int32_t voicformset(CSOUND *csound, VOICF *p)
{
MYFLT amp = (*p->amp)*AMP_RSCALE; /* Normalise */
int32_t i;
if (UNLIKELY(make_SingWave(csound, &p->voiced, p->ifn, p->ivfn)==NOTOK))
return NOTOK;
Envelope_setRate(csound, &(p->voiced.envelope), FL(0.001));
Envelope_setTarget(&(p->voiced.envelope), FL(0.0));
make_Noise(p->noise);
for (i=0; i<4; i++) {
make_FormSwep(&p->filters[i]);
FormSwep_setSweepRate(p->filters[i], FL(0.001));
}
make_OneZero(&p->onezero);
OneZero_setCoeff(&p->onezero, - FL(0.9));
make_OnePole(&p->onepole);
OnePole_setPole(&p->onepole, FL(0.9));
make_Envelope(&p->noiseEnv);
Envelope_setRate(csound, &p->noiseEnv, FL(0.001));
Envelope_setTarget(&p->noiseEnv, FL(0.0));
p->oldform = *p->formant;
p->ph = (int32_t)(FL(0.5)+ *p->phoneme);
VoicForm_setPhoneme(csound, p, p->ph, p->oldform);
/* Clear */
/* OnePole_clear(&p->onepole); */ /* Included in make */
FormSwep_clear(p->filters[0]);
FormSwep_clear(p->filters[1]);
FormSwep_clear(p->filters[2]);
FormSwep_clear(p->filters[3]);
{
MYFLT temp, freq = *p->frequency;
if ((freq * FL(22.0)) > CS_ESR) {
csound->Warning(csound, Str("This note is too high!!\n"));
freq = CS_ESR / FL(22.0);
}
p->basef = freq;
temp = FABS(FL(1500.0) - freq) + FL(200.0);
p->lastGain = FL(10000.0) / temp / temp;
SingWave_setFreq(csound, &p->voiced, freq);
}
Envelope_setTarget(&(p->voiced.envelope), amp);
OnePole_setPole(&p->onepole, FL(0.95) - (amp * FL(0.2))/FL(128.0));
/* voicprint(csound, p); */
return OK;
}
static int make_Modal4(CSOUND *csound,
Modal4 *m, MYFLT *ifn, MYFLT vgain, MYFLT vrate)
{
FUNC *ftp;
if (LIKELY((ftp = csound->FTnp2Find(csound,ifn)) != NULL))
m->vibr = ftp;
else { /* Expect sine wave */
csound->ErrorMsg(csound, Str("No table for Modal4 case"));
return NOTOK;
}
make_Envelope(&m->envelope);
/* We do not make the excitation wave here yet, */
/* because we do not know what it's going to be. */
make_BiQuad(&m->filters[0]);
make_BiQuad(&m->filters[1]);
make_BiQuad(&m->filters[2]);
make_BiQuad(&m->filters[3]);
make_OnePole(&m->onepole);
m->v_rate = vrate; /* 6.0; */
m->vibrGain = vgain; /* 0.05; */
/* m->directGain = 0.0; */
m->masterGain = FL(1.0);
/* m->baseFreq = 440.0; */
/* Modal4_setRatioAndReson(m, 0, 1.00, 0.9997); */ /* Set some */
/* Modal4_setRatioAndReson(m, 1, 1.30, 0.9997); */ /* silly */
/* Modal4_setRatioAndReson(m, 2, 1.77, 0.9997); */ /* default */
/* Modal4_setRatioAndReson(m, 3, 2.37, 0.9997); */ /* values here */
/* Modal4_setFiltGain(m, 0, 0.01); */
/* Modal4_setFiltGain(m, 1, 0.01); */
/* Modal4_setFiltGain(m, 2, 0.01); */
/* Modal4_setFiltGain(m, 3, 0.01); */
/* OnePole_clear(&m->onepole); */
BiQuad_clear(&m->filters[0]);
BiQuad_clear(&m->filters[1]);
BiQuad_clear(&m->filters[2]);
BiQuad_clear(&m->filters[3]);
BiQuad_setEqualGainZeroes(m->filters[0]);
BiQuad_setEqualGainZeroes(m->filters[1]);
BiQuad_setEqualGainZeroes(m->filters[2]);
BiQuad_setEqualGainZeroes(m->filters[3]);
/* stickHardness = 0.5; */
/* strikePosition = 0.561; */
return OK;
}
static int32_t make_Modulatr(CSOUND *csound,Modulatr *p, MYFLT *i)
{
FUNC *ftp;
if (LIKELY((ftp = csound->FTnp2Find(csound,i)) != NULL))
p->wave = ftp;
else { /* Expect sine wave */
return csound->InitError(csound, Str("No table for Modulatr"));
}
p->v_time = FL(0.0);
/* p->v_rate = 6.0; */
/* p->vibAmt = 0.04; */
make_SubNoise(&p->noise, 330);/* Surely this should be scaled to esr?? */
/* p->rndAmt = 0.005; */
make_OnePole(&p->onepole);
OnePole_setPole(&p->onepole, POLE_POS);
OnePole_setGain(&p->onepole, RND_SCALE * FL(0.005) /* p->rndAmt */);
return 0;
}
int bowedset(CSOUND *csound, BOWED *p)
{
int32 length;
FUNC *ftp;
MYFLT amp = (*p->amp)*AMP_RSCALE; /* Normalise */
if (LIKELY((ftp = csound->FTnp2Find(csound, p->ifn)) != NULL)) p->vibr = ftp;
else { /* Expect sine wave */
return csound->InitError(csound, Str("No table for wgbow vibrato"));
}
if (*p->lowestFreq>=FL(0.0)) { /* If no init skip */
if (*p->lowestFreq!=FL(0.0)) {
length = (int32) (CS_ESR / *p->lowestFreq + FL(1.0));
p->limit = *p->lowestFreq;
}
else if (*p->frequency!=FL(0.0)) {
length = (int32) (CS_ESR / *p->frequency + FL(1.0));
p->limit = *p->frequency;
}
else {
csound->Warning(csound, Str("unknown lowest frequency for bowed string "
"-- assuming 50Hz\n"));
length = (int32) (CS_ESR / FL(50.0) + FL(1.0));
p->limit = FL(50.0);
}
make_DLineL(csound, &p->neckDelay, length);
length = length >> 1; /* Unsure about this; seems correct in later code */
make_DLineL(csound, &p->bridgeDelay, length);
/* p->bowTabl.offSet = FL(0.0);*/
/* offset is a bias, really not needed unless */
/* friction is different in each direction */
/* p->bowTabl.slope contrls width of friction pulse, related to bowForce */
p->bowTabl.slope = FL(3.0);
make_OnePole(&p->reflFilt);
make_BiQuad(&p->bodyFilt);
make_ADSR(&p->adsr);
DLineL_setDelay(&p->neckDelay, FL(100.0));
DLineL_setDelay(&p->bridgeDelay, FL(29.0));
OnePole_setPole(&p->reflFilt, FL(0.6) - (FL(0.1) * RATE_NORM));
OnePole_setGain(&p->reflFilt, FL(0.95));
BiQuad_setFreqAndReson(p->bodyFilt, FL(500.0), FL(0.85));
BiQuad_setEqualGainZeroes(p->bodyFilt);
BiQuad_setGain(p->bodyFilt, FL(0.2));
ADSR_setAllTimes(csound, &p->adsr, FL(0.02), FL(0.005), FL(0.9), FL(0.01));
/* ADSR_setAll(&p->adsr, 0.002f,0.01f,0.9f,0.01f); */
p->adsr.target = FL(1.0);
p->adsr.rate = p->adsr.attackRate;
p->adsr.state = ATTACK;
p->maxVelocity = FL(0.03) + (FL(0.2) * amp);
p->lastpress = FL(0.0); /* Set unknown state */
p->lastfreq = FL(0.0);
p->lastbeta = FL(0.0); /* Remember states */
p->lastamp = amp;
}
return OK;
}
int fluteset(CSOUND *csound, FLUTE *p)
{
FUNC *ftp;
int32 length;
if (LIKELY((ftp = csound->FTnp2Find(csound, p->ifn)) != NULL)) p->vibr = ftp;
else { /* Expect sine wave */
return csound->InitError(csound, Str("No table for Flute"));
}
if (*p->lowestFreq>=FL(0.0)) { /* Skip initialisation?? */
if (*p->lowestFreq!=FL(0.0)) {
length = (int32) (CS_ESR / *p->lowestFreq + FL(1.0));
p->limit = *p->lowestFreq;
}
else if (*p->frequency!=FL(0.0)) {
length = (int32) (CS_ESR / *p->frequency + FL(1.0));
p->limit = *p->frequency;
}
else {
csound->Warning(csound, Str("No base frequency for flute "
"-- assumed to be 50Hz\n"));
length = (int32) (CS_ESR / FL(50.0) + FL(1.0));
p->limit = FL(50.0);
}
make_DLineL(csound, &p->boreDelay, length);
length = length >> 1; /* ??? really; yes from later version */
make_DLineL(csound, &p->jetDelay, length);
make_OnePole(&p->filter);
make_DCBlock(&p->dcBlock);
make_Noise(p->noise);
make_ADSR(&p->adsr);
/* Clear */
/* OnePole_clear(&p->filter); */
/* DCBlock_clear(&p->dcBlock); */
/* End Clear */
/* DLineL_setDelay(&p->boreDelay, 100.0f); */
/* DLineL_setDelay(&p->jetDelay, 49.0f); */
OnePole_setPole(&p->filter, FL(0.7) - (FL(0.1) * RATE_NORM));
OnePole_setGain(&p->filter, -FL(1.0));
ADSR_setAllTimes(csound, &p->adsr, FL(0.005), FL(0.01), FL(0.8), FL(0.010));
/* ADSR_setAll(&p->adsr, 0.02f, 0.05f, 0.8f, 0.001f); */
/* Suggested values */
/* p->endRefl = 0.5; */
/* p->jetRefl = 0.5; */
/* p->noiseGain = 0.15; */ /* Breath pressure random component */
/* p->vibrGain = 0.05; */ /* breath periodic vibrato component */
/* p->jetRatio = 0.32; */
p->lastamp = FL(1.0); /* Remember */
/* This should be controlled by attack */
ADSR_setAttackRate(csound, &p->adsr, FL(0.02));
p->maxPress = FL(2.3) / FL(0.8);
p->outputGain = FL(1.001);
ADSR_keyOn(&p->adsr);
p->kloop = (MYFLT)((int)(p->h.insdshead->offtim*CS_EKR -
CS_EKR*(*p->dettack)));
p->lastFreq = FL(0.0);
p->lastJet = -FL(1.0);
/* freq = (2/3)*p->frequency as we're overblowing here */
/* but 1/(2/3) is 1.5 so multiply for speed */
}
return OK;
}
