syncModOsc
multi modulated oscillator on sine basis. "pitch" controls pitch in normal logarithic sense "lin" adds a linear offset to the rate of the oscillator "LFM" and "EFM" are modulation width controls for linear and exponential modulation "SoftFM" controls the width of the phase modulation by pseudo-derivative of sync-input. "PM" controls the width of the normal phase modulation "AM" controls the width of amplitude modulation "hardsync" resets phase to zero immediatly at sync>0. "soft" resets phase to zero at sync>0, but smoothed by a lowpass filter, which is controlled by "softness" "SH" takes current wave-output value and adds it as an offset at sync>0, smoothed by the "smoothSH" control "reverse" reverses play direction at sync>0 "shift" shifts the phase by the amount of the pseudo derivate of the sync signal when sync>0 features external "modulation width" inputs to control those with LFO's, sequencers or envelopes.
Inlets
frac32buffer linear FM audio input
frac32buffer exponential FM audio input
frac32buffer phase modulation audio input
frac32buffer amplitude modulation audio input
frac32buffer sync audio input
frac32 linear FM width control
frac32 exponential FM width control
frac32 softFM width control
frac32 phase modulation width control
frac32 amplitude modulation width control
frac32 softsync softness control
frac32 smoothSH softness control
bool32 off/on hardsync control
bool32 off/on softsync control
bool32 off/on smoothSH control
bool32 off/on reverse control
bool32 off/on shift control
bool32 active
frac32.bipolar pitch
Outlets
frac32buffer.bipolar sine wave
Parameters
frac32.s.map.pitch logarithmic pitch control (normal)
frac32.s.map.pitch smooths out softsync
frac32.s.map.pitch smooths out SH sync
frac32.s.map linear pitch detune
frac32.s.map linear FM width
frac32.s.map exponential FM width
frac32.s.map softFM width
frac32.s.map phase modulation width
frac32.s.map amplitude modulation width
bool32.tgl hardsyncs signal to phase=0 at sync
bool32.tgl softsyncs signal to phase=0 at sync
bool32.tgl adds current wave-position as offset to the wave at sync
bool32.tgl reverses play direction at sync
bool32.tgl shifts at sync by pseudoderivative of sync signal
uint32_t Phase;
int32_t prev;
int32_t r;
int32_t p2;
int trig;
int32_t val1;
int32_t val2;
int32_t vol;
int32_t prav;
int8_t dir;
int32_t fq;
int32_t fs;
int32_t ccomp;Phase = 0;
dir = 1;if (inlet_active > 0) {
MTOF(param_softness + inlet_softness + inlet_pitch, fq);
MTOF(param_smoothSH + inlet_pitch, fs);
ccomp = (1 << 27) - ((param_AM + inlet_AW) > 0 ? (param_AM + inlet_AW)
: (-param_AM - inlet_AW));
}if (inlet_active > 0) {
int32_t freq;
MTOFEXTENDED(param_pitch +
___SMMUL((param_EFM + inlet_EFW) << 3, inlet_EFM << 2) +
inlet_pitch,
freq);
Phase +=
(param_lin + freq +
___SMMUL(inlet_LFM << 3, (param_LFM + inlet_LFW) << 2) +
(___SMMUL((inlet_sync - prev) << 5, (param_softFM + inlet_softFM) << 4)
<< 2)) *
dir;
if ((inlet_sync > 0) && (!(trig))) {
trig = 1;
if (param_hardsync + inlet_hardsync > 0) {
Phase = 0;
}
if (param_soft + inlet_softsync > 0) {
vol = -p2;
}
if (param_SH + inlet_smthSH > 0) {
prav = -(r >> 5);
}
if (param_reverse + inlet_reverse > 0) {
dir = dir > 0 ? -1 : 1;
;
}
if (param_shift + inlet_shift > 0) {
Phase = Phase - ((inlet_sync - prev) << 3);
}
} else if (inlet_sync <= 0) {
trig = 0;
}
val2 = ___SMMLA((prav - val2) << 1, fs, val2);
val1 = ___SMMLA((vol - val1) << 1, fq, val1);
p2 = Phase + val1 +
(___SMMUL(inlet_phase << 4, (param_PM + inlet_PMW) << 4) << 4);
SINE2TINTERP(p2, r)
outlet_wave = ___SMMUL(
(((r) >> 5) + val2 * ((param_SH + inlet_smthSH) > 0 ? 1 : 0)) << 3,
(ccomp + ___SMMUL((param_AM + inlet_AW) << 3, inlet_AM << 2) << 2));
prev = inlet_sync;
}