PulseDPW2():
mFreq(std::numeric_limits<float>::quiet_NaN()),
mLastVal0(0),
mLastVal1(0)
{
const float width = in0(1);
const float phase = in0(2);
mPhase0 = sc_wrap(phase, -1.0f, 1.0f);
mPhase1 = sc_wrap(phase + width + width, -1.0f, 1.0f);
switch (inRate(0)) {
case calc_ScalarRate:
{
float freq = in0(0);
float scale;
double phaseIncrement;
updateFrequency<true>(freq, scale, phaseIncrement);
set_calc_function<PulseDPW2, &PulseDPW2::next_i>();
break;
}
case calc_BufRate:
set_calc_function<PulseDPW2, &PulseDPW2::next_k>();
break;
case calc_FullRate:
set_calc_function<PulseDPW2, &PulseDPW2::next_a>();
}
}
DiodeLadderFilter()
{
std::fill(z, z + 5, 0);
q = hpCutoff = std::numeric_limits<float>::signaling_NaN();
if (inRate(1) == calc_FullRate)
set_calc_function<DiodeLadderFilter, &DiodeLadderFilter::next_akk>();
else
set_calc_function<DiodeLadderFilter, &DiodeLadderFilter::next_k>();
}
int LH_QtNetwork::tpPermille() const
{
qint64 div = link_net_out_.maximum().toLongLong() + link_net_in_.maximum().toLongLong();
if( div ) return (inRate() + outRate()) * 1000 / div;
return 0;
}
int LH_QtNetwork::inPermille() const
{
if( !link_net_in_.maximum().isNull() )
return inRate() * 1000 / link_net_in_.maximum().toLongLong();
return 0;
}