LinSin::LinSin(MappingBase_InputsWithTypesOnly) throw()
{
UGen inputs[] = { MappingBase_InputsNoTypes };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
initInternal(numInputChannels);
bool hasScalarRanges = inLow.isScalar() &&
inHigh.isScalar() &&
outLow.isScalar() &&
outHigh.isScalar();
if(hasScalarRanges == true)
{
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new LinSinScalarUGenInternal(MappingBase_InputsNoTypes);
internalUGens[i]->initValue(ugen::linsin(input.getValue(i),
inLow.getValue(i), inHigh.getValue(i),
outLow.getValue(i), outHigh.getValue(i)));
}
}
else
{
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new LinSinSignalUGenInternal(MappingBase_InputsNoTypes);
internalUGens[i]->initValue(ugen::linsin(input.getValue(i),
inLow.getValue(i), inHigh.getValue(i),
outLow.getValue(i), outHigh.getValue(i)));
}
}
}
Impulse::Impulse(Impulse_InputsWithTypesOnly) throw()
{
UGen inputs[] = { Impulse_InputsNoTypes };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
initInternal(numInputChannels);
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new ImpulseUGenInternal(Impulse_InputsNoTypes);
}
}
Pause::Pause(Pause_InputsWithTypesOnly) throw()
{
UGen inputs[] = { Pause_InputsNoTypes };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
initInternal(numInputChannels);
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new PauseUGenInternal(Pause_InputsNoTypes);
internalUGens[i]->initValue(input.getValue(i) * level.getValue(i));
}
}
Schmidt::Schmidt(UGen const& input, UGen const& lo, UGen const& hi) throw()
{
UGen inputs[] = { input, lo, hi };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
initInternal(numInputChannels);
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new SchmidtUGenInternal(input, lo, hi);
}
}
LagUD::LagUD(UGen const& input, UGen const& lagTimeUp, UGen const& lagTimeDown) throw()
{
UGen inputs[] = { input, lagTimeUp, lagTimeDown };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
initInternal(numInputChannels);
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new LagUDUGenInternal(input, lagTimeUp, lagTimeDown);
internalUGens[i]->initValue(input.getValue(i));
}
}
MulAdd::MulAdd(UGen const& input, UGen const& mul, UGen const& add) throw()
{
UGen inputs[] = { input, mul, add };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
ugen_assert(numInputChannels > 0);
initInternal(numInputChannels);
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new MulAddUGenInternal(input, mul, add);
internalUGens[i]->initValue(input.getValue(i) * mul.getValue(i) + add.getValue(i));
}
}
BAllPass::BAllPass(UGen const& input, UGen const& freq, UGen const& rq) throw()
{
UGen inputs[] = { input, freq, rq };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
initInternal(numInputChannels);
for(unsigned int i = 0; i < numInternalUGens; i++)
{
BEQBaseUGenInternal* filter = new BAllPassUGenInternal(input, freq, rq);
filter->calculateCoeffs(freq.getValue(i), rq.getValue(i), 1.f);
filter->initValue(input.getValue(i));
internalUGens[i] = filter;
}
}
BHiShelf::BHiShelf(UGen const& input, UGen const& freq, UGen const& rs, UGen const& gain) throw()
{
UGen inputs[] = { input, freq, rs, gain };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
initInternal(numInputChannels);
for(unsigned int i = 0; i < numInternalUGens; i++)
{
BEQBaseUGenInternal* filter = new BHiShelfUGenInternal(input, freq, rs, gain);
filter->calculateCoeffs(freq.getValue(i), rs.getValue(i), gain.getValue(i));
filter->initValue(input.getValue(i) * gain.getValue(i));
internalUGens[i] = filter;
}
}
SAH::SAH(UGen const& input, UGen const& trig) throw()
{
UGen inputs[] = { input, trig };
const int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
initInternal(numInputChannels);
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new SAHUGenInternal(input, trig);
if(trig.getValue(i) <= 0.f)
internalUGens[i]->initValue(0.f);
else
internalUGens[i]->initValue(input.getValue(i));
}
}
Map::Map(MapTableBase_InputsWithTypesAndDefaults) throw()
{
UGen inputs[] = { input, inLow, inHigh };
int numInputChannels = findMaxInputChannels(numElementsInArray(inputs), inputs);
if(table.getNumChannels() > numInputChannels)
numInputChannels = table.getNumChannels();
initInternal(numInputChannels);
bool hasScalarRanges = inLow.isScalar() && inHigh.isScalar();
if(hasScalarRanges == true)
{
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new MapTableScalarUGenInternal(MapTableBase_InputsNoTypes);
float inLowValue = inLow.getValue(i);
float inRange = inHigh.getValue(i) - inLowValue;
float tableIndex = (input.getValue(i) - inLowValue) * table.size() / inRange;
internalUGens[i]->initValue(table.getSampleUnchecked(i, tableIndex));
}
}
else
{
for(unsigned int i = 0; i < numInternalUGens; i++)
{
internalUGens[i] = new MapTableSignalUGenInternal(MapTableBase_InputsNoTypes);
float inLowValue = inLow.getValue(i);
float inRange = inHigh.getValue(i) - inLowValue;
float tableIndex = (input.getValue(i) - inLowValue) * table.size() / inRange;
internalUGens[i]->initValue(table.getSampleUnchecked(i, tableIndex));
}
}
}
