multiLFO
LFO with 6 different waveform outputs. Each waveform can run at it's own harmonic rate (x1, x2, x3 etc) based on the root frequency. When "frqIn" is high, it reads the pitch-input as frequency (eg. for host-tempo-sync with BPMext module) and the pitch-knob is not used (octave and harmonics are still used!).
Inlets
frac32.bipolar pitch (freq when "frqIn" is high)
frac32 fm input
frac32 phase
bool32.rising reset phase
Outlets
frac32.bipolar sine wave
frac32 tri
frac32 saw
frac32 rmp
frac32 sqr
frac32 pls
Parameters
int32 sets octave respective to root frequency
int32 harmonic number for sine
int32 harmonic number for triangle
int32 harmonic number for saw
int32 harmonic number for ramp
int32 harmonic number for square
int32 hrmPls
frac32.s.map PW
frac32.s.map.lfopitch pitch control if "frqIn" is low, otherwise not used
bool32.tgl when high, uses "pitch" input as a frequency instead of semitone input (eg. connect BPMext's "baserate" output to "pitch" input)
int32_t Phase;
uint32_t r;
int32_t v30 = 1 << 30;
uint32_t v31 = 1 << 31;
int32_t v27 = 1 << 27;Phase = 0;
r = 1;if (inlet_reset && r) {
Phase = inlet_phase << 4;
r = 0;
} else {
if (!inlet_reset)
r = 1;
}
int32_t freq;
MTOFEXTENDED(param_pitch + inlet_pitch, freq);
if (param_frqIn > 0) {
freq = inlet_pitch;
}
freq = param_octave > 0 ? freq << param_octave : freq >> -param_octave;
freq = freq >> 2;
freq += ___SMMUL(freq, inlet_freq << 4) << 2;
Phase += freq;
int32_t sine;
SINE2TINTERP(Phase *param_hrmSin, sine)
outlet_sine = (sine >> 4);
int32_t tri = Phase * param_hrmTri;
outlet_tri = (tri > 0 ? tri : -tri) - v30 >> 3;
int32_t saw = (Phase - v30);
saw = saw * param_hrmSaw;
outlet_saw = saw >> 4;
int32_t rmp = (-Phase + v30);
rmp = rmp * param_hrmRmp;
outlet_rmp = rmp >> 4;
int32_t sqr = -Phase - v30;
sqr = sqr * param_hrmSqr;
outlet_sqr = sqr > 0 ? -v27 : v27;
uint32_t Sqr = Phase + v30;
Sqr = Sqr * param_hrmPls;
Sqr = Sqr >> 4;
outlet_pls = Sqr < param_PW + v27 ? -v27 : v27;