TripleOscillator::TripleOscillator( InstrumentTrack * _instrument_track ) :
Instrument( _instrument_track, &tripleoscillator_plugin_descriptor )
{
for( int i = 0; i < NUM_OF_OSCILLATORS; ++i )
{
m_osc[i] = new OscillatorObject( this, i );
}
connect( Engine::mixer(), SIGNAL( sampleRateChanged() ),
this, SLOT( updateAllDetuning() ) );
}
organicInstrument::organicInstrument( InstrumentTrack * _instrument_track ) :
Instrument( _instrument_track, &organic_plugin_descriptor ),
m_modulationAlgo( Oscillator::SignalMix, Oscillator::SignalMix, Oscillator::SignalMix),
m_fx1Model( 0.0f, 0.0f, 0.99f, 0.01f , this, tr( "Distortion" ) ),
m_volModel( 100.0f, 0.0f, 200.0f, 1.0f, this, tr( "Volume" ) )
{
m_numOscillators = 8;
m_osc = new OscillatorObject*[ m_numOscillators ];
for (int i=0; i < m_numOscillators; i++)
{
m_osc[i] = new OscillatorObject( this, i );
m_osc[i]->m_numOscillators = m_numOscillators;
// Connect events
connect( &m_osc[i]->m_oscModel, SIGNAL( dataChanged() ),
m_osc[i], SLOT ( oscButtonChanged() ) );
connect( &m_osc[i]->m_harmModel, SIGNAL( dataChanged() ),
m_osc[i], SLOT( updateDetuning() ) );
connect( &m_osc[i]->m_volModel, SIGNAL( dataChanged() ),
m_osc[i], SLOT( updateVolume() ) );
connect( &m_osc[i]->m_panModel, SIGNAL( dataChanged() ),
m_osc[i], SLOT( updateVolume() ) );
connect( &m_osc[i]->m_detuneModel, SIGNAL( dataChanged() ),
m_osc[i], SLOT( updateDetuning() ) );
m_osc[i]->updateVolume();
}
/* m_osc[0]->m_harmonic = log2f( 0.5f ); // one octave below
m_osc[1]->m_harmonic = log2f( 0.75f ); // a fifth below
m_osc[2]->m_harmonic = log2f( 1.0f ); // base freq
m_osc[3]->m_harmonic = log2f( 2.0f ); // first overtone
m_osc[4]->m_harmonic = log2f( 3.0f ); // second overtone
m_osc[5]->m_harmonic = log2f( 4.0f ); // .
m_osc[6]->m_harmonic = log2f( 5.0f ); // .
m_osc[7]->m_harmonic = log2f( 6.0f ); // .*/
if( s_harmonics == NULL )
{
s_harmonics = new float[ NUM_HARMONICS ];
s_harmonics[0] = log2f( 0.5f );
s_harmonics[1] = log2f( 0.75f );
s_harmonics[2] = log2f( 1.0f );
s_harmonics[3] = log2f( 2.0f );
s_harmonics[4] = log2f( 3.0f );
s_harmonics[5] = log2f( 4.0f );
s_harmonics[6] = log2f( 5.0f );
s_harmonics[7] = log2f( 6.0f );
s_harmonics[8] = log2f( 7.0f );
s_harmonics[9] = log2f( 8.0f );
s_harmonics[10] = log2f( 9.0f );
s_harmonics[11] = log2f( 10.0f );
s_harmonics[12] = log2f( 11.0f );
s_harmonics[13] = log2f( 12.0f );
s_harmonics[14] = log2f( 13.0f );
s_harmonics[15] = log2f( 14.0f );
s_harmonics[16] = log2f( 15.0f );
s_harmonics[17] = log2f( 16.0f );
}
for (int i=0; i < m_numOscillators; i++) {
m_osc[i]->updateVolume();
m_osc[i]->updateDetuning();
}
connect( Engine::mixer(), SIGNAL( sampleRateChanged() ),
this, SLOT( updateAllDetuning() ) );
}
