SyncPM4
Inlets
frac32.bipolar pitch
frac32.bipolar pitchC
frac32.bipolar pitchM1
frac32.bipolar pitchM2
frac32.bipolar pitchM3
frac32.bipolar index1C
frac32.bipolar index21
frac32.bipolar index32
frac32.bipolar phiC
frac32.bipolar phiM1
Outlets
frac32buffer.bipolar out
Parameters
frac32.s.map.pitch pitch
frac32.s.map.pitch pitchC
frac32.s.map.pitch pitchM1
frac32.s.map.pitch pitchM2
frac32.s.map.pitch pitchM3
frac32.u.map index1C
frac32.u.map index21
frac32.u.map index32
Attributes
combo phase
combo env
uint32_t pC, pM1, pM2, pM3;
int32_t dpC, dpM1, dpM2, dpM3;
int32_t index1C, index21, index32;
float pMast;
float dpMast, _dpMast;uint32_t pC = pM1 = pM2 = pM3 = 0;
pMast = attr_phase;int32_t idp;
MTOFEXTENDED(inlet_pitch + param_pitch, idp);
dpMast = (0.25f / (1 << 30)) * idp;
_dpMast = 1.0f / dpMast;
MTOFEXTENDED(inlet_pitchC + param_pitchC, dpC);
MTOFEXTENDED(inlet_pitchM3 + param_pitchM3, dpM3);
MTOFEXTENDED(inlet_pitchM2 + param_pitchM2, dpM2);
MTOFEXTENDED(inlet_pitchM1 + param_pitchM1, dpM1);
index1C = inlet_index1C + param_index1C;
index21 = inlet_index21 + param_index21;
index32 = inlet_index32 + param_index32;pM2 += dpM2;
pM3 += dpM3;
int32_t m23 = (___SMMLA(index32, sine2t[pM3 >> 20], pM2 >> 7) >> 13) & 4095;
pM1 += dpM1;
int32_t m12 = (___SMMLA(index21, sine2t[m23], pM1 >> 7) >> 13) & 4095;
pC += dpC;
int32_t y = sine2t[(___SMMLA(index1C, sine2t[m12], pC >> 7) >> 13) & 4095] >> 5;
#if attr_env == 1
if (pMast > 0.9f) {
y = (int32_t)(y * 10 * (1 - pMast));
}
if (pMast < 0.1f) {
y = (int32_t)(y * 10 * pMast);
}
#else
y = (int32_t)(y * 2 * (pMast > 0.5f ? 1 - pMast : pMast));
#endif
// _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _ _
pMast += dpMast;
if (pMast > 1) {
pMast -= 1;
float a = pMast * _dpMast;
pC = (uint32_t)(a * dpC) + (inlet_phiC << 5);
pM1 = (uint32_t)(a * dpM1) + (inlet_phiM1 << 5);
pM2 = (uint32_t)(a * dpM2);
pM3 = (uint32_t)(a * dpM3);
/* y = (y + (sine2t[(___SMMLA(index, sine2t[pM >> 20], pC >> 7) >> 13) &
* 4095] >> 5)) >> 1;*/
}
outlet_out = y;