrementOutReadIndex();
out[0] *= _amp;
if (outchans == 2) {
out[1] = out[0] * (1.0 - _pan);
out[0] *= _pan;
}
rtaddout(out);
increment();
}
return framesToRun();
}
// ---------------------------------------------------------------------- run --
int SPECTACLE2_BASE::run()
{
const int nframes = framesToRun();
const int inchans = inputChannels();
const int outchans = outputChannels();
// If still taking input, store framesToRun() frames into <_inbuf>.
const bool input_avail = (currentFrame() < _input_frames);
const int insamps = nframes * inchans;
if (input_avail)
rtgetin(_inbuf, this, insamps);
for (int i = 0; i < nframes; i++) {
if (--_branch <= 0) {
doupdate();
subupdate();
_branch = getSkip();
}
float insig;
if (input_avail)
insig = _inbuf[(i * inchans) + _inchan] * _iamp;
else
insig = 0.0f;
_bucket->drop(insig); // may process <_decimation> input frames
float outsig = _outbuf[_out_read_index] * _wet;
increment_out_read_index();
float drysig = _dry_delay->next(insig);
outsig += drysig * _dry;
float out[outchans];
out[0] = outsig * _oamp;
if (outchans == 2) {
out[1] = out[0] * (1.0f - _pan);
out[0] *= _pan;
}
rtaddout(out);
increment();
}
return nframes;
}
int WIGGLE::run()
{
const int nframes = framesToRun();
for (int i = 0; i < nframes; i++) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
float mod_sig = 0.0f;
if (mod_depth != 0.0f) {
if (depth_type == CarPercent)
mod_sig = modulator->tick(mod_freq, mod_depth * car_freq);
else { // ModIndex
float mdepth = mod_depth * mod_freq; // convert mdepth to peak dev.
mod_sig = modulator->tick(mod_freq, mdepth);
}
}
float car_sig = carrier->tick(car_freq + mod_sig, amp);
#ifdef DEBUG2
printf("carfreq=%f carsig=%f modsig=%f\n", car_freq, car_sig, mod_sig);
#endif
float sig = car_sig;
for (int j = 0; j < nfilts; j++)
sig = filt[j]->tick(sig);
if (do_balance)
sig = balancer->tick(sig, car_sig);
float out[2];
if (outputChannels() == 2) {
out[0] = sig * pan;
out[1] = sig * (1.0f - pan);
}
else
out[0] = sig;
rtaddout(out);
increment();
}
return nframes;
}
int MSITAR :: run()
{
int i;
float out[2];
for (i = 0; i < framesToRun(); i++) {
if (--branch <= 0) {
double p[7];
update(p, 7, kAmp | kFreq | kPan | kStramp);
// "amp" is now separate from the internal string amp
// string amp is controlled by makegen 1, or a table, or it is 1.0
amp = p[2];
if (amptable)
stramp = theEnv->next(currentFrame());
else if (nargs > 6)
stramp = p[6];
else
stramp = 1.0;
if (freq != p[3]) {
theSitar->setFrequency(p[3]);
freq = p[3];
}
if (nargs > 5) pctleft = p[5];
branch = getSkip();
}
out[0] = theSitar->tick(stramp) * amp;
if (outputChannels() == 2) {
out[1] = out[0] * (1.0 - pctleft);
out[0] *= pctleft;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int VOCODE3::run()
{
const int inchans = inputChannels();
const int samps = framesToRun() * inchans;
rtgetin(_in, this, samps);
for (int i = 0; i < samps; i += inchans) {
if (--_branch <= 0) {
doupdate();
_branch = getSkip();
}
const float carsig = _in[i];
const float modsig = _in[i + 1];
float out[2];
out[0] = 0.0f;
for (int j = 0; j < _numfilts; j++) {
float mod;
if (_hold)
mod = _lastmod[j];
else
mod = _modulator_filt[j]->next(modsig);
float car = _carrier_filt[_maptable[j]]->next(carsig);
float balsig = _balancer[j]->next(car, mod);
if (_scaletable != NULL)
balsig *= _scaletable[j];
out[0] += balsig;
}
out[0] *= _amp;
if (outputChannels() == 2) {
out[1] = out[0] * (1.0f - _pan);
out[0] *= _pan;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int DELAY::run()
{
int samps = framesToRun() * inputChannels();
if (currentFrame() < insamps)
rtgetin(in, this, samps);
for (int i = 0; i < samps; i += inputChannels()) {
if (--branch <= 0) {
double p[9];
update(p, 9, kDelTime | kDelRegen | kPan);
amp = update(3, insamps);
if (amptable)
amp *= tablei(cursamp, amptable, amptabs);
float deltime = p[4];
delsamps = deltime * SR;
regen = p[5];
pctleft = p[8];
branch = getSkip();
}
float sig, out[2];
if (currentFrame() < insamps)
sig = in[i + inchan] * amp;
else
sig = 0.0;
out[0] = sig + (delay->getsamp(delsamps) * regen);
delay->putsamp(out[0]);
if (outputChannels() == 2) {
out[1] = out[0] * (1.0 - pctleft);
out[0] *= pctleft;
}
rtaddout(out);
increment();
}
return framesToRun();
}
/* ------------------------------------------------------------------ run --- */
int RVB::run()
{
double rvbsig[2][8192];
const int frames = framesToRun();
const int inChans = inputChannels();
rtgetin(in, this, frames * inChans);
register float *outptr = &this->outbuf[0];
/* run summed 1st and 2nd generation paths through reverberator */
for (int n = 0; n < frames; n++) {
if (--_branch <= 0) {
double p[4];
update(p, 4);
m_amp = p[3];
_branch = getSkip();
}
if (m_amp != 0.0) {
double rmPair[2];
double rvbPair[2];
rmPair[0] = in[n*inChans+2];
rmPair[1] = in[n*inChans+3];
doRun(rmPair, rvbPair, currentFrame() + n);
rvbsig[0][n] = rvbPair[0] * m_amp;
rvbsig[1][n] = rvbPair[1] * m_amp;
}
else
rvbsig[0][n] = rvbsig[1][n] = 0.0;
/* sum the input signal (which includes early response) & reverbed sigs */
*outptr++ = in[n*inChans] + rvbsig[0][n];
*outptr++ = in[n*inChans+1] + rvbsig[1][n];
}
increment(frames);
DBG(printf("FINAL MIX:\n"));
DBG(PrintInput(&this->outbuf[0], RTBUFSAMPS));
DBG(PrintInput(&this->outbuf[1], RTBUFSAMPS));
return frames;
}
int FILTSWEEP :: run()
{
const int samps = framesToRun() * inputChannels();
if (currentFrame() < insamps)
rtgetin(in, this, samps);
for (int i = 0; i < samps; i += inputChannels()) {
if (--branch <= 0) {
doupdate();
branch = getSkip();
}
float insig;
if (currentFrame() < insamps)
insig = in[i + inchan];
else
insig = 0.0;
float out[2];
out[0] = insig;
if (!bypass) {
for (int j = 0; j < nfilts; j++)
out[0] = filt[j]->tick(out[0]);
if (do_balance)
out[0] = balancer->tick(out[0], insig);
}
out[0] *= amp;
if (outputChannels() == 2) {
out[1] = out[0] * (1.0 - pctleft);
out[0] *= pctleft;
}
rtaddout(out);
increment();
}
return framesToRun();
}
int REV :: run()
{
int samps = framesToRun() * inputChannels();
if (currentFrame() < insamps)
rtgetin(in, this, samps);
for (int i = 0; i < samps; i += inputChannels()) {
if (--branch <= 0) {
amp = update(3, insamps);
if (amparray)
amp *= tablei(cursamp, amparray, amptabs);
const double wetdrymix = update(6);
reverb->setEffectMix(wetdrymix);
branch = getSkip();
}
float insig;
if (cursamp < insamps) // still taking input from file
insig = in[i + inchan] * amp;
else // in ring-down phase
insig = 0.0;
reverb->tick(insig);
float out[2];
if (outputChannels() == 2) {
out[0] = reverb->lastOutputL();
out[1] = reverb->lastOutputR();
}
else
out[0] = reverb->lastOutput();
rtaddout(out);
increment();
}
return framesToRun();
}
