public override void process_int(BlueWave.Interop.Asio.Channel input1, BlueWave.Interop.Asio.Channel left_op1, BlueWave.Interop.Asio.Channel right_op1)
{
Channel s;
float ratio;
int count;
VibratoParams vp;
s = input1;
count = input1.BufferSize;
vp = (VibratoParams)parameters;
int i = 0;
while (count > 0)
{
ratio = sys.VIBRATO_THRESHOLD + (vp.phase_buffer[vp.vibrato_phase] * vp.vibrato_amplitude);
s[i] = s[i] * (ratio / sys.VIBRATO_THRESHOLD);
vp.vibrato_phase++;
if (vp.vibrato_phase >= vp.vibrato_speed ||
vp.vibrato_phase > sys.MAX_VIBRATO_BUFSIZE)
{
vp.vibrato_phase = 0;
}
i++;
count--;
}
}
public override void process_int(BlueWave.Interop.Asio.Channel input1, BlueWave.Interop.Asio.Channel left_op1, BlueWave.Interop.Asio.Channel right_op1)
{
if (parameters.enable)
{
// struct effect *p, struct data_block *db
ChorusParams cp;
int count;
Channel s;
int dly = 0;
float AngInc,
Ang;
float tmp,
tot,
rgn;
int currchannel = 0;
cp = (ChorusParams)this.parameters;
s = input1;
count = input1.BufferSize;
//#define MaxDly ((int)cp->depth * 8)
int MaxDly = (cp.depth * 8);
AngInc = cp.speed / 1000.0f;
Ang = cp.ang;
/*
* process the samples
*/
int ii = 0;
while (0 < count)
{
tmp = s[ii];
tmp *= cp.dry;
tmp /= 256;
switch (cp.mode)
{
case 0: /* chorus */
dly = MaxDly * (1024 + sys.sinLookUp[(int)cp.ang]);
break;
case 1: /* flange */
dly = 16 * MaxDly * (1024 + sys.sinLookUp[(int)Ang] / 16);
break;
}
;
dly /= 2048;
Ang += AngInc;
if (Ang >= 359.0f)
{
Ang = 0.0f;
}
if (dly < 0)
{
dly = 0;
}
tot = cp.memory[currchannel].backbuff_get(dly);
tot *= cp.wet;
tot /= 256;
tot += tmp;
rgn =
(cp.memory[currchannel].backbuff_get(dly) * cp.regen) / 256 + s[ii];
cp.memory[currchannel].backbuff_add(rgn);
s[ii] = tot;
ii++;
count--;
}
cp.ang = Ang;
}
}
public override void process_int(Channel input1, Channel left_op1, BlueWave.Interop.Asio.Channel right_op1)
{
throw new NotImplementedException();
}
public override void process_int(Channel input1, BlueWave.Interop.Asio.Channel left_op1, BlueWave.Interop.Asio.Channel right_op1)
{
// reverb_filter(struct effect *p, struct data_block *db)
//{
ReverbParams dr;
Channel s;
int Dry,
Wet,
Rgn,
dd,
count;
float[] Old,
Old2
;
float tmp, Out,
tot;
dr = (ReverbParams)parameters;
s = input1;
count = input1.BufferSize;
/*
* get delay
*/
dd = dr.delay;
dd = (dd < 1) ? 1 : ((dd >= dr.history.nChunks) ? dr.history.nChunks - 1 : dd);
/*
* get parms
*/
Dry = dr.dry;
Wet = dr.wet;
Rgn = dr.regen;
Old = dr.history.reverbBuffer_getChunk(dd);
if (Old == null)
{
MessageBox.Show("no old data");
}
Old2 = Old;
int i = 0, oldi = 0;
while (count > 0)
{
/*
* mix Old and In into Out, based upon Wet/Dry
* then mix Out and In back into In, based upon Rgn/1
*/
tmp = s[i];
tmp *= Dry;
tmp /= 256;
try
{
tot = Old[i];
}
catch (Exception)
{
// MessageBox.Show("exception in old");
tot = 1;
}
tot *= Wet;
tot /= 256;
tot += tmp;
Out = tot;
tot *= Rgn;
tot /= 256;
tot += s[i];
s[i] = tot;
i++;
oldi++;
count--;
}
float[] tobeadde = new float[s.BufferSize];
for (int l = 0; l < s.BufferSize; l++)
{
tobeadde[l] = s[l];
}
dr.history.reverbBuffer_addChunk(tobeadde);
Old2 = null;
}
public override void process_int(BlueWave.Interop.Asio.Channel input1, BlueWave.Interop.Asio.Channel left_op1, BlueWave.Interop.Asio.Channel right_op1)
{
// sustain_filter(struct effect *p, struct data_block *db)
//{
int count;
Channel s, db;
SustainParams ds;
float volAccum,
tmp;
float CompW1;
float CompW2;
float gateFac;
float compFac;
ds = (SustainParams)parameters;
db = input1;
count = db.BufferSize;
s = db;
volAccum = ds.volaccum;
CompW1 = ds.sust / 100.0f;
CompW2 = 1.0f - CompW1;
int i = 0;
while (count > 0)
{
tmp = s[i];
/*
* update volAccum
*/
tmp = (tmp < 0) ? -tmp : tmp;
volAccum = (256 - ds.noise) * volAccum + ds.noise * tmp;
volAccum /= 256;
/*
* handle compression
*/
compFac = 30000.0f / (float)volAccum;
compFac = CompW1 * compFac + CompW2;
/*
* handle gate
*/
if (ds.threshold <= 1.0f)
{
gateFac = 1.0f;
}
else
{
gateFac = (volAccum > (ds.threshold * 100)) ? 1.0f :
((float)(volAccum) / (float)(ds.threshold * 100));
}
/*
* process signal...
*/
tmp = ((float)(s[i]) * compFac * gateFac);
s[i] = tmp;
i++;
count--;
}
ds.volaccum = (int)volAccum;
}
public override void process_int(BlueWave.Interop.Asio.Channel input1, BlueWave.Interop.Asio.Channel left_op1, BlueWave.Interop.Asio.Channel right_op1)
{
if (parameters.enable)
{
DelayParams dp;
int i,
count,
current_decay;
Channel s;
dp = (DelayParams)this.parameters;
s = input1;
count = s.BufferSize;
int j = 0;
while (count > 0)
{
/*
* add sample to history
*/
dp.history[dp.index++] = s[j];
/*
* wrap around
*/
if (dp.index == dp.delay_size)
{
dp.index = 0;
}
current_decay = dp.delay_decay;
for (i = 0; i < dp.delay_count; i++)
{
if (dp.index >= dp.idelay[i])
{
if (dp.index - dp.idelay[i] ==
dp.delay_start + i * dp.delay_step)
{
dp.idelay[i]++;
}
}
else if (dp.delay_size + dp.index - dp.idelay[i] ==
dp.delay_start + i * dp.delay_step)
{
dp.idelay[i]++;
}
if (dp.idelay[i] == dp.delay_size)
{
dp.idelay[i] = 0;
}
s[j] += dp.history[dp.idelay[i]] * current_decay / 1000;
current_decay = current_decay * dp.delay_decay / 1000;
}
j++;
count--;
}
}
}