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ls_displayModes.ino
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/************************** ls_displayModes: LinnStrument display modes drawing *******************
This work is licensed under the Creative Commons Attribution-ShareAlike 3.0 Unported License.
To view a copy of this license, visit http://creativecommons.org/licenses/by-sa/3.0/
or send a letter to Creative Commons, PO Box 1866, Mountain View, CA 94042, USA.
***************************************************************************************************
There are 13 different display modes.
These are the possible values of the global variable displayMode:
displayNormal : normal performance display
displayPerSplit : per-split settings (left or right split)
displayPreset : preset number
displayVolume : volume
displayOctaveTranspose : octave and transpose settings
displaySplitPoint : split point
displayGlobal : global settings
displayGlobalWithTempo : global settings with tempo
displayOsVersion : version number of the OS
displayCalibration : calibration process
displayReset : global reset confirmation and wait for touch release
displayBendRange ; custom bend range selection for X expression
displayLimitsForY : min and max value selection for Y expression
displayCCForY : custom CC number selection for Y expression
displayInitialForRelativeY : initial value for relative Y
displayLimitsForZ : min and max value selection for Z expression
displayCCForZ : custom CC number selection for Z expression
displayPlayedTouchModeConfig : custom display mode for played notes upon touch
displayCCForFader : custom CC number selection for a CC fader
displayLowRowCCXConfig : custom CC number selection and behavior for LowRow in CCX mode
displayLowRowCCXYZConfig : custom CC number selection and behavior for LowRow in CCXYZ mode
displayCCForSwitchCC65 : custom CC number selection and behavior for Switches in CC65 mode
displayCCForSwitchSustain : custom CC number selection and behavior for Switches in Sustain mode
displayCustomSwitchAssignment : custom switch behavior for Switches
displayLimitsForVelocity : min and max value selection for velocity
displayValueForFixedVelocity : value selection for fixed velocity
displayMinUSBMIDIInterval : minimum delay between MIDI bytes when sent over USB
displaySensorSensitivityZ : sensor sensitivity setting for Z
displaySensorLoZ : sensor low Z sensitivity selection
displaySensorFeatherZ : sensor feather Z sensitivity selection
displaySensorRangeZ : max Z sensor range selection
displayAnimation : display animation
displayEditAudienceMessage : edit an audience message
displaySleep : sleeping
displaySleepConfig : sleep mode configuration
displayRowOffset : custom row offset selection
displayGuitarTuning : guitar tuning configuration
displayMIDIThrough : MIDI through configuration
displaySequencerProjects : sequencer projects
displaySequencerDrum0107 : sequencer first 7 drum notes
displaySequencerDrum0814 : sequencer second 7 drum notes
displaySequencerColors : sequencer low row colors
displayCustomLedsEditor : editor for custom LEDs
These routines handle the painting of these display modes on LinnStument's 208 LEDs.
**************************************************************************************************/
unsigned long displayModeStart = 0; // indicates when the current display mode was activated
boolean blinkMiddleRootNote = false; // indicates whether the middle root note should be blinking
// changes the active display mode
void setDisplayMode(DisplayMode mode) {
DEBUGPRINT((0,"setDisplayMode"));
DEBUGPRINT((0," mode="));DEBUGPRINT((0,(int)mode));
DEBUGPRINT((0,"\n"));
boolean refresh = (displayMode != mode);
if (refresh || displayModeStart == 0) {
displayModeStart = millis();
exitDisplayMode(displayMode);
}
displayMode = mode;
if (refresh) {
enterDisplayMode(mode);
completelyRefreshLeds();
}
}
// updates columns 1=25 of the LED display based on the current displayMode setting:
// 0:normal, 1:perSplit, 2:preset, 3:volume, 4:transpose, 5:split, 6:global
void updateDisplay() {
if (animationActive) {
return;
}
startBufferedLeds();
switch (displayMode) {
case displayNormal:
case displaySplitPoint:
if (!controlModeActive) {
paintNormalDisplay();
}
break;
case displayPerSplit:
paintPerSplitDisplay(Global.currentPerSplit);
break;
case displayPreset:
paintPresetDisplay(Global.currentPerSplit);
break;
case displayOsVersion:
paintOSVersionDisplay();
break;
case displayOsVersionBuild:
paintOSVersionBuildDisplay();
break;
case displayVolume:
paintVolumeDisplay(Global.currentPerSplit);
break;
case displayOctaveTranspose:
paintOctaveTransposeDisplay(Global.currentPerSplit);
break;
case displayGlobal:
case displayGlobalWithTempo:
paintGlobalSettingsDisplay();
break;
case displayCalibration:
paintCalibrationDisplay();
break;
case displayReset:
paintResetDisplay();
break;
case displayBendRange:
paintBendRangeDisplay(Global.currentPerSplit);
break;
case displayLimitsForY:
paintLimitsForYDisplay(Global.currentPerSplit);
break;
case displayCCForY:
paintCCForYDisplay(Global.currentPerSplit);
break;
case displayInitialForRelativeY:
paintInitialForRelativeYDisplay(Global.currentPerSplit);
break;
case displayLimitsForZ:
paintLimitsForZDisplay(Global.currentPerSplit);
break;
case displayCCForZ:
paintCCForZDisplay(Global.currentPerSplit);
break;
case displayPlayedTouchModeConfig:
paintPlayedTouchModeDisplay(Global.currentPerSplit);
break;
case displayCCForFader:
paintCCForFaderDisplay(Global.currentPerSplit);
break;
case displayLowRowCCXConfig:
paintLowRowCCXConfigDisplay(Global.currentPerSplit);
break;
case displayLowRowCCXYZConfig:
paintLowRowCCXYZConfigDisplay(Global.currentPerSplit);
break;
case displayCCForSwitchCC65:
paintCCForSwitchCC65ConfigDisplay();
break;
case displayCCForSwitchSustain:
paintCCForSwitchSustainConfigDisplay();
break;
case displayCustomSwitchAssignment:
paintCustomSwitchAssignmentConfigDisplay();
break;
case displayLimitsForVelocity:
paintLimitsForVelocityDisplay();
break;
case displayValueForFixedVelocity:
paintValueForFixedVelocityDisplay();
break;
case displayMinUSBMIDIInterval:
paintMinUSBMIDIIntervalDisplay();
break;
case displaySensorSensitivityZ:
paintSensorSensitivityZDisplay();
break;
case displaySensorLoZ:
paintSensorLoZDisplay();
break;
case displaySensorFeatherZ:
paintSensorFeatherZDisplay();
break;
case displaySensorRangeZ:
paintSensorRangeZDisplay();
break;
case displayAnimation:
// animation display is handled independently
break;
case displayEditAudienceMessage:
paintEditAudienceMessage();
break;
case displaySleep:
// sleep display is handled independently
break;
case displaySleepConfig:
paintSleepConfig();
break;
case displaySplitHandedness:
paintSplitHandedness();
break;
case displayRowOffset:
paintRowOffset();
break;
case displayGuitarTuning:
paintGuitarTuning();
break;
case displayMIDIThrough:
paintMIDIThrough();
break;
case displaySequencerProjects:
paintSequencerProjects();
break;
case displaySequencerDrum0107:
paintSequencerDrum0107();
break;
case displaySequencerDrum0814:
paintSequencerDrum0814();
break;
case displaySequencerColors:
paintSequencerColors();
break;
case displayCustomLedsEditor:
paintCustomLedsEditor();
break;
}
updateSwitchLeds();
finishBufferedLeds();
}
// handle logic tied to entering specific display mode, like clearing
void enterDisplayMode(DisplayMode mode) {
switch (mode) {
// ensure that in non settings displays, the control buttons are cleared out
case displayNormal:
case displaySleep:
case displayAnimation:
clearLed(0, GLOBAL_SETTINGS_ROW);
clearLed(0, OCTAVE_ROW);
clearLed(0, VOLUME_ROW);
clearLed(0, PRESET_ROW);
clearLed(0, PER_SPLIT_ROW);
controlButton = -1;
break;
case displaySensorSensitivityZ:
clearDisplay();
break;
#ifdef DEBUG_ENABLED
case displayCalibration:
debugCalibration();
break;
#endif
default:
// no logic tied to entering the display mode
break;
}
}
// handle logic tied to exiting specific display mode, like post-processing or saving
void exitDisplayMode(DisplayMode mode) {
switch (mode) {
case displayNormal:
initializeTouchAnimation();
break;
case displayEditAudienceMessage:
trimEditedAudienceMessage();
storeSettings();
break;
case displayCustomLedsEditor:
storeCustomLedLayer(getActiveCustomLedPattern());
storeSettings();
break;
default:
// no logic tied to exiting the display mode
break;
}
}
void updateSwitchLeds() {
if (operatingMode != modePerformance) {
return;
}
// highlight global settings yellow when user firmware mode is active
if (userFirmwareActive) {
setLed(0, GLOBAL_SETTINGS_ROW, COLOR_YELLOW, cellOn);
return;
}
CellDisplay displaySwitch1 = switchState[SWITCH_SWITCH_1][Global.currentPerSplit] ? cellOn : cellOff;
if (Global.switchAssignment[SWITCH_SWITCH_1] == ASSIGNED_ARPEGGIATOR) {
displaySwitch1 = isArpeggiatorEnabled(Global.currentPerSplit) ? cellOn : cellOff;
}
else if (isLowRowSustainPressed(Global.currentPerSplit) &&
((Global.switchAssignment[SWITCH_SWITCH_1] == ASSIGNED_SUSTAIN && Global.ccForSwitchSustain[SWITCH_SWITCH_1] == 64) ||
(Global.switchAssignment[SWITCH_SWITCH_1] == ASSIGNED_CC_65 && Global.ccForSwitchCC65[SWITCH_SWITCH_1] == 64))) {
displaySwitch1 = cellOn;
}
else if ((Global.switchAssignment[SWITCH_SWITCH_1] == ASSIGNED_SUSTAIN && isSwitchSustainCCEnabled(SWITCH_SWITCH_1, Global.currentPerSplit)) ||
(Global.switchAssignment[SWITCH_SWITCH_1] == ASSIGNED_CC_65 && isSwitchCC65CCEnabled(SWITCH_SWITCH_1, Global.currentPerSplit))) {
displaySwitch1 = cellOn;
}
else if (Global.switchAssignment[SWITCH_SWITCH_1] == ASSIGNED_AUTO_OCTAVE && isSwitchAutoOctavePressed(Global.currentPerSplit)) {
displaySwitch1 = cellOn;
}
setLed(0, SWITCH_1_ROW, globalColor, displaySwitch1);
CellDisplay displaySwitch2 = switchState[SWITCH_SWITCH_2][Global.currentPerSplit] ? cellOn : cellOff;
if (Global.switchAssignment[SWITCH_SWITCH_2] == ASSIGNED_ARPEGGIATOR) {
displaySwitch2 = isArpeggiatorEnabled(Global.currentPerSplit) ? cellOn : cellOff;
}
else if (isLowRowSustainPressed(Global.currentPerSplit) &&
((Global.switchAssignment[SWITCH_SWITCH_2] == ASSIGNED_SUSTAIN && Global.ccForSwitchSustain[SWITCH_SWITCH_2] == 64) ||
(Global.switchAssignment[SWITCH_SWITCH_2] == ASSIGNED_CC_65 && Global.ccForSwitchCC65[SWITCH_SWITCH_2] == 64))) {
displaySwitch2 = cellOn;
}
else if ((Global.switchAssignment[SWITCH_SWITCH_2] == ASSIGNED_SUSTAIN && isSwitchSustainCCEnabled(SWITCH_SWITCH_2, Global.currentPerSplit)) ||
(Global.switchAssignment[SWITCH_SWITCH_2] == ASSIGNED_CC_65 && isSwitchCC65CCEnabled(SWITCH_SWITCH_2, Global.currentPerSplit))) {
displaySwitch2 = cellOn;
}
else if (Global.switchAssignment[SWITCH_SWITCH_2] == ASSIGNED_AUTO_OCTAVE && isSwitchAutoOctavePressed(Global.currentPerSplit)) {
displaySwitch2 = cellOn;
}
setLed(0, SWITCH_2_ROW, globalColor, displaySwitch2);
if (Split[Global.currentPerSplit].sequencer) {
setLed(0, SPLIT_ROW, Split[Global.currentPerSplit].colorMain, cellOn);
}
else if (Global.splitActive) {
setLed(0, SPLIT_ROW, Split[Global.currentPerSplit].colorMain, cellOn);
}
else {
clearLed(0, SPLIT_ROW);
}
switch (displayMode) {
case displayGlobal:
lightLed(0, GLOBAL_SETTINGS_ROW);
break;
case displayOctaveTranspose:
lightLed(0, OCTAVE_ROW);
break;
case displayVolume:
lightLed(0, VOLUME_ROW);
break;
case displayPreset:
lightLed(0, PRESET_ROW);
break;
case displayPerSplit:
lightLed(0, PER_SPLIT_ROW);
break;
case displayCustomLedsEditor:
setLed(0, SWITCH_SWITCH_1, customLedColor, cellSlowPulse);
break;
default:
break;
}
updateSequencerSwitchLeds();
}
// paintNormalDisplay:
// Paints all non-switch columns of the display with the normal performance colors
void paintNormalDisplay() {
if (userFirmwareActive) return;
if (Split[Global.currentPerSplit].sequencer) {
paintSequencerDisplay(Global.currentPerSplit);
return;
}
// determine the splits and divider
byte split = Global.currentPerSplit;
byte divider = NUMCOLS;
if (Global.splitActive || displayMode == displaySplitPoint) {
split = LEFT;
divider = Global.splitPoint;
}
paintNormalDisplaySplit(split, 1, divider);
if (divider != NUMCOLS) {
paintNormalDisplaySplit(RIGHT, divider, NUMCOLS);
}
// light the octave/transpose switch if the pitch is transposed
if ((Split[LEFT].transposePitch < 0 && Split[RIGHT].transposePitch < 0) ||
(Split[LEFT].transposePitch < 0 && Split[RIGHT].transposePitch == 0) ||
(Split[LEFT].transposePitch == 0 && Split[RIGHT].transposePitch < 0)) {
setLed(0, OCTAVE_ROW, COLOR_RED, cellOn);
}
else if ((Split[LEFT].transposePitch > 0 && Split[RIGHT].transposePitch > 0) ||
(Split[LEFT].transposePitch > 0 && Split[RIGHT].transposePitch == 0) ||
(Split[LEFT].transposePitch == 0 && Split[RIGHT].transposePitch > 0)) {
setLed(0, OCTAVE_ROW, COLOR_GREEN, cellOn);
}
else if (Split[LEFT].transposePitch != 0 && Split[RIGHT].transposePitch != 0) {
setLed(0, OCTAVE_ROW, COLOR_YELLOW, cellOn);
}
else {
clearLed(0, OCTAVE_ROW);
}
}
void paintNormalDisplaySplit(byte split, byte leftEdge, byte rightEdge) {
if (userFirmwareActive) return;
byte faderLeft, faderLength;
determineFaderBoundaries(split, faderLeft, faderLength);
for (byte row = 0; row < NUMROWS; ++row) {
if (Split[split].ccFaders) {
paintCCFaderDisplayRow(split, row, faderLeft, faderLength);
}
else if (isStrummingSplit(split)) {
for (byte col = leftEdge; col < rightEdge; ++col) {
paintStrumDisplayCell(split, col, row);
}
}
else {
for (byte col = leftEdge; col < rightEdge; ++col) {
paintNormalDisplayCell(split, col, row);
}
if (!userFirmwareActive && row == 0 && Split[split].lowRowMode != lowRowNormal) {
if (Split[split].lowRowMode == lowRowCCX && Split[split].lowRowCCXBehavior == lowRowCCFader) {
paintCCFaderDisplayRow(split, 0, Split[split].colorLowRow, Split[split].ccForLowRow, faderLeft, faderLength, LED_LAYER_LOWROW);
}
if (Split[split].lowRowMode == lowRowCCXYZ && Split[split].lowRowCCXYZBehavior == lowRowCCFader) {
paintCCFaderDisplayRow(split, 0, Split[split].colorLowRow, Split[split].ccForLowRowX, faderLeft, faderLength, LED_LAYER_LOWROW);
}
}
}
performContinuousTasks();
}
}
void paintCCFaderDisplayRow(byte split, byte row, byte faderLeft, byte faderLength) {
paintCCFaderDisplayRow(split, row, Split[split].colorMain, Split[split].ccForFader[row], faderLeft, faderLength);
}
void paintCCFaderDisplayRow(byte split, byte row, byte color, unsigned short ccForFader, byte faderLeft, byte faderLength) {
paintCCFaderDisplayRow(split, row, color, ccForFader, faderLeft, faderLength, LED_LAYER_MAIN);
}
void paintCCFaderDisplayRow(byte split, byte row, byte color, unsigned short ccForFader, byte faderLeft, byte faderLength, byte layer) {
if (userFirmwareActive || ccForFader > 128) return;
// when the fader only spans one cell, it acts as a toggle
if (faderLength == 0) {
if (ccFaderValues[split][ccForFader] > 0) {
setLed(faderLeft, row, color, cellOn, layer);
}
else {
clearLed(faderLeft, row, layer);
}
}
// otherwise calculate the fader position based on its value and light the appropriate leds
else {
int32_t fxdFaderPosition = fxdCalculateFaderPosition(ccFaderValues[split][ccForFader], faderLeft, faderLength);
for (byte col = faderLength + faderLeft; col >= faderLeft; --col ) {
if (Device.calRows[col][0].fxdReferenceX - FXD_CALX_HALF_UNIT > fxdFaderPosition) {
setLed(col, row, COLOR_BLACK, cellOn, layer);
}
else {
setLed(col, row, color, cellOn, layer);
}
}
}
}
void paintStrumDisplayCell(byte split, byte col, byte row) {
if (userFirmwareActive) return;
// by default clear the cell color
byte colour = COLOR_OFF;
CellDisplay cellDisplay = cellOff;
if (row % 2 == 0) {
colour = Split[split].colorAccent;
cellDisplay = cellOn;
}
else {
colour = Split[split].colorMain;
cellDisplay = cellOn;
}
// actually set the cell's color
setLed(col, row, colour, cellDisplay);
}
void paintNormalDisplayCell(byte split, byte col, byte row) {
if (userFirmwareActive) return;
// by default clear the cell color
byte colour = COLOR_OFF;
CellDisplay cellDisplay = cellOff;
short displayedNote = getNoteNumber(split, col, row) + Split[split].transposeOctave;
short actualnote = transposedNote(split, col, row);
// the note is out of MIDI note range, disable it
if (actualnote < 0 || actualnote > 127) {
colour = COLOR_OFF;
cellDisplay = cellOff;
}
else if (!customLedPatternActive) {
byte octaveNote = abs(displayedNote % 12);
// first paint all cells in split to its background color
if (Global.mainNotes[Global.activeNotes] & (1 << octaveNote)) {
colour = Split[split].colorMain;
cellDisplay = cellOn;
}
// then paint only notes marked as Accent notes with Accent color
if (Global.accentNotes[Global.activeNotes] & (1 << octaveNote)) {
colour = Split[split].colorAccent;
cellDisplay = cellOn;
}
}
// show pulsating middle root note
if (blinkMiddleRootNote && displayedNote == 60) {
colour = Split[split].colorAccent;
cellDisplay = cellFastPulse;
}
// if the low row is anything but normal, set it to the appropriate color
if (row == 0 && Split[split].lowRowMode != lowRowNormal) {
if ((Split[split].lowRowMode == lowRowCCX && Split[sensorSplit].lowRowCCXBehavior == lowRowCCFader) ||
(Split[split].lowRowMode == lowRowCCXYZ && Split[sensorSplit].lowRowCCXYZBehavior == lowRowCCFader)) {
colour = COLOR_BLACK;
cellDisplay = cellOff;
}
else {
colour = Split[split].colorLowRow;
cellDisplay = cellOn;
}
// actually set the cell's color
setLed(col, row, colour, cellDisplay, LED_LAYER_LOWROW);
}
else {
// actually set the cell's color
if (row == 0) {
clearLed(col, row, LED_LAYER_LOWROW);
}
setLed(col, row, colour, cellDisplay, LED_LAYER_MAIN);
}
}
// paintPerSplitDisplay:
// paints all cells with per-split settings for a given split
void paintPerSplitDisplay(byte side) {
clearDisplay();
doublePerSplit = false;
// set Midi Mode and channel lights
switch (Split[side].midiMode) {
case oneChannel:
{
setLed(1, 7, Split[side].colorMain, cellOn);
break;
}
case channelPerNote:
{
setLed(1, 6, getMpeColor(side), cellOn);
break;
}
case channelPerRow:
{
setLed(1, 5, getChannelPerRowColor(side), cellOn);
break;
}
}
switch (midiChannelSelect) {
case MIDICHANNEL_MAIN:
setLed(2, 7, Split[side].colorMain, cellOn);
showMainMidiChannel(side);
break;
case MIDICHANNEL_PERNOTE:
setLed(2, 6, Split[side].colorMain, cellOn);
showPerNoteMidiChannels(side);
break;
case MIDICHANNEL_PERROW:
setLed(2, 5, Split[side].colorMain, cellOn);
showPerRowMidiChannel(side);
break;
}
switch (Split[side].bendRangeOption) {
case bendRange2:
setLed(7, 7, Split[side].colorMain, cellOn);
break;
case bendRange3:
setLed(7, 6, Split[side].colorMain, cellOn);
break;
case bendRange12:
setLed(7, 5, Split[side].colorMain, cellOn);
break;
case bendRange24:
setLed(7, 4, getBendRangeColor(side), cellOn);
break;
}
// set Pitch/X settings
if (Split[side].sendX == true) {
setLed(8, 7, Split[side].colorMain, cellOn);
}
if (Split[side].pitchCorrectQuantize == true) {
setLed(8, 6, Split[side].colorMain, cellOn);
}
if (Split[side].pitchCorrectHold == pitchCorrectHoldMedium ||
Split[side].pitchCorrectHold == pitchCorrectHoldSlow) {
setLed(8, 5, Split[side].colorMain, cellOn);
}
if (Split[side].pitchCorrectHold == pitchCorrectHoldFast ||
Split[side].pitchCorrectHold == pitchCorrectHoldSlow) {
setLed(8, 4, Split[side].colorMain, cellOn);
}
if (Split[side].pitchResetOnRelease == true) {
setLed(8, 3, Split[side].colorMain, cellOn);
}
// set Timbre/Y settings
if (Split[side].sendY == true) {
setLed(9, 7, getLimitsForYColor(side), cellOn);
}
switch (Split[side].expressionForY) {
case timbrePolyPressure:
case timbreChannelPressure:
case timbreCC74:
setLed(9, 5, getCCForYColor(side), cellOn);
break;
case timbreCC1:
setLed(9, 6, Split[side].colorMain, cellOn);
break;
}
if (Split[side].relativeY == true)
{
setLed(9, 4, getRelativeYColor(side), cellOn);
}
// set Loudness/Z settings
if (Split[side].sendZ == true) {
setLed(10, 7, getLimitsForZColor(side), cellOn);
}
switch (Split[side].expressionForZ) {
case loudnessPolyPressure:
setLed(10, 6, Split[side].colorMain, cellOn);
break;
case loudnessChannelPressure:
setLed(10, 5, Split[side].colorMain, cellOn);
break;
case loudnessCC11:
setLed(10, 4, getCCForZColor(side), cellOn);
break;
}
// Set "Color" lights
setLed(11, 7, Split[side].colorMain, cellOn);
setLed(11, 6, Split[side].colorAccent, cellOn);
setLed(11, 5, Split[side].colorPlayed, cellOn);
setLed(11, 4, Split[side].colorLowRow, cellOn);
// Set "Low row" lights
switch (Split[side].lowRowMode) {
case lowRowNormal:
setLed(12, 7, Split[side].colorMain, cellOn);
break;
case lowRowRestrike:
setLed(12, 6, Split[side].colorMain, cellOn);
break;
case lowRowStrum:
setLed(12, 5, Split[side].colorMain, cellOn);
break;
case lowRowArpeggiator:
setLed(12, 4, Split[side].colorMain, cellOn);
break;
case lowRowSustain:
setLed(13, 7, Split[side].colorMain, cellOn);
break;
case lowRowBend:
setLed(13, 6, Split[side].colorMain, cellOn);
break;
case lowRowCCX:
setLed(13, 5, getLowRowCCXColor(side), cellOn);
break;
case lowRowCCXYZ:
setLed(13, 4, getLowRowCCXYZColor(side), cellOn);
break;
}
// set Arpeggiator
if (Split[side].arpeggiator) {
setLed(14, 7, Split[side].colorMain, cellOn);
}
// set CC faders
if (Split[side].ccFaders) {
setLed(14, 6, getCCFadersColor(side), cellOn);
}
// set strum
if (Split[side].strum) {
setLed(14, 5, Split[side].colorMain, cellOn);
}
// set sequencer
if (Split[side].sequencer) {
setLed(14, 4, Split[side].colorMain, cellOn);
}
// set "show split" led
paintShowSplitSelection(side);
}
byte getMpeColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].mpe) {
color = Split[side].colorAccent;
}
return color;
}
byte getChannelPerRowColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].midiChanPerRowReversed) {
color = Split[side].colorAccent;
}
return color;
}
byte getBendRangeColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].customBendRange != 24) {
color = Split[side].colorAccent;
}
return color;
}
byte getLimitsForYColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].minForY != 0 || Split[side].maxForY != 127) {
color = Split[side].colorAccent;
}
return color;
}
byte getCCForYColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].customCCForY != 74) {
color = Split[side].colorAccent;
}
return color;
}
byte getRelativeYColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].initialRelativeY != 64) {
color = Split[side].colorAccent;
}
return color;
}
byte getLimitsForZColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].minForZ != 0 || Split[side].maxForZ != 127 || Split[side].ccForZ14Bit) {
color = Split[side].colorAccent;
}
return color;
}
byte getCCForZColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].customCCForZ != 11) {
color = Split[side].colorAccent;
}
return color;
}
byte getLowRowCCXColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].ccForLowRow != 1) {
color = Split[side].colorAccent;
}
return color;
}
byte getLowRowCCXYZColor(byte side) {
byte color = Split[side].colorMain;
if (Split[side].ccForLowRowX != 16) {
color = Split[side].colorAccent;
}
if (Split[side].ccForLowRowY != 17) {
color = Split[side].colorAccent;
}
if (Split[side].ccForLowRowZ != 18) {
color = Split[side].colorAccent;
}
return color;
}
byte getCCFadersColor(byte side) {
byte color = Split[side].colorMain;
for (byte f = 0; f < 8; ++f) {
if (Split[side].ccForFader[f] != f+1) {
color = Split[side].colorAccent;
break;
}
}
return color;
}
byte getCalibrationColor() {
if (Device.calibrated) {
return COLOR_GREEN;
}
return COLOR_RED;
}
byte getSplitHandednessColor() {
if (Device.splitHandedness == reversedBoth) {
return globalColor;
}
return globalAltColor;
}
byte getGuitarTuningColor() {
byte color = globalColor;
if (Global.guitarTuning[0] != 30 ||
Global.guitarTuning[1] != 35 ||
Global.guitarTuning[2] != 40 ||
Global.guitarTuning[3] != 45 ||
Global.guitarTuning[4] != 50 ||
Global.guitarTuning[5] != 55 ||
Global.guitarTuning[6] != 59 ||
Global.guitarTuning[7] != 64) {
color = globalAltColor;
}
return color;
}
// paint one of the two leds that indicate which split is being controlled
// (e.g. when you're changing per-split settings, or changing the preset or volume)
void paintShowSplitSelection(byte side) {
if (side == LEFT || doublePerSplit) {
setLed(15, 7, Split[LEFT].colorMain, cellOn);
}
if (side == RIGHT || doublePerSplit) {
setLed(16, 7, Split[RIGHT].colorMain, cellOn);
}
}
void paintOSVersionDisplay() {
clearDisplay();
byte color = Split[LEFT].colorMain;
smallfont_draw_string(0, 0, OSVersion, color);
}
void paintOSVersionBuildDisplay() {
clearDisplay();
byte color = Split[LEFT].colorAccent;
smallfont_draw_string(0, 0, OSVersionBuild, color);
}
// paint the current preset number for a particular side, in large block characters
byte getPresetDisplayColumn() {
return LINNMODEL == 200 ? NUMCOLS-2 : NUMCOLS-1;
}
void paintPresetDisplay(byte side) {
clearDisplay();
setLed(1, 7, COLOR_GREEN, cellOn);
setLed(1, 6, COLOR_RED, cellOn);
for (byte p = 0; p < NUMPRESETS; ++p) {
int color = globalColor;
if (p == Device.lastLoadedPreset) {
color = COLOR_CYAN;
}
int row = p+2;
if (row >= 6) row -= 6;
setLed(getPresetDisplayColumn(), row, color, cellOn);
}
paintSplitNumericDataDisplay(side, midiPreset[side]+1, 0, false);
}
void paintBendRangeDisplay(byte side) {
clearDisplay();
paintSplitNumericDataDisplay(side, Split[side].customBendRange, 0, false);
}
void paintLimitsForYDisplay(byte side) {
clearDisplay();
switch (limitsForYConfigState) {
case 1:
condfont_draw_string(0, 0, "L", Split[side].colorMain, true);
paintSplitNumericDataDisplay(side, Split[side].minForY, 4, true);
break;
case 0:
condfont_draw_string(0, 0, "H", Split[side].colorMain, true);
paintSplitNumericDataDisplay(side, Split[side].maxForY, 4, true);
break;
}
}
void paintCCForYDisplay(byte side) {
clearDisplay();
if (Split[side].customCCForY == 128) {
condfont_draw_string(0, 0, "POPRS", Split[side].colorMain, false);
paintShowSplitSelection(side);
}
else if (Split[side].customCCForY == 129) {
condfont_draw_string(0, 0, "CHPRS", Split[side].colorMain, false);
paintShowSplitSelection(side);
}
else {
paintSplitNumericDataDisplay(side, Split[side].customCCForY, 0, false);
}
}
void paintInitialForRelativeYDisplay(byte side) {
clearDisplay();
paintSplitNumericDataDisplay(side, Split[side].initialRelativeY, 0, false);
}
void paintLimitsForZDisplay(byte side) {
clearDisplay();
switch (limitsForZConfigState) {
case 2:
condfont_draw_string(0, 0, "L", Split[side].colorMain, true);
paintSplitNumericDataDisplay(side, Split[side].minForZ, 4, true);
break;
case 1:
condfont_draw_string(0, 0, "H", Split[side].colorMain, true);
paintSplitNumericDataDisplay(side, Split[side].maxForZ, 4, true);
break;
case 0:
if (Split[side].ccForZ14Bit) {
condfont_draw_string(0, 0, "14BT", Split[side].colorMain, true);
}
else {
condfont_draw_string(3, 0, "7BT", Split[side].colorMain, true);
}
paintShowSplitSelection(side);
break;
}
}
void paintCCForZDisplay(byte side) {
clearDisplay();
if (Split[side].expressionForZ != loudnessCC11) {
setDisplayMode(displayPerSplit);
updateDisplay();
}
else {
paintSplitNumericDataDisplay(side, Split[side].customCCForZ, 0, false);
}
}
void paintCCForFaderDisplay(byte side) {
clearDisplay();
for (byte r = 0; r < NUMROWS; ++r) {
setLed(NUMCOLS-1, r, globalColor, cellOn);
}
setLed(NUMCOLS-1, currentEditedCCFader[side], COLOR_GREEN, cellOn);
unsigned short cc = Split[side].ccForFader[currentEditedCCFader[side]];
if (cc == 128) {
condfont_draw_string(0, 0, "CHPRS", Split[side].colorMain, false);
paintShowSplitSelection(side);
}
else {
paintSplitNumericDataDisplay(side, cc, 0, false);
}
}
void paintPlayedTouchModeDisplay(byte side) {
clearDisplay();
switch(Split[side].playedTouchMode) {
case playedCell:
adaptfont_draw_string(0, 0, "CELL", Split[side].colorMain, true);
break;
case playedSame:
adaptfont_draw_string(0, 0, LINNMODEL == 200 ? "SAME" : "SAM", Split[side].colorMain, true);
break;
case playedCrosses:
adaptfont_draw_string(0, 0, "CROS", Split[side].colorMain, true);