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ls_displayModes.ino
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/************************** ls_displayModes: LinnStrument display modes drawing *******************
Copyright 2023 Roger Linn Design (https://www.rogerlinndesign.com)
Licensed under the Apache License, Version 2.0 (the "License");
you may not use this file except in compliance with the License.
You may obtain a copy of the License at
http://www.apache.org/licenses/LICENSE-2.0
Unless required by applicable law or agreed to in writing, software
distributed under the License is distributed on an "AS IS" BASIS,
WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
See the License for the specific language governing permissions and
limitations under the License.
***************************************************************************************************
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);
if (row == 0) {
for (byte col = leftEdge; col < rightEdge; ++col) {
clearLed(col, row, LED_LAYER_LOWROW);
}
}
}
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 {