Files
lmms/plugins/lb302/lb302.cpp
Vesa 857de8d2c8 Huge structural changes
Well, this commit got a bit out of hand, what with 26 files changed. Oh well.

Basically, we're using the buffermanager to dispense temporary buffers for playhandles and audioports to use.
This allows us to change the way playhandles work. Earlier, playhandles of the same track were waiting in line
to push their output to the audioport. This was of course inefficient, so now they just register themselves to the port,
then the port handles mixing the buffers.

Caveat: this is still a work in progress, the vol/pan knobs on instruments are temporarily non-functional - will be fixed in
the next commit, but I have to get some sleep now.
2014-11-18 13:58:39 +02:00

1058 lines
26 KiB
C++

/*
* lb302.cpp - implementation of class lb302 which is a bass synth attempting
* to emulate the Roland TB303 bass synth
*
* Copyright (c) 2006-2008 Paul Giblock <pgib/at/users.sourceforge.net>
*
* This file is part of LMMS - http://lmms.io
*
* lb302FilterIIR2 is based on the gsyn filter code by Andy Sloane.
*
* lb302Filter3Pole is based on the TB303 instrument written by
* Josep M Comajuncosas for the CSounds library
*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public
* License as published by the Free Software Foundation; either
* version 2 of the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* General Public License for more details.
*
* You should have received a copy of the GNU General Public
* License along with this program (see COPYING); if not, write to the
* Free Software Foundation, Inc., 51 Franklin Street, Fifth Floor,
* Boston, MA 02110-1301 USA.
*
*/
#include "lb302.h"
#include "automatable_button.h"
#include "engine.h"
#include "InstrumentPlayHandle.h"
#include "InstrumentTrack.h"
#include "knob.h"
#include "NotePlayHandle.h"
#include "Oscillator.h"
#include "pixmap_button.h"
#include "templates.h"
#include "tooltip.h"
#include "BandLimitedWave.h"
#include "embed.cpp"
// Envelope Recalculation period
#define ENVINC 64
//
// New config
//
#define LB_24_IGNORE_ENVELOPE
#define LB_FILTERED
//#define LB_DECAY
//#define LB_24_RES_TRICK
#define LB_DIST_RATIO 4.0
#define LB_24_VOL_ADJUST 3.0
//#define LB_DECAY_NOTES
#define LB_DEBUG
#ifdef LB_DEBUG
#include <assert.h>
#endif
//
// Old config
//
//#define engine::mixer()->processingSampleRate() 44100.0f
extern "C"
{
Plugin::Descriptor PLUGIN_EXPORT lb302_plugin_descriptor =
{
STRINGIFY( PLUGIN_NAME ),
"LB302",
QT_TRANSLATE_NOOP( "pluginBrowser",
"Incomplete monophonic imitation tb303" ),
"Paul Giblock <pgib/at/users.sf.net>",
0x0100,
Plugin::Instrument,
new PluginPixmapLoader( "logo" ),
NULL,
NULL
};
}
//
// lb302Filter
//
lb302Filter::lb302Filter(lb302FilterKnobState* p_fs) :
fs(p_fs),
vcf_c0(0),
vcf_e0(0),
vcf_e1(0)
{
};
void lb302Filter::recalc()
{
vcf_e1 = exp(6.109 + 1.5876*(fs->envmod) + 2.1553*(fs->cutoff) - 1.2*(1.0-(fs->reso)));
vcf_e0 = exp(5.613 - 0.8*(fs->envmod) + 2.1553*(fs->cutoff) - 0.7696*(1.0-(fs->reso)));
vcf_e0*=M_PI/engine::mixer()->processingSampleRate();
vcf_e1*=M_PI/engine::mixer()->processingSampleRate();
vcf_e1 -= vcf_e0;
vcf_rescoeff = exp(-1.20 + 3.455*(fs->reso));
};
void lb302Filter::envRecalc()
{
vcf_c0 *= fs->envdecay; // Filter Decay. vcf_decay is adjusted for Hz and ENVINC
// vcf_rescoeff = exp(-1.20 + 3.455*(fs->reso)); moved above
};
void lb302Filter::playNote()
{
vcf_c0 = vcf_e1;
}
//
// lb302FilterIIR2
//
lb302FilterIIR2::lb302FilterIIR2(lb302FilterKnobState* p_fs) :
lb302Filter(p_fs),
vcf_d1(0),
vcf_d2(0),
vcf_a(0),
vcf_b(0),
vcf_c(1)
{
m_dist = new DspEffectLibrary::Distortion( 1.0, 1.0f);
};
lb302FilterIIR2::~lb302FilterIIR2()
{
delete m_dist;
}
void lb302FilterIIR2::recalc()
{
lb302Filter::recalc();
//m_dist->setThreshold(0.5+(fs->dist*2.0));
m_dist->setThreshold(fs->dist*75.0);
};
void lb302FilterIIR2::envRecalc()
{
float k, w;
lb302Filter::envRecalc();
w = vcf_e0 + vcf_c0; // e0 is adjusted for Hz and doesn't need ENVINC
k = exp(-w/vcf_rescoeff); // Does this mean c0 is inheritantly?
vcf_a = 2.0*cos(2.0*w) * k;
vcf_b = -k*k;
vcf_c = 1.0 - vcf_a - vcf_b;
}
float lb302FilterIIR2::process(const float& samp)
{
float ret = vcf_a*vcf_d1 + vcf_b*vcf_d2 + vcf_c*samp;
// Delayed samples for filter
vcf_d2 = vcf_d1;
vcf_d1 = ret;
if(fs->dist > 0)
ret=m_dist->nextSample(ret);
// output = IIR2 + dry
return ret;
}
//
// lb302Filter3Pole
//
lb302Filter3Pole::lb302Filter3Pole(lb302FilterKnobState *p_fs) :
lb302Filter(p_fs),
ay1(0),
ay2(0),
aout(0),
lastin(0)
{
};
void lb302Filter3Pole::recalc()
{
// DO NOT CALL BASE CLASS
vcf_e0 = 0.000001;
vcf_e1 = 1.0;
}
// TODO: Try using k instead of vcf_reso
void lb302Filter3Pole::envRecalc()
{
float w,k;
float kfco;
lb302Filter::envRecalc();
// e0 is adjusted for Hz and doesn't need ENVINC
w = vcf_e0 + vcf_c0;
k = (fs->cutoff > 0.975)?0.975:fs->cutoff;
kfco = 50.f + (k)*((2300.f-1600.f*(fs->envmod))+(w) *
(700.f+1500.f*(k)+(1500.f+(k)*(engine::mixer()->processingSampleRate()/2.f-6000.f)) *
(fs->envmod)) );
//+iacc*(.3+.7*kfco*kenvmod)*kaccent*kaccurve*2000
#ifdef LB_24_IGNORE_ENVELOPE
// kfcn = fs->cutoff;
kfcn = 2.0 * kfco / engine::mixer()->processingSampleRate();
#else
kfcn = w;
#endif
kp = ((-2.7528*kfcn + 3.0429)*kfcn + 1.718)*kfcn - 0.9984;
kp1 = kp+1.0;
kp1h = 0.5*kp1;
#ifdef LB_24_RES_TRICK
k = exp(-w/vcf_rescoeff);
kres = (((k))) * (((-2.7079*kp1 + 10.963)*kp1 - 14.934)*kp1 + 8.4974);
#else
kres = (((fs->reso))) * (((-2.7079*kp1 + 10.963)*kp1 - 14.934)*kp1 + 8.4974);
#endif
value = 1.0+( (fs->dist) *(1.5 + 2.0*kres*(1.0-kfcn))); // ENVMOD was DIST
}
float lb302Filter3Pole::process(const float& samp)
{
float ax1 = lastin;
float ay11 = ay1;
float ay31 = ay2;
lastin = (samp) - tanh(kres*aout);
ay1 = kp1h * (lastin+ax1) - kp*ay1;
ay2 = kp1h * (ay1 + ay11) - kp*ay2;
aout = kp1h * (ay2 + ay31) - kp*aout;
return tanh(aout*value)*LB_24_VOL_ADJUST/(1.0+fs->dist);
}
//
// LBSynth
//
lb302Synth::lb302Synth( InstrumentTrack * _instrumentTrack ) :
Instrument( _instrumentTrack, &lb302_plugin_descriptor ),
vcf_cut_knob( 0.75f, 0.0f, 1.5f, 0.005f, this, tr( "VCF Cutoff Frequency" ) ),
vcf_res_knob( 0.75f, 0.0f, 1.25f, 0.005f, this, tr( "VCF Resonance" ) ),
vcf_mod_knob( 0.1f, 0.0f, 1.0f, 0.005f, this, tr( "VCF Envelope Mod" ) ),
vcf_dec_knob( 0.1f, 0.0f, 1.0f, 0.005f, this, tr( "VCF Envelope Decay" ) ),
dist_knob( 0.0f, 0.0f, 1.0f, 0.01f, this, tr( "Distortion" ) ),
wave_shape( 8.0f, 0.0f, 11.0f, this, tr( "Waveform" ) ),
slide_dec_knob( 0.6f, 0.0f, 1.0f, 0.005f, this, tr( "Slide Decay" ) ),
slideToggle( false, this, tr( "Slide" ) ),
accentToggle( false, this, tr( "Accent" ) ),
deadToggle( false, this, tr( "Dead" ) ),
db24Toggle( false, this, tr( "24dB/oct Filter" ) )
{
connect( engine::mixer(), SIGNAL( sampleRateChanged( ) ),
this, SLOT ( filterChanged( ) ) );
connect( &vcf_cut_knob, SIGNAL( dataChanged( ) ),
this, SLOT ( filterChanged( ) ) );
connect( &vcf_res_knob, SIGNAL( dataChanged( ) ),
this, SLOT ( filterChanged( ) ) );
connect( &vcf_mod_knob, SIGNAL( dataChanged( ) ),
this, SLOT ( filterChanged( ) ) );
connect( &vcf_dec_knob, SIGNAL( dataChanged( ) ),
this, SLOT ( filterChanged( ) ) );
connect( &db24Toggle, SIGNAL( dataChanged( ) ),
this, SLOT ( db24Toggled( ) ) );
connect( &dist_knob, SIGNAL( dataChanged( ) ),
this, SLOT ( filterChanged( )));
// SYNTH
vco_inc = 0.0;
vco_c = 0;
vco_k = 0;
vco_slide = 0; vco_slideinc = 0;
vco_slidebase = 0;
fs.cutoff = 0;
fs.envmod = 0;
fs.reso = 0;
fs.envdecay = 0;
fs.dist = 0;
vcf_envpos = ENVINC;
// Start VCA on an attack.
vca_mode = 3;
vca_a = 0;
//vca_attack = 1.0 - 0.94406088;
vca_attack = 1.0 - 0.96406088;
vca_decay = 0.99897516;
vco_shape = BL_SAWTOOTH;
// Experimenting with a0 between original (0.5) and 1.0
vca_a0 = 0.5;
vca_a = 9;
vca_mode = 3;
vcfs[0] = new lb302FilterIIR2(&fs);
vcfs[1] = new lb302Filter3Pole(&fs);
db24Toggled();
sample_cnt = 0;
release_frame = 0;
catch_frame = 0;
catch_decay = 0;
last_offset = 0;
new_freq = false;
filterChanged();
InstrumentPlayHandle * iph = new InstrumentPlayHandle( this, _instrumentTrack );
engine::mixer()->addPlayHandle( iph );
}
lb302Synth::~lb302Synth()
{
for (int i=0; i<NUM_FILTERS; ++i) {
delete vcfs[i];
}
}
void lb302Synth::saveSettings( QDomDocument & _doc,
QDomElement & _this )
{
vcf_cut_knob.saveSettings( _doc, _this, "vcf_cut" );
vcf_res_knob.saveSettings( _doc, _this, "vcf_res" );
vcf_mod_knob.saveSettings( _doc, _this, "vcf_mod" );
vcf_dec_knob.saveSettings( _doc, _this, "vcf_dec" );
wave_shape.saveSettings( _doc, _this, "shape");
dist_knob.saveSettings( _doc, _this, "dist");
slide_dec_knob.saveSettings( _doc, _this, "slide_dec");
slideToggle.saveSettings( _doc, _this, "slide");
deadToggle.saveSettings( _doc, _this, "dead");
db24Toggle.saveSettings( _doc, _this, "db24");
}
void lb302Synth::loadSettings( const QDomElement & _this )
{
vcf_cut_knob.loadSettings( _this, "vcf_cut" );
vcf_res_knob.loadSettings( _this, "vcf_res" );
vcf_mod_knob.loadSettings( _this, "vcf_mod" );
vcf_dec_knob.loadSettings( _this, "vcf_dec" );
dist_knob.loadSettings( _this, "dist");
slide_dec_knob.loadSettings( _this, "slide_dec");
wave_shape.loadSettings( _this, "shape");
slideToggle.loadSettings( _this, "slide");
deadToggle.loadSettings( _this, "dead");
db24Toggle.loadSettings( _this, "db24");
db24Toggled();
filterChanged();
}
// TODO: Split into one function per knob. envdecay doesn't require
// recalcFilter.
void lb302Synth::filterChanged()
{
fs.cutoff = vcf_cut_knob.value();
fs.reso = vcf_res_knob.value();
fs.envmod = vcf_mod_knob.value();
fs.dist = LB_DIST_RATIO*dist_knob.value();
float d = 0.2 + (2.3*vcf_dec_knob.value());
d *= engine::mixer()->processingSampleRate(); // d *= smpl rate
fs.envdecay = pow(0.1, 1.0/d * ENVINC); // decay is 0.1 to the 1/d * ENVINC
// vcf_envdecay is now adjusted for both
// sampling rate and ENVINC
recalcFilter();
}
void lb302Synth::db24Toggled()
{
vcf = vcfs[db24Toggle.value()];
// These recalcFilter calls might suck
recalcFilter();
}
QString lb302Synth::nodeName() const
{
return( lb302_plugin_descriptor.name );
}
// OBSOLETE. Break apart once we get Q_OBJECT to work. >:[
void lb302Synth::recalcFilter()
{
#if QT_VERSION >= 0x050000
vcf.load()->recalc();
#else
vcf->recalc();
#endif
// THIS IS OLD 3pole/24dB code, I may reintegrate it. Don't need it
// right now. Should be toggled by LB_24_RES_TRICK at the moment.
/*kfcn = 2.0 * (((vcf_cutoff*3000))) / engine::mixer()->processingSampleRate();
kp = ((-2.7528*kfcn + 3.0429)*kfcn + 1.718)*kfcn - 0.9984;
kp1 = kp+1.0;
kp1h = 0.5*kp1;
kres = (((vcf_reso))) * (((-2.7079*kp1 + 10.963)*kp1 - 14.934)*kp1 + 8.4974);
value = 1.0+( (((0))) *(1.5 + 2.0*kres*(1.0-kfcn))); // ENVMOD was DIST*/
vcf_envpos = ENVINC; // Trigger filter update in process()
}
inline int MIN(int a, int b) {
return (a<b)?a:b;
}
inline float GET_INC(float freq) {
return freq/engine::mixer()->processingSampleRate(); // TODO: Use actual sampling rate.
}
int lb302Synth::process(sampleFrame *outbuf, const int size)
{
const float sampleRatio = 44100.f / engine::mixer()->processingSampleRate();
float w;
float samp;
// Hold on to the current VCF, and use it throughout this period
lb302Filter *filter = vcf;
if( release_frame == 0 || ! m_playingNote )
{
vca_mode = 1;
}
if( new_freq )
{
//printf(" playing new note..\n");
lb302Note note;
note.vco_inc = GET_INC( true_freq );
note.dead = deadToggle.value();
initNote(&note);
new_freq = false;
}
// TODO: NORMAL RELEASE
// vca_mode = 1;
for( int i=0; i<size; i++ )
{
// start decay if we're past release
if( i >= release_frame )
{
vca_mode = 1;
}
// update vcf
if(vcf_envpos >= ENVINC) {
filter->envRecalc();
vcf_envpos = 0;
if (vco_slide) {
vco_inc = vco_slidebase - vco_slide;
// Calculate coeff from dec_knob on knob change.
vco_slide -= vco_slide * ( 0.1f - slide_dec_knob.value() * 0.0999f ) * sampleRatio; // TODO: Adjust for ENVINC
}
}
sample_cnt++;
vcf_envpos++;
//int decay_frames = 128;
// update vco
vco_c += vco_inc;
if(vco_c > 0.5)
vco_c -= 1.0;
switch(int(rint(wave_shape.value()))) {
case 0: vco_shape = SAWTOOTH; break;
case 1: vco_shape = TRIANGLE; break;
case 2: vco_shape = SQUARE; break;
case 3: vco_shape = ROUND_SQUARE; break;
case 4: vco_shape = MOOG; break;
case 5: vco_shape = SINE; break;
case 6: vco_shape = EXPONENTIAL; break;
case 7: vco_shape = WHITE_NOISE; break;
case 8: vco_shape = BL_SAWTOOTH; break;
case 9: vco_shape = BL_SQUARE; break;
case 10: vco_shape = BL_TRIANGLE; break;
case 11: vco_shape = BL_MOOG; break;
default: vco_shape = SAWTOOTH; break;
}
// add vco_shape_param the changes the shape of each curve.
// merge sawtooths with triangle and square with round square?
switch (vco_shape) {
case SAWTOOTH: // p0: curviness of line
vco_k = vco_c; // Is this sawtooth backwards?
break;
case TRIANGLE: // p0: duty rev.saw<->triangle<->saw p1: curviness
vco_k = (vco_c*2.0)+0.5;
if (vco_k>0.5)
vco_k = 1.0- vco_k;
break;
case SQUARE: // p0: slope of top
vco_k = (vco_c<0)?0.5:-0.5;
break;
case ROUND_SQUARE: // p0: width of round
vco_k = (vco_c<0)?(sqrtf(1-(vco_c*vco_c*4))-0.5):-0.5;
break;
case MOOG: // Maybe the fall should be exponential/sinsoidal instead of quadric.
// [-0.5, 0]: Rise, [0,0.25]: Slope down, [0.25,0.5]: Low
vco_k = (vco_c*2.0)+0.5;
if (vco_k>1.0) {
vco_k = -0.5 ;
}
else if (vco_k>0.5) {
w = 2.0*(vco_k-0.5)-1.0;
vco_k = 0.5 - sqrtf(1.0-(w*w));
}
vco_k *= 2.0; // MOOG wave gets filtered away
break;
case SINE:
// [-0.5, 0.5] : [-pi, pi]
vco_k = 0.5f * Oscillator::sinSample( vco_c );
break;
case EXPONENTIAL:
vco_k = 0.5 * Oscillator::expSample( vco_c );
break;
case WHITE_NOISE:
vco_k = 0.5 * Oscillator::noiseSample( vco_c );
break;
case BL_SAWTOOTH:
vco_k = BandLimitedWave::oscillate( vco_c + 0.5f, BandLimitedWave::pdToLen( vco_inc ), BandLimitedWave::BLSaw ) * 0.5f;
break;
case BL_SQUARE:
vco_k = BandLimitedWave::oscillate( vco_c + 0.5f, BandLimitedWave::pdToLen( vco_inc ), BandLimitedWave::BLSquare ) * 0.5f;
break;
case BL_TRIANGLE:
vco_k = BandLimitedWave::oscillate( vco_c + 0.5f, BandLimitedWave::pdToLen( vco_inc ), BandLimitedWave::BLTriangle ) * 0.5f;
break;
case BL_MOOG:
vco_k = BandLimitedWave::oscillate( vco_c + 0.5f, BandLimitedWave::pdToLen( vco_inc ), BandLimitedWave::BLMoog );
break;
}
//vca_a = 0.5;
// Write out samples.
#ifdef LB_FILTERED
//samp = vcf->process(vco_k)*2.0*vca_a;
//samp = vcf->process(vco_k)*2.0;
samp = filter->process(vco_k) * vca_a;
//printf("%f %d\n", vco_c, sample_cnt);
//samp = vco_k * vca_a;
if( sample_cnt <= 4 )
{
// vca_a = 0;
}
#else
//samp = vco_k*vca_a;
#endif
/*
float releaseFrames = desiredReleaseFrames();
samp *= (releaseFrames - catch_decay)/releaseFrames;
*/
//LB302 samp *= (float)(decay_frames - catch_decay)/(float)decay_frames;
for( int c = 0; c < DEFAULT_CHANNELS; c++ )
{
outbuf[i][c] = samp;
}
// Handle Envelope
if(vca_mode==0) {
vca_a+=(vca_a0-vca_a)*vca_attack;
if(sample_cnt>=0.5*engine::mixer()->processingSampleRate())
vca_mode = 2;
}
else if(vca_mode == 1) {
vca_a *= vca_decay;
// the following line actually speeds up processing
if(vca_a < (1/65536.0)) {
vca_a = 0;
vca_mode = 3;
}
}
}
return 1;
}
/* Prepares the active LB302 note. I separated this into a function because it
* needs to be called onplayNote() when a new note is started. It also needs
* to be called from process() when a prior edge-to-edge note is done releasing.
*/
void lb302Synth::initNote( lb302Note *n)
{
catch_decay = 0;
vco_inc = n->vco_inc;
// Always reset vca on non-dead notes, and
// Only reset vca on decaying(decayed) and never-played
if(n->dead == 0 || (vca_mode==1 || vca_mode==3)) {
//printf(" good\n");
sample_cnt = 0;
vca_mode = 0;
// LB303:
//vca_a = 0;
}
else {
vca_mode = 2;
}
initSlide();
// Slide-from note, save inc for next note
if (slideToggle.value()) {
vco_slideinc = vco_inc; // May need to equal vco_slidebase+vco_slide if last note slid
}
recalcFilter();
if(n->dead ==0){
// Swap next two blocks??
#if QT_VERSION >= 0x050000
vcf.load()->playNote();
#else
vcf->playNote();
#endif
// Ensure envelope is recalculated
vcf_envpos = ENVINC;
// Double Check
//vca_mode = 0;
//vca_a = 0.0;
}
}
void lb302Synth::initSlide()
{
// Initiate Slide
if (vco_slideinc) {
//printf(" sliding\n");
vco_slide = vco_inc-vco_slideinc; // Slide amount
vco_slidebase = vco_inc; // The REAL frequency
vco_slideinc = 0; // reset from-note
}
else {
vco_slide = 0;
}
}
void lb302Synth::playNote( NotePlayHandle * _n, sampleFrame * _working_buffer )
{
if( _n->isMasterNote() || ( _n->hasParent() && _n->isReleased() ) )
{
return;
}
// sort notes: new notes to the end
m_notesMutex.lock();
if( _n->totalFramesPlayed() == 0 )
{
m_notes.append( _n );
}
else
{
m_notes.prepend( _n );
}
m_notesMutex.unlock();
release_frame = qMax( release_frame, _n->framesLeft() + _n->offset() );
}
void lb302Synth::processNote( NotePlayHandle * _n )
{
/// Start a new note.
if( _n->m_pluginData != this )
{
m_playingNote = _n;
new_freq = true;
_n->m_pluginData = this;
}
if( ! m_playingNote && ! _n->isReleased() && release_frame > 0 )
{
m_playingNote = _n;
if ( slideToggle.value() )
{
vco_slideinc = GET_INC( _n->frequency() );
}
}
// Check for slide
if( m_playingNote == _n )
{
true_freq = _n->frequency();
if( slideToggle.value() ) {
vco_slidebase = GET_INC( true_freq ); // The REAL frequency
}
else {
vco_inc = GET_INC( true_freq );
}
}
}
void lb302Synth::play( sampleFrame * _working_buffer )
{
while( ! m_notes.isEmpty() )
{
processNote( m_notes.takeFirst() );
};
const fpp_t frames = engine::mixer()->framesPerPeriod();
process( _working_buffer, frames );
instrumentTrack()->processAudioBuffer( _working_buffer, frames, NULL );
release_frame = 0;
}
void lb302Synth::deleteNotePluginData( NotePlayHandle * _n )
{
//printf("GONE\n");
if( m_playingNote == _n )
{
m_playingNote = NULL;
}
}
PluginView * lb302Synth::instantiateView( QWidget * _parent )
{
return( new lb302SynthView( this, _parent ) );
}
lb302SynthView::lb302SynthView( Instrument * _instrument, QWidget * _parent ) :
InstrumentView( _instrument, _parent )
{
// GUI
m_vcfCutKnob = new knob( knobBright_26, this );
m_vcfCutKnob->move( 75, 130 );
m_vcfCutKnob->setHintText( tr( "Cutoff Freq:" ) + " ", "" );
m_vcfCutKnob->setLabel( "" );
m_vcfResKnob = new knob( knobBright_26, this );
m_vcfResKnob->move( 120, 130 );
m_vcfResKnob->setHintText( tr( "Resonance:" ) + " ", "" );
m_vcfResKnob->setLabel( "" );
m_vcfModKnob = new knob( knobBright_26, this );
m_vcfModKnob->move( 165, 130 );
m_vcfModKnob->setHintText( tr( "Env Mod:" ) + " ", "" );
m_vcfModKnob->setLabel( "" );
m_vcfDecKnob = new knob( knobBright_26, this );
m_vcfDecKnob->move( 210, 130 );
m_vcfDecKnob->setHintText( tr( "Decay:" ) + " ", "" );
m_vcfDecKnob->setLabel( "" );
m_slideToggle = new ledCheckBox( "", this );
m_slideToggle->move( 10, 180 );
/* m_accentToggle = new ledCheckBox( "", this );
m_accentToggle->move( 10, 200 );
m_accentToggle->setDisabled(true);*/ // accent removed pending real implementation - no need for non-functional buttons
m_deadToggle = new ledCheckBox( "", this );
m_deadToggle->move( 10, 200 );
m_db24Toggle = new ledCheckBox( "", this );
m_db24Toggle->setWhatsThis(
tr( "303-es-que, 24dB/octave, 3 pole filter" ) );
m_db24Toggle->move( 10, 150);
m_slideDecKnob = new knob( knobBright_26, this );
m_slideDecKnob->move( 210, 75 );
m_slideDecKnob->setHintText( tr( "Slide Decay:" ) + " ", "" );
m_slideDecKnob->setLabel( "");
m_distKnob = new knob( knobBright_26, this );
m_distKnob->move( 210, 190 );
m_distKnob->setHintText( tr( "DIST:" ) + " ", "" );
m_distKnob->setLabel( tr( ""));
// Shapes
// move to 120,75
const int waveBtnX = 10;
const int waveBtnY = 96;
pixmapButton * sawWaveBtn = new pixmapButton( this, tr( "Saw wave" ) );
sawWaveBtn->move( waveBtnX, waveBtnY );
sawWaveBtn->setActiveGraphic( embed::getIconPixmap(
"saw_wave_active" ) );
sawWaveBtn->setInactiveGraphic( embed::getIconPixmap(
"saw_wave_inactive" ) );
toolTip::add( sawWaveBtn,
tr( "Click here for a saw-wave." ) );
pixmapButton * triangleWaveBtn =
new pixmapButton( this, tr( "Triangle wave" ) );
triangleWaveBtn->move( waveBtnX+(16*1), waveBtnY );
triangleWaveBtn->setActiveGraphic(
embed::getIconPixmap( "triangle_wave_active" ) );
triangleWaveBtn->setInactiveGraphic(
embed::getIconPixmap( "triangle_wave_inactive" ) );
toolTip::add( triangleWaveBtn,
tr( "Click here for a triangle-wave." ) );
pixmapButton * sqrWaveBtn = new pixmapButton( this, tr( "Square wave" ) );
sqrWaveBtn->move( waveBtnX+(16*2), waveBtnY );
sqrWaveBtn->setActiveGraphic( embed::getIconPixmap(
"square_wave_active" ) );
sqrWaveBtn->setInactiveGraphic( embed::getIconPixmap(
"square_wave_inactive" ) );
toolTip::add( sqrWaveBtn,
tr( "Click here for a square-wave." ) );
pixmapButton * roundSqrWaveBtn =
new pixmapButton( this, tr( "Rounded square wave" ) );
roundSqrWaveBtn->move( waveBtnX+(16*3), waveBtnY );
roundSqrWaveBtn->setActiveGraphic( embed::getIconPixmap(
"round_square_wave_active" ) );
roundSqrWaveBtn->setInactiveGraphic( embed::getIconPixmap(
"round_square_wave_inactive" ) );
toolTip::add( roundSqrWaveBtn,
tr( "Click here for a square-wave with a rounded end." ) );
pixmapButton * moogWaveBtn =
new pixmapButton( this, tr( "Moog wave" ) );
moogWaveBtn->move( waveBtnX+(16*4), waveBtnY );
moogWaveBtn->setActiveGraphic(
embed::getIconPixmap( "moog_saw_wave_active" ) );
moogWaveBtn->setInactiveGraphic(
embed::getIconPixmap( "moog_saw_wave_inactive" ) );
toolTip::add( moogWaveBtn,
tr( "Click here for a moog-like wave." ) );
pixmapButton * sinWaveBtn = new pixmapButton( this, tr( "Sine wave" ) );
sinWaveBtn->move( waveBtnX+(16*5), waveBtnY );
sinWaveBtn->setActiveGraphic( embed::getIconPixmap(
"sin_wave_active" ) );
sinWaveBtn->setInactiveGraphic( embed::getIconPixmap(
"sin_wave_inactive" ) );
toolTip::add( sinWaveBtn,
tr( "Click for a sine-wave." ) );
pixmapButton * exponentialWaveBtn =
new pixmapButton( this, tr( "White noise wave" ) );
exponentialWaveBtn->move( waveBtnX+(16*6), waveBtnY );
exponentialWaveBtn->setActiveGraphic(
embed::getIconPixmap( "exp_wave_active" ) );
exponentialWaveBtn->setInactiveGraphic(
embed::getIconPixmap( "exp_wave_inactive" ) );
toolTip::add( exponentialWaveBtn,
tr( "Click here for an exponential wave." ) );
pixmapButton * whiteNoiseWaveBtn =
new pixmapButton( this, tr( "White noise wave" ) );
whiteNoiseWaveBtn->move( waveBtnX+(16*7), waveBtnY );
whiteNoiseWaveBtn->setActiveGraphic(
embed::getIconPixmap( "white_noise_wave_active" ) );
whiteNoiseWaveBtn->setInactiveGraphic(
embed::getIconPixmap( "white_noise_wave_inactive" ) );
toolTip::add( whiteNoiseWaveBtn,
tr( "Click here for white-noise." ) );
pixmapButton * blSawWaveBtn =
new pixmapButton( this, tr( "Bandlimited saw wave" ) );
blSawWaveBtn->move( waveBtnX+(16*9)-8, waveBtnY );
blSawWaveBtn->setActiveGraphic(
embed::getIconPixmap( "saw_wave_active" ) );
blSawWaveBtn->setInactiveGraphic(
embed::getIconPixmap( "saw_wave_inactive" ) );
toolTip::add( blSawWaveBtn,
tr( "Click here for bandlimited saw wave." ) );
pixmapButton * blSquareWaveBtn =
new pixmapButton( this, tr( "Bandlimited square wave" ) );
blSquareWaveBtn->move( waveBtnX+(16*10)-8, waveBtnY );
blSquareWaveBtn->setActiveGraphic(
embed::getIconPixmap( "square_wave_active" ) );
blSquareWaveBtn->setInactiveGraphic(
embed::getIconPixmap( "square_wave_inactive" ) );
toolTip::add( blSquareWaveBtn,
tr( "Click here for bandlimited square wave." ) );
pixmapButton * blTriangleWaveBtn =
new pixmapButton( this, tr( "Bandlimited triangle wave" ) );
blTriangleWaveBtn->move( waveBtnX+(16*11)-8, waveBtnY );
blTriangleWaveBtn->setActiveGraphic(
embed::getIconPixmap( "triangle_wave_active" ) );
blTriangleWaveBtn->setInactiveGraphic(
embed::getIconPixmap( "triangle_wave_inactive" ) );
toolTip::add( blTriangleWaveBtn,
tr( "Click here for bandlimited triangle wave." ) );
pixmapButton * blMoogWaveBtn =
new pixmapButton( this, tr( "Bandlimited moog saw wave" ) );
blMoogWaveBtn->move( waveBtnX+(16*12)-8, waveBtnY );
blMoogWaveBtn->setActiveGraphic(
embed::getIconPixmap( "moog_saw_wave_active" ) );
blMoogWaveBtn->setInactiveGraphic(
embed::getIconPixmap( "moog_saw_wave_inactive" ) );
toolTip::add( blMoogWaveBtn,
tr( "Click here for bandlimited moog saw wave." ) );
m_waveBtnGrp = new automatableButtonGroup( this );
m_waveBtnGrp->addButton( sawWaveBtn );
m_waveBtnGrp->addButton( triangleWaveBtn );
m_waveBtnGrp->addButton( sqrWaveBtn );
m_waveBtnGrp->addButton( roundSqrWaveBtn );
m_waveBtnGrp->addButton( moogWaveBtn );
m_waveBtnGrp->addButton( sinWaveBtn );
m_waveBtnGrp->addButton( exponentialWaveBtn );
m_waveBtnGrp->addButton( whiteNoiseWaveBtn );
m_waveBtnGrp->addButton( blSawWaveBtn );
m_waveBtnGrp->addButton( blSquareWaveBtn );
m_waveBtnGrp->addButton( blTriangleWaveBtn );
m_waveBtnGrp->addButton( blMoogWaveBtn );
setAutoFillBackground( true );
QPalette pal;
pal.setBrush( backgroundRole(), PLUGIN_NAME::getIconPixmap(
"artwork" ) );
setPalette( pal );
}
lb302SynthView::~lb302SynthView()
{
}
void lb302SynthView::modelChanged()
{
lb302Synth * syn = castModel<lb302Synth>();
m_vcfCutKnob->setModel( &syn->vcf_cut_knob );
m_vcfResKnob->setModel( &syn->vcf_res_knob );
m_vcfDecKnob->setModel( &syn->vcf_dec_knob );
m_vcfModKnob->setModel( &syn->vcf_mod_knob );
m_slideDecKnob->setModel( &syn->slide_dec_knob );
m_distKnob->setModel( &syn->dist_knob );
m_waveBtnGrp->setModel( &syn->wave_shape );
m_slideToggle->setModel( &syn->slideToggle );
/*m_accentToggle->setModel( &syn->accentToggle );*/
m_deadToggle->setModel( &syn->deadToggle );
m_db24Toggle->setModel( &syn->db24Toggle );
}
extern "C"
{
// necessary for getting instance out of shared lib
Plugin * PLUGIN_EXPORT lmms_plugin_main( Model *, void * _data )
{
return( new lb302Synth(
static_cast<InstrumentTrack *>( _data ) ) );
}
}