void MIDIProcessor::handleIncomingMidiMessage(juce::MidiInput * /*device*/,
const juce::MidiMessage& message) {
if (message.isController()) {
const auto channel =
static_cast<unsigned short int>(message.getChannel()); // 1-based
const auto control =
static_cast<unsigned short int>(message.getControllerNumber());
const auto value =
static_cast<unsigned short int>(message.getControllerValue());
if (nrpn_filter_.ProcessMidi(channel, control, value)) { //true if nrpn piece
if (nrpn_filter_.IsReady(channel)) { //send when finished
for (const auto listener : listeners_)
listener->handleMidiCC(channel, nrpn_filter_.GetControl(channel),
nrpn_filter_.GetValue(channel));
nrpn_filter_.Clear(channel);
}
}
else //regular message
for (const auto listener : listeners_)
listener->handleMidiCC(channel, control, value);
}
else if (message.isNoteOn()) {
for (const auto listener : listeners_) {
listener->handleMidiNote(message.getChannel(), message.getNoteNumber());
}
}
else if (message.isPitchWheel()) {
const auto value =
static_cast<unsigned short int>(message.getPitchWheelValue());
for (auto listener : listeners_) {
listener->handlePitchWheel(message.getChannel(), value);
}
}
}
//===============================================================================================
void MainComponent::handleIncomingMidiMessage(juce::MidiInput *source, const juce::MidiMessage &message)
{
// if we want to print the data to the console, we are going to have to lock the message thread
#ifdef DEBUG
const MessageManagerLock mmLock; // should do it
const uint8* data = message.getRawData();
log("Received MIDI: " + String(data[0]) + " " + String(data[1]) + " " + String(data[2]) + "\n", console);
try {
#endif
// essentially have to switch on the channel to pass it to the right string
// would make sense to have a map of strings by channel
// as this is potentially a bottleneck
// depending how much midi we are piping through
// for now the ugly linear version
if (!analysisThread->isThreadRunning())
for (int i = 0; i < swivelStrings.size(); i++)
{
if (swivelStrings[i]->getMidiChannel() == message.getChannel())
midiOutBox->getSelectedOutput()->sendMessageNow(swivelStrings[i]->transform(message));
}
//midiOutBox->getSelectedOutput()->sendMessageNow(message);
#ifdef DEBUG
} catch (std::logic_error const &e) {
std::cerr << e.what();
}
#endif
}
void SeaboardVisualiser::seaboardDidGetAftertouch(const juce::MidiMessage & message)
{
int channel = message.getChannel();
float aftertouch = message.getAfterTouchValue() / 127.f; //Normalise the aftertouch value between 0 and 1.
String childName = kChannelNo + String(channel);
ValueTree noteTree = theSeaboardData.getChildWithName(childName);
if (noteTree.isValid())
{
noteTree.setProperty(kAftertouch, aftertouch, 0);
}
}
void SeaboardVisualiser::seaboardDidGetPitchBend(const juce::MidiMessage & message)
{
int channel = message.getChannel();
float pitchBend = (message.getPitchWheelValue() - 8192) / 8192.f; //Normalise the pitch bend value between -1 and 1.
String childName = kChannelNo + String(channel);
ValueTree noteTree = theSeaboardData.getChildWithName(childName);
if (noteTree.isValid())
{
noteTree.setProperty(kPitchBend, pitchBend, 0);
}
}
void SeaboardVisualiser::seaboardDidGetNoteOff(const juce::MidiMessage &message)
{
int channel = message.getChannel();
String childName = kChannelNo + String(channel);
ValueTree removeMe = theSeaboardData.getChildWithName(kChannelNo + String(channel));
// We check if the channel number does have a current note (if the seabaord data tree has a child tree named after the relevant channel). If so, we remove it.
if (removeMe.isValid())
{
theSeaboardData.removeChild(removeMe, 0);
}
}
// When this Seaboard::Listener object receives midi messages, we overwrite the following methods and implement our desired response.
void SeaboardVisualiser::seaboardDidGetNoteOn(const juce::MidiMessage &message)
{
/*
We will set up a ValueTree object and add it as a child to the SeaboardData value tree. Its name will be set to the channel number that it is assigned to.
*/
// Get the relevant midi note information from the incoming message
int channel = message.getChannel();
int note = message.getNoteNumber();
// Setup the name for the new child ValueTree structure.
String childName = kChannelNo + String(channel);
ValueTree channelInfo(childName);
// Add the note information to the ValueTree structure.
channelInfo.setProperty(kNoteNo, note, 0);
channelInfo.addListener(this);
// Add the note value tree as a child to the seaboard data value tree.
theSeaboardData.addChild(channelInfo, -1, 0);
}
void OwlNestSettings::handleIncomingMidiMessage(juce::MidiInput *source, const juce::MidiMessage &message){
lastMidiMessageTime = Time::currentTimeMillis();
bool hasChanged = false;
if(message.isController()){
int cc = message.getControllerNumber();
int value = message.getControllerValue();
midiArray[cc] = value;
hasChanged = true;
#ifdef DEBUG
std::cout << "rx cc " << cc << ": " << value << std::endl;
#endif // DEBUG
}else if(message.isSysEx() && message.getSysExDataSize() > 2){
const uint8 *data = message.getSysExData();
if(data[0] == MIDI_SYSEX_MANUFACTURER && data[1] == MIDI_SYSEX_DEVICE){
switch(data[2]){
case SYSEX_PRESET_NAME_COMMAND: {
handlePresetNameMessage(data[3], (const char*)&data[4], message.getSysExDataSize()-4);
// hasChanged = true;
break;
}
case SYSEX_PARAMETER_NAME_COMMAND: {
handleParameterNameMessage(data[3], (const char*)&data[4], message.getSysExDataSize()-4);
hasChanged = true;
break;
}
case SYSEX_DEVICE_STATS: {
handleDeviceStatsMessage((const char*)&data[3], message.getSysExDataSize()-3);
break;
}
case SYSEX_FIRMWARE_VERSION: {
handleFirmwareVersionMessage((const char*)&data[3], message.getSysExDataSize()-3);
break;
}
case SYSEX_DEVICE_ID: {
#if JUCE_MAC || JUCE_LINUX
int len = message.getSysExDataSize()-3;
uint8_t deviceId[len];
len = sysex_to_data((uint8_t*)(data+3), deviceId, len);
handleDeviceIdMessage(deviceId, len);
#endif
break;
}
case SYSEX_SELFTEST:{
handleSelfTestMessage(data[3]);
if(message.getSysExDataSize() > 4)
handleErrorMessage(data[4]);
break;
}
}
}
}
if(hasChanged)
theUpdateGui.setValue(!(bool)theUpdateGui.getValue());
}
void MidiManager::processMidiMessage(const juce::MidiMessage &midi_message, int sample_position) {
ScopedLock lock(*critical_section_);
if (midi_message.isNoteOn()) {
float velocity = (1.0 * midi_message.getVelocity()) / mopo::MIDI_SIZE;
synth_->noteOn(midi_message.getNoteNumber(), velocity, sample_position);
}
else if (midi_message.isNoteOff())
synth_->noteOff(midi_message.getNoteNumber(), sample_position);
else if (midi_message.isSustainPedalOn())
synth_->sustainOn();
else if (midi_message.isSustainPedalOff())
synth_->sustainOff();
else if (midi_message.isAllNotesOff())
synth_->allNotesOff();
else if (midi_message.isAftertouch()) {
mopo::mopo_float note = midi_message.getNoteNumber();
mopo::mopo_float value = (1.0 * midi_message.getAfterTouchValue()) / mopo::MIDI_SIZE;
synth_->setAftertouch(note, value);
}
else if (midi_message.isPitchWheel()) {
double percent = (1.0 * midi_message.getPitchWheelValue()) / PITCH_WHEEL_RESOLUTION;
double value = 2 * percent - 1.0;
synth_->setPitchWheel(value);
}
else if (midi_message.isController()) {
if (midi_message.getControllerNumber() == MOD_WHEEL_CONTROL_NUMBER) {
double percent = (1.0 * midi_message.getControllerValue()) / MOD_WHEEL_RESOLUTION;
synth_->setModWheel(percent);
}
midiInput(midi_message.getControllerNumber(), midi_message.getControllerValue());
}
}
