public override void tick()
{
if (!_active)
{
return;
}
SignalBuffer dbin = getSignalInputBuffer(ioIn);
SignalBuffer dbout = getSignalOutputBuffer(ioOut);
if (!active)
{
if ((dbin != null) && (dbout != null))
{
dbout.CopyFrom(dbin);
}
return;
}
SignalBuffer dbf = getSignalInputBuffer(ioF);
SignalBuffer dbq = getSignalInputBuffer(ioQ);
if (dbout == null)
{
return;
}
if (dbin == null)
{
return;
}
if (filter == null)
{
if (HighPass)
{
filter = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.HighPass, Math.Sqrt(f1 * f2), Math.Pow(10, (q1 + q2) / 2 / 20));
}
else
{
filter = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, Math.Sqrt(f1 * f2), Math.Pow(10, (q1 + q2) / 2 / 20));
}
}
for (int i = 0; i < owner.blockSize; i++)
{
double fin = (dbf != null) ? dbf.data[i] : 0;
double qin = (dbq != null) ? dbq.data[i] : 0;
double sig = (dbin != null) ? dbin.data[i]:0;
fin = f1 * Math.Pow(f2 / f1, (fin + 1.0) / 2.0);
qin = Math.Pow(10, (q1 + (q2 - q1) * (qin + 1.0) / 2) / 20);
filter.frequency = fin;
filter.Q = qin;
sig = filter.filter(sig);
dbout.data[i] = sig;
}
}
public override void tick()
{
if (!_active)
{
return;
}
SignalBuffer IN = getSignalInputBuffer(ioIn);
SignalBuffer SIN = getSignalInputBuffer(ioRef0);
SignalBuffer COS = getSignalInputBuffer(ioRef90);
SignalBuffer OUTI = getSignalOutputBuffer(ioOI);
SignalBuffer OUTQ = getSignalOutputBuffer(ioOQ);
SignalBuffer OUTA = getSignalOutputBuffer(ioA);
if ((IN == null) || (SIN == null) || (COS == null))
{
return;
}
if ((OUTI == null) && (OUTQ == null) && (OUTA == null))
{
return;
}
if (stage1a == null)
{
stage1a = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, fc, Math.Sqrt(Math.Sqrt(2)));
stage2a = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, fc, Math.Sqrt(Math.Sqrt(2)));
stage1b = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, fc, Math.Sqrt(Math.Sqrt(2)));
stage2b = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, fc, Math.Sqrt(Math.Sqrt(2)));
updateNeeded = false;
}
if (updateNeeded)
{
stage1a.frequency = fc;
stage1b.frequency = fc;
stage2a.frequency = fc;
stage2b.frequency = fc;
updateNeeded = false;
}
for (int i = 0; i < owner.blockSize; i++)
{
sval = SIN.data[i] * IN.data[i];
cval = COS.data[i] * IN.data[i];
double sout = stage2a.filter(stage1a.filter(sval));
double cout = stage2b.filter(stage1b.filter(cval));
if (OUTI != null)
{
OUTI.data[i] = sout;
}
if (OUTQ != null)
{
OUTQ.data[i] = cout;
}
if (OUTA != null)
{
OUTA.data[i] = Math.Sqrt(sout * sout + cout * cout);
}
}
}
public override void tick()
{
if (!_active)
{
return;
}
if (loopstage == null)
{
loopstage = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LoopFilter, fl, 1.0 / Math.Sqrt(2), 1000);
fclpa = new BiQuadC(owner.sampleRate, BiQuadC.BiQuadOrder.Second, BiQuadC.BiQuadMode.LowPass, fc * 1.2, 1.0 / Math.Sqrt(2));
fclpb = new BiQuadC(owner.sampleRate, BiQuadC.BiQuadOrder.Second, BiQuadC.BiQuadMode.LowPass, fc * 1.2, 1.0);
fchpa = new BiQuadC(owner.sampleRate, BiQuadC.BiQuadOrder.Second, BiQuadC.BiQuadMode.HighPass, fc / 1.2, 1.0 / Math.Sqrt(2));
fchpb = new BiQuadC(owner.sampleRate, BiQuadC.BiQuadOrder.Second, BiQuadC.BiQuadMode.HighPass, fc / 1.2, 1.0);
//lp1 = new BiQuadC(owner.sampleRate, BiQuadC.BiQuadOrder.Second, BiQuadC.BiQuadMode.LowPass, fc / 2, 1.0 / Math.Sqrt(2));
//lp2 = new BiQuadC(owner.sampleRate, BiQuadC.BiQuadOrder.Second, BiQuadC.BiQuadMode.LowPass, fc / 2, 1.0);
lp1 = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, fc / 2, 1.0 / Math.Sqrt(2));
lp2 = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, fc / 2, 1.0);
lp3 = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, fc / 2, 1.0 / Math.Sqrt(2));
lp4 = new BiQuad(owner.sampleRate, BiQuad.BiQuadOrder.Second, BiQuad.BiQuadMode.LowPass, fc / 2, 1.0);
updateNeeded = false;
}
if (updateNeeded)
{
loopstage.frequency = fl;
loopstage.KA = Math.Pow(10, KA / 20);
fclpa.frequency = fc * 1.2;
fclpb.frequency = fc * 1.2;
fchpa.frequency = fc / 1.2;
fchpb.frequency = fc / 1.2;
lp1.frequency = fc / 2;
lp2.frequency = fc / 2;
lp3.frequency = fc / 2;
lp4.frequency = fc / 2;
updateNeeded = false;
}
SignalBuffer INI = getSignalInputBuffer(ioII);
SignalBuffer INQ = getSignalInputBuffer(ioIQ);
SignalBuffer OUTI = getSignalOutputBuffer(ioOI);
SignalBuffer OUTQ = getSignalOutputBuffer(ioOQ);
SignalBuffer OUTA = getSignalOutputBuffer(ioA);
SignalBuffer OUTF = getSignalOutputBuffer(ioF);
for (int i = 0; i < owner.blockSize; i++)
{
double ini = (INI != null) ? INI.data[i] : 0.0;
double inq = (INQ != null) ? INQ.data[i] : 0.0;
Complex inv = new Complex(ini, inq);
Complex inf = fclpa.filter(fclpb.filter(fchpa.filter(fchpb.filter(inv))));
double infa = inf.abs;
double sval = Math.Sin(phs);
double cval = Math.Cos(phs);
double lin = Complex.arg(inf * Complex.conj(Complex.exp(new Complex(0, phs))));
double lout = loopstage.filter(lin);
phs = lout;
phs -= 2 * Math.PI * Math.Floor(phs / (2 * Math.PI));
double xr = sval * ini + cval * inq;
double xi = sval * inq - cval * ini;
// Complex o = lp2.filter(lp1.filter(new Complex(xr, xi)));
double o = lp2.filter(lp1.filter(Math.Abs(xr * xr + xi * xi)));
double p = lp4.filter(lp3.filter(Math.Atan2(xi, xr)));
if (OUTI != null)
{
OUTI.data[i] = sval;
}
if (OUTQ != null)
{
OUTQ.data[i] = cval;
}
if (OUTA != null)
{
// OUTA.data[i] = o.abs;
OUTA.data[i] = o;
}
if (OUTF != null)
{
OUTF.data[i] = p; // o.phi;
}
}
}