/* * Carla Plugin Host * Copyright (C) 2011-2022 Filipe Coelho * * 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 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. * * For a full copy of the GNU General Public License see the doc/GPL.txt file. */ #include "CarlaEngineGraph.hpp" #include "CarlaEngineInternal.hpp" #include "CarlaPlugin.hpp" #include "CarlaMathUtils.hpp" #include "CarlaScopeUtils.hpp" #include "CarlaMIDI.h" using water::jmax; using water::jmin; using water::AudioProcessor; using water::MidiBuffer; using water::String; using water::StringArray; #define MAX_GRAPH_AUDIO_IO 64U #define MAX_GRAPH_CV_IO 32U CARLA_BACKEND_START_NAMESPACE // ----------------------------------------------------------------------- // Fallback data static const PortNameToId kPortNameToIdFallback = { 0, 0, { '\0' }, { '\0' }, { '\0' } }; static /* */ PortNameToId kPortNameToIdFallbackNC = { 0, 0, { '\0' }, { '\0' }, { '\0' } }; // ----------------------------------------------------------------------- // External Graph stuff static inline uint getExternalGraphPortIdFromName(const char* const shortname) noexcept { if (std::strcmp(shortname, "AudioIn1") == 0 || std::strcmp(shortname, "audio-in1") == 0) return kExternalGraphCarlaPortAudioIn1; if (std::strcmp(shortname, "AudioIn2") == 0 || std::strcmp(shortname, "audio-in2") == 0) return kExternalGraphCarlaPortAudioIn2; if (std::strcmp(shortname, "AudioOut1") == 0 || std::strcmp(shortname, "audio-out1") == 0) return kExternalGraphCarlaPortAudioOut1; if (std::strcmp(shortname, "AudioOut2") == 0 || std::strcmp(shortname, "audio-out2") == 0) return kExternalGraphCarlaPortAudioOut2; if (std::strcmp(shortname, "MidiIn") == 0 || std::strcmp(shortname, "midi-in") == 0) return kExternalGraphCarlaPortMidiIn; if (std::strcmp(shortname, "MidiOut") == 0 || std::strcmp(shortname, "midi-out") == 0) return kExternalGraphCarlaPortMidiOut; carla_stderr("CarlaBackend::getExternalGraphPortIdFromName(%s) - invalid short name", shortname); return kExternalGraphCarlaPortNull; } static inline const char* getExternalGraphFullPortNameFromId(const /*RackGraphCarlaPortIds*/ uint portId) { switch (portId) { case kExternalGraphCarlaPortAudioIn1: return "Carla:AudioIn1"; case kExternalGraphCarlaPortAudioIn2: return "Carla:AudioIn2"; case kExternalGraphCarlaPortAudioOut1: return "Carla:AudioOut1"; case kExternalGraphCarlaPortAudioOut2: return "Carla:AudioOut2"; case kExternalGraphCarlaPortMidiIn: return "Carla:MidiIn"; case kExternalGraphCarlaPortMidiOut: return "Carla:MidiOut"; //case kExternalGraphCarlaPortNull: //case kExternalGraphCarlaPortMax: // break; } carla_stderr("CarlaBackend::getExternalGraphFullPortNameFromId(%i) - invalid port id", portId); return nullptr; } // ----------------------------------------------------------------------- ExternalGraphPorts::ExternalGraphPorts() noexcept : ins(), outs() {} const char* ExternalGraphPorts::getName(const bool isInput, const uint portId) const noexcept { for (LinkedList::Itenerator it = isInput ? ins.begin2() : outs.begin2(); it.valid(); it.next()) { const PortNameToId& portNameToId(it.getValue(kPortNameToIdFallback)); CARLA_SAFE_ASSERT_CONTINUE(portNameToId.group > 0); if (portNameToId.port == portId) return portNameToId.name; } return nullptr; } uint ExternalGraphPorts::getPortIdFromName(const bool isInput, const char name[], bool* const ok) const noexcept { for (LinkedList::Itenerator it = isInput ? ins.begin2() : outs.begin2(); it.valid(); it.next()) { const PortNameToId& portNameToId(it.getValue(kPortNameToIdFallback)); CARLA_SAFE_ASSERT_CONTINUE(portNameToId.group > 0); if (std::strncmp(portNameToId.name, name, STR_MAX) == 0) { if (ok != nullptr) *ok = true; return portNameToId.port; } } if (ok != nullptr) *ok = false; return 0; } uint ExternalGraphPorts::getPortIdFromIdentifier(const bool isInput, const char identifier[], bool* const ok) const noexcept { for (LinkedList::Itenerator it = isInput ? ins.begin2() : outs.begin2(); it.valid(); it.next()) { const PortNameToId& portNameToId(it.getValue(kPortNameToIdFallback)); CARLA_SAFE_ASSERT_CONTINUE(portNameToId.group > 0); if (std::strncmp(portNameToId.identifier, identifier, STR_MAX) == 0) { if (ok != nullptr) *ok = true; return portNameToId.port; } } if (ok != nullptr) *ok = false; return 0; } // ----------------------------------------------------------------------- ExternalGraph::ExternalGraph(CarlaEngine* const engine) noexcept : connections(), audioPorts(), midiPorts(), positions(), retCon(), kEngine(engine) { carla_zeroStruct(positions); } void ExternalGraph::clear() noexcept { connections.clear(); audioPorts.ins.clear(); audioPorts.outs.clear(); midiPorts.ins.clear(); midiPorts.outs.clear(); } bool ExternalGraph::connect(const bool sendHost, const bool sendOSC, const uint groupA, const uint portA, const uint groupB, const uint portB) noexcept { uint otherGroup, otherPort, carlaPort; if (groupA == kExternalGraphGroupCarla) { CARLA_SAFE_ASSERT_RETURN(groupB != kExternalGraphGroupCarla, false); carlaPort = portA; otherGroup = groupB; otherPort = portB; } else { CARLA_SAFE_ASSERT_RETURN(groupB == kExternalGraphGroupCarla, false); carlaPort = portB; otherGroup = groupA; otherPort = portA; } CARLA_SAFE_ASSERT_RETURN(carlaPort > kExternalGraphCarlaPortNull && carlaPort < kExternalGraphCarlaPortMax, false); CARLA_SAFE_ASSERT_RETURN(otherGroup > kExternalGraphGroupCarla && otherGroup < kExternalGraphGroupMax, false); bool makeConnection = false; switch (carlaPort) { case kExternalGraphCarlaPortAudioIn1: CARLA_SAFE_ASSERT_RETURN(otherGroup == kExternalGraphGroupAudioIn, false); makeConnection = kEngine->connectExternalGraphPort(kExternalGraphConnectionAudioIn1, otherPort, nullptr); break; case kExternalGraphCarlaPortAudioIn2: CARLA_SAFE_ASSERT_RETURN(otherGroup == kExternalGraphGroupAudioIn, false); makeConnection = kEngine->connectExternalGraphPort(kExternalGraphConnectionAudioIn2, otherPort, nullptr); break; case kExternalGraphCarlaPortAudioOut1: CARLA_SAFE_ASSERT_RETURN(otherGroup == kExternalGraphGroupAudioOut, false); makeConnection = kEngine->connectExternalGraphPort(kExternalGraphConnectionAudioOut1, otherPort, nullptr); break; case kExternalGraphCarlaPortAudioOut2: CARLA_SAFE_ASSERT_RETURN(otherGroup == kExternalGraphGroupAudioOut, false); makeConnection = kEngine->connectExternalGraphPort(kExternalGraphConnectionAudioOut2, otherPort, nullptr); break; case kExternalGraphCarlaPortMidiIn: CARLA_SAFE_ASSERT_RETURN(otherGroup == kExternalGraphGroupMidiIn, false); if (const char* const portName = midiPorts.getName(true, otherPort)) makeConnection = kEngine->connectExternalGraphPort(kExternalGraphConnectionMidiInput, 0, portName); break; case kExternalGraphCarlaPortMidiOut: CARLA_SAFE_ASSERT_RETURN(otherGroup == kExternalGraphGroupMidiOut, false); if (const char* const portName = midiPorts.getName(false, otherPort)) makeConnection = kEngine->connectExternalGraphPort(kExternalGraphConnectionMidiOutput, 0, portName); break; } if (! makeConnection) { kEngine->setLastError("Invalid rack connection"); return false; } ConnectionToId connectionToId; connectionToId.setData(++connections.lastId, groupA, portA, groupB, portB); char strBuf[STR_MAX+1]; strBuf[STR_MAX] = '\0'; std::snprintf(strBuf, STR_MAX, "%u:%u:%u:%u", groupA, portA, groupB, portB); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_ADDED, connectionToId.id, 0, 0, 0, 0.0f, strBuf); connections.list.append(connectionToId); return true; } bool ExternalGraph::disconnect(const bool sendHost, const bool sendOSC, const uint connectionId) noexcept { CARLA_SAFE_ASSERT_RETURN(connections.list.count() > 0, false); for (LinkedList::Itenerator it=connections.list.begin2(); it.valid(); it.next()) { static const ConnectionToId fallback = { 0, 0, 0, 0, 0 }; const ConnectionToId& connectionToId(it.getValue(fallback)); CARLA_SAFE_ASSERT_CONTINUE(connectionToId.id > 0); if (connectionToId.id != connectionId) continue; uint otherGroup, otherPort, carlaPort; if (connectionToId.groupA == kExternalGraphGroupCarla) { CARLA_SAFE_ASSERT_RETURN(connectionToId.groupB != kExternalGraphGroupCarla, false); carlaPort = connectionToId.portA; otherGroup = connectionToId.groupB; otherPort = connectionToId.portB; } else { CARLA_SAFE_ASSERT_RETURN(connectionToId.groupB == kExternalGraphGroupCarla, false); carlaPort = connectionToId.portB; otherGroup = connectionToId.groupA; otherPort = connectionToId.portA; } CARLA_SAFE_ASSERT_RETURN(carlaPort > kExternalGraphCarlaPortNull && carlaPort < kExternalGraphCarlaPortMax, false); CARLA_SAFE_ASSERT_RETURN(otherGroup > kExternalGraphGroupCarla && otherGroup < kExternalGraphGroupMax, false); bool makeDisconnection = false; switch (carlaPort) { case kExternalGraphCarlaPortAudioIn1: makeDisconnection = kEngine->disconnectExternalGraphPort(kExternalGraphConnectionAudioIn1, otherPort, nullptr); break; case kExternalGraphCarlaPortAudioIn2: makeDisconnection = kEngine->disconnectExternalGraphPort(kExternalGraphConnectionAudioIn2, otherPort, nullptr); break; case kExternalGraphCarlaPortAudioOut1: makeDisconnection = kEngine->disconnectExternalGraphPort(kExternalGraphConnectionAudioOut1, otherPort, nullptr); break; case kExternalGraphCarlaPortAudioOut2: makeDisconnection = kEngine->disconnectExternalGraphPort(kExternalGraphConnectionAudioOut2, otherPort, nullptr); break; case kExternalGraphCarlaPortMidiIn: if (const char* const portName = midiPorts.getName(true, otherPort)) makeDisconnection = kEngine->disconnectExternalGraphPort(kExternalGraphConnectionMidiInput, 0, portName); break; case kExternalGraphCarlaPortMidiOut: if (const char* const portName = midiPorts.getName(false, otherPort)) makeDisconnection = kEngine->disconnectExternalGraphPort(kExternalGraphConnectionMidiOutput, 0, portName); break; } if (! makeDisconnection) { kEngine->setLastError("Invalid rack connection"); return false; } kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_REMOVED, connectionToId.id, 0, 0, 0, 0.0f, nullptr); connections.list.remove(it); return true; } kEngine->setLastError("Failed to find connection"); return false; } void ExternalGraph::setGroupPos(const bool sendHost, const bool sendOSC, const uint groupId, const int x1, const int y1, const int x2, const int y2) { CARLA_SAFE_ASSERT_UINT_RETURN(groupId >= kExternalGraphGroupCarla && groupId < kExternalGraphGroupMax, groupId,); carla_debug("ExternalGraph::setGroupPos(%s, %s, %u, %i, %i, %i, %i)", bool2str(sendHost), bool2str(sendOSC), groupId, x1, y1, x2, y2); const PatchbayPosition ppos = { true, x1, y1, x2, y2 }; positions[groupId] = ppos; kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_POSITION_CHANGED, groupId, x1, y1, x2, static_cast(y2), nullptr); } void ExternalGraph::refresh(const bool sendHost, const bool sendOSC, const char* const deviceName) { CARLA_SAFE_ASSERT_RETURN(deviceName != nullptr,); const bool isRack = kEngine->getOptions().processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK; // Main { kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_ADDED, kExternalGraphGroupCarla, PATCHBAY_ICON_CARLA, MAIN_CARLA_PLUGIN_ID, 0, 0.0f, kEngine->getName()); if (isRack) { kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupCarla, kExternalGraphCarlaPortAudioIn1, PATCHBAY_PORT_TYPE_AUDIO|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, "audio-in1"); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupCarla, kExternalGraphCarlaPortAudioIn2, PATCHBAY_PORT_TYPE_AUDIO|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, "audio-in2"); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupCarla, kExternalGraphCarlaPortAudioOut1, PATCHBAY_PORT_TYPE_AUDIO, 0, 0.0f, "audio-out1"); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupCarla, kExternalGraphCarlaPortAudioOut2, PATCHBAY_PORT_TYPE_AUDIO, 0, 0.0f, "audio-out2"); } kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupCarla, kExternalGraphCarlaPortMidiIn, PATCHBAY_PORT_TYPE_MIDI|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, "midi-in"); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupCarla, kExternalGraphCarlaPortMidiOut, PATCHBAY_PORT_TYPE_MIDI, 0, 0.0f, "midi-out"); } char strBuf[STR_MAX+1]; strBuf[STR_MAX] = '\0'; if (isRack) { // Audio In if (deviceName[0] != '\0') std::snprintf(strBuf, STR_MAX, "Capture (%s)", deviceName); else std::strncpy(strBuf, "Capture", STR_MAX); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_ADDED, kExternalGraphGroupAudioIn, PATCHBAY_ICON_HARDWARE, -1, 0, 0.0f, strBuf); const CarlaString groupNameIn(strBuf); for (LinkedList::Itenerator it = audioPorts.ins.begin2(); it.valid(); it.next()) { PortNameToId& portNameToId(it.getValue(kPortNameToIdFallbackNC)); CARLA_SAFE_ASSERT_CONTINUE(portNameToId.group > 0); portNameToId.setFullName(groupNameIn + portNameToId.name); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupAudioIn, portNameToId.port, PATCHBAY_PORT_TYPE_AUDIO, 0, 0.0f, portNameToId.name); } // Audio Out if (deviceName[0] != '\0') std::snprintf(strBuf, STR_MAX, "Playback (%s)", deviceName); else std::strncpy(strBuf, "Playback", STR_MAX); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_ADDED, kExternalGraphGroupAudioOut, PATCHBAY_ICON_HARDWARE, -1, 0, 0.0f, strBuf); const CarlaString groupNameOut(strBuf); for (LinkedList::Itenerator it = audioPorts.outs.begin2(); it.valid(); it.next()) { PortNameToId& portNameToId(it.getValue(kPortNameToIdFallbackNC)); CARLA_SAFE_ASSERT_CONTINUE(portNameToId.group > 0); portNameToId.setFullName(groupNameOut + portNameToId.name); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupAudioOut, portNameToId.port, PATCHBAY_PORT_TYPE_AUDIO|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, portNameToId.name); } } // MIDI In { kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_ADDED, kExternalGraphGroupMidiIn, PATCHBAY_ICON_HARDWARE, -1, 0, 0.0f, "Readable MIDI ports"); const CarlaString groupNamePlus("Readable MIDI ports:"); for (LinkedList::Itenerator it = midiPorts.ins.begin2(); it.valid(); it.next()) { PortNameToId& portNameToId(it.getValue(kPortNameToIdFallbackNC)); CARLA_SAFE_ASSERT_CONTINUE(portNameToId.group > 0); portNameToId.setFullName(groupNamePlus + portNameToId.name); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupMidiIn, portNameToId.port, PATCHBAY_PORT_TYPE_MIDI, 0, 0.0f, portNameToId.name); } } // MIDI Out { kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_ADDED, kExternalGraphGroupMidiOut, PATCHBAY_ICON_HARDWARE, -1, 0, 0.0f, "Writable MIDI ports"); const CarlaString groupNamePlus("Writable MIDI ports:"); for (LinkedList::Itenerator it = midiPorts.outs.begin2(); it.valid(); it.next()) { PortNameToId& portNameToId(it.getValue(kPortNameToIdFallbackNC)); CARLA_SAFE_ASSERT_CONTINUE(portNameToId.group > 0); portNameToId.setFullName(groupNamePlus + portNameToId.name); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, kExternalGraphGroupMidiOut, portNameToId.port, PATCHBAY_PORT_TYPE_MIDI|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, portNameToId.name); } } // positions for (uint i=kExternalGraphGroupCarla; icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_POSITION_CHANGED, i, eppos.x1, eppos.y1, eppos.x2, static_cast(eppos.y2), nullptr); } } const char* const* ExternalGraph::getConnections() const noexcept { if (connections.list.count() == 0) return nullptr; CarlaStringList connList; char strBuf[STR_MAX+1]; strBuf[STR_MAX] = '\0'; for (LinkedList::Itenerator it=connections.list.begin2(); it.valid(); it.next()) { static const ConnectionToId fallback = { 0, 0, 0, 0, 0 }; const ConnectionToId& connectionToId(it.getValue(fallback)); CARLA_SAFE_ASSERT_CONTINUE(connectionToId.id > 0); uint otherGroup, otherPort, carlaPort; if (connectionToId.groupA == kExternalGraphGroupCarla) { CARLA_SAFE_ASSERT_CONTINUE(connectionToId.groupB != kExternalGraphGroupCarla); carlaPort = connectionToId.portA; otherGroup = connectionToId.groupB; otherPort = connectionToId.portB; } else { CARLA_SAFE_ASSERT_CONTINUE(connectionToId.groupB == kExternalGraphGroupCarla); carlaPort = connectionToId.portB; otherGroup = connectionToId.groupA; otherPort = connectionToId.portA; } CARLA_SAFE_ASSERT_CONTINUE(carlaPort > kExternalGraphCarlaPortNull && carlaPort < kExternalGraphCarlaPortMax); CARLA_SAFE_ASSERT_CONTINUE(otherGroup > kExternalGraphGroupCarla && otherGroup < kExternalGraphGroupMax); switch (carlaPort) { case kExternalGraphCarlaPortAudioIn1: case kExternalGraphCarlaPortAudioIn2: std::snprintf(strBuf, STR_MAX, "AudioIn:%s", audioPorts.getName(true, otherPort)); connList.append(strBuf); connList.append(getExternalGraphFullPortNameFromId(carlaPort)); break; case kExternalGraphCarlaPortAudioOut1: case kExternalGraphCarlaPortAudioOut2: std::snprintf(strBuf, STR_MAX, "AudioOut:%s", audioPorts.getName(false, otherPort)); connList.append(getExternalGraphFullPortNameFromId(carlaPort)); connList.append(strBuf); break; case kExternalGraphCarlaPortMidiIn: std::snprintf(strBuf, STR_MAX, "MidiIn:%s", midiPorts.getName(true, otherPort)); connList.append(strBuf); connList.append(getExternalGraphFullPortNameFromId(carlaPort)); break; case kExternalGraphCarlaPortMidiOut: std::snprintf(strBuf, STR_MAX, "MidiOut:%s", midiPorts.getName(false, otherPort)); connList.append(getExternalGraphFullPortNameFromId(carlaPort)); connList.append(strBuf); break; } } if (connList.count() == 0) return nullptr; retCon = connList.toCharStringListPtr(); return retCon; } bool ExternalGraph::getGroupFromName(const char* groupName, uint& groupId) const noexcept { CARLA_SAFE_ASSERT_RETURN(groupName != nullptr && groupName[0] != '\0', false); if (std::strcmp(groupName, "Carla") == 0) { groupId = kExternalGraphGroupCarla; return true; } if (std::strcmp(groupName, "AudioIn") == 0) { groupId = kExternalGraphGroupAudioIn; return true; } if (std::strcmp(groupName, "AudioOut") == 0) { groupId = kExternalGraphGroupAudioOut; return true; } if (std::strcmp(groupName, "MidiIn") == 0) { groupId = kExternalGraphGroupMidiIn; return true; } if (std::strcmp(groupName, "MidiOut") == 0) { groupId = kExternalGraphGroupMidiOut; return true; } return false; } bool ExternalGraph::getGroupAndPortIdFromFullName(const char* const fullPortName, uint& groupId, uint& portId) const noexcept { CARLA_SAFE_ASSERT_RETURN(fullPortName != nullptr && fullPortName[0] != '\0', false); if (std::strncmp(fullPortName, "Carla:", 6) == 0) { groupId = kExternalGraphGroupCarla; portId = getExternalGraphPortIdFromName(fullPortName+6); if (portId > kExternalGraphCarlaPortNull && portId < kExternalGraphCarlaPortMax) return true; } else if (std::strncmp(fullPortName, "AudioIn:", 8) == 0) { groupId = kExternalGraphGroupAudioIn; if (const char* const portName = fullPortName+8) { bool ok; portId = audioPorts.getPortIdFromName(true, portName, &ok); return ok; } } else if (std::strncmp(fullPortName, "AudioOut:", 9) == 0) { groupId = kExternalGraphGroupAudioOut; if (const char* const portName = fullPortName+9) { bool ok; portId = audioPorts.getPortIdFromName(false, portName, &ok); return ok; } } else if (std::strncmp(fullPortName, "MidiIn:", 7) == 0) { groupId = kExternalGraphGroupMidiIn; if (const char* const portName = fullPortName+7) { bool ok; portId = midiPorts.getPortIdFromName(true, portName, &ok); return ok; } } else if (std::strncmp(fullPortName, "MidiOut:", 8) == 0) { groupId = kExternalGraphGroupMidiOut; if (const char* const portName = fullPortName+8) { bool ok; portId = midiPorts.getPortIdFromName(false, portName, &ok); return ok; } } return false; } // ----------------------------------------------------------------------- // RackGraph Buffers RackGraph::Buffers::Buffers() noexcept : mutex(), connectedIn1(), connectedIn2(), connectedOut1(), connectedOut2(), #ifdef CARLA_PROPER_CPP11_SUPPORT inBuf{nullptr, nullptr}, inBufTmp{nullptr, nullptr}, outBuf{nullptr, nullptr}, #endif unusedBuf(nullptr) { #ifndef CARLA_PROPER_CPP11_SUPPORT inBuf[0] = inBuf[1] = nullptr; inBufTmp[0] = inBufTmp[1] = nullptr; outBuf[0] = outBuf[1] = nullptr; #endif } RackGraph::Buffers::~Buffers() noexcept { const CarlaRecursiveMutexLocker cml(mutex); if (inBuf[0] != nullptr) { delete[] inBuf[0]; inBuf[0] = nullptr; } if (inBuf[1] != nullptr) { delete[] inBuf[1]; inBuf[1] = nullptr; } if (inBufTmp[0] != nullptr) { delete[] inBufTmp[0]; inBufTmp[0] = nullptr; } if (inBufTmp[1] != nullptr) { delete[] inBufTmp[1]; inBufTmp[1] = nullptr; } if (outBuf[0] != nullptr) { delete[] outBuf[0]; outBuf[0] = nullptr; } if (outBuf[1] != nullptr) { delete[] outBuf[1]; outBuf[1] = nullptr; } if (unusedBuf != nullptr) { delete[] unusedBuf; unusedBuf = nullptr; } connectedIn1.clear(); connectedIn2.clear(); connectedOut1.clear(); connectedOut2.clear(); } void RackGraph::Buffers::setBufferSize(const uint32_t bufferSize, const bool createBuffers) noexcept { const CarlaRecursiveMutexLocker cml(mutex); if (inBuf[0] != nullptr) { delete[] inBuf[0]; inBuf[0] = nullptr; } if (inBuf[1] != nullptr) { delete[] inBuf[1]; inBuf[1] = nullptr; } if (inBufTmp[0] != nullptr) { delete[] inBufTmp[0]; inBufTmp[0] = nullptr; } if (inBufTmp[1] != nullptr) { delete[] inBufTmp[1]; inBufTmp[1] = nullptr; } if (outBuf[0] != nullptr) { delete[] outBuf[0]; outBuf[0] = nullptr; } if (outBuf[1] != nullptr) { delete[] outBuf[1]; outBuf[1] = nullptr; } if (unusedBuf != nullptr) { delete[] unusedBuf; unusedBuf = nullptr; } CARLA_SAFE_ASSERT_RETURN(bufferSize > 0,); try { inBufTmp[0] = new float[bufferSize]; inBufTmp[1] = new float[bufferSize]; unusedBuf = new float[bufferSize]; if (createBuffers) { inBuf[0] = new float[bufferSize]; inBuf[1] = new float[bufferSize]; outBuf[0] = new float[bufferSize]; outBuf[1] = new float[bufferSize]; } } catch(...) { if (inBufTmp[0] != nullptr) { delete[] inBufTmp[0]; inBufTmp[0] = nullptr; } if (inBufTmp[1] != nullptr) { delete[] inBufTmp[1]; inBufTmp[1] = nullptr; } if (unusedBuf != nullptr) { delete[] unusedBuf; unusedBuf = nullptr; } if (createBuffers) { if (inBuf[0] != nullptr) { delete[] inBuf[0]; inBuf[0] = nullptr; } if (inBuf[1] != nullptr) { delete[] inBuf[1]; inBuf[1] = nullptr; } if (outBuf[0] != nullptr) { delete[] outBuf[0]; outBuf[0] = nullptr; } if (outBuf[1] != nullptr) { delete[] outBuf[1]; outBuf[1] = nullptr; } } return; } carla_zeroFloats(inBufTmp[0], bufferSize); carla_zeroFloats(inBufTmp[1], bufferSize); if (createBuffers) { carla_zeroFloats(inBuf[0], bufferSize); carla_zeroFloats(inBuf[1], bufferSize); carla_zeroFloats(outBuf[0], bufferSize); carla_zeroFloats(outBuf[1], bufferSize); } } // ----------------------------------------------------------------------- // RackGraph RackGraph::RackGraph(CarlaEngine* const engine, const uint32_t ins, const uint32_t outs) noexcept : extGraph(engine), inputs(ins), outputs(outs), isOffline(false), audioBuffers(), kEngine(engine) { setBufferSize(engine->getBufferSize()); } RackGraph::~RackGraph() noexcept { extGraph.clear(); } void RackGraph::setBufferSize(const uint32_t bufferSize) noexcept { audioBuffers.setBufferSize(bufferSize, (inputs > 0 || outputs > 0)); } void RackGraph::setOffline(const bool offline) noexcept { isOffline = offline; } bool RackGraph::connect(const uint groupA, const uint portA, const uint groupB, const uint portB) noexcept { return extGraph.connect(true, true, groupA, portA, groupB, portB); } bool RackGraph::disconnect(const uint connectionId) noexcept { return extGraph.disconnect(true, true, connectionId); } void RackGraph::refresh(const bool sendHost, const bool sendOSC, const bool, const char* const deviceName) { extGraph.refresh(sendHost, sendOSC, deviceName); char strBuf[STR_MAX+1]; strBuf[STR_MAX] = '\0'; // Connections const CarlaRecursiveMutexLocker cml(audioBuffers.mutex); for (LinkedList::Itenerator it = audioBuffers.connectedIn1.begin2(); it.valid(); it.next()) { const uint& portId(it.getValue(0)); CARLA_SAFE_ASSERT_CONTINUE(portId > 0); CARLA_SAFE_ASSERT_CONTINUE(portId <= extGraph.audioPorts.ins.count()); ConnectionToId connectionToId; connectionToId.setData(++(extGraph.connections.lastId), kExternalGraphGroupAudioIn, portId, kExternalGraphGroupCarla, kExternalGraphCarlaPortAudioIn1); std::snprintf(strBuf, STR_MAX, "%i:%i:%i:%i", connectionToId.groupA, connectionToId.portA, connectionToId.groupB, connectionToId.portB); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_ADDED, connectionToId.id, 0, 0, 0, 0.0f, strBuf); extGraph.connections.list.append(connectionToId); } for (LinkedList::Itenerator it = audioBuffers.connectedIn2.begin2(); it.valid(); it.next()) { const uint& portId(it.getValue(0)); CARLA_SAFE_ASSERT_CONTINUE(portId > 0); CARLA_SAFE_ASSERT_CONTINUE(portId <= extGraph.audioPorts.ins.count()); ConnectionToId connectionToId; connectionToId.setData(++(extGraph.connections.lastId), kExternalGraphGroupAudioIn, portId, kExternalGraphGroupCarla, kExternalGraphCarlaPortAudioIn2); std::snprintf(strBuf, STR_MAX, "%i:%i:%i:%i", connectionToId.groupA, connectionToId.portA, connectionToId.groupB, connectionToId.portB); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_ADDED, connectionToId.id, 0, 0, 0, 0.0f, strBuf); extGraph.connections.list.append(connectionToId); } for (LinkedList::Itenerator it = audioBuffers.connectedOut1.begin2(); it.valid(); it.next()) { const uint& portId(it.getValue(0)); CARLA_SAFE_ASSERT_CONTINUE(portId > 0); CARLA_SAFE_ASSERT_CONTINUE(portId <= extGraph.audioPorts.outs.count()); ConnectionToId connectionToId; connectionToId.setData(++(extGraph.connections.lastId), kExternalGraphGroupCarla, kExternalGraphCarlaPortAudioOut1, kExternalGraphGroupAudioOut, portId); std::snprintf(strBuf, STR_MAX, "%i:%i:%i:%i", connectionToId.groupA, connectionToId.portA, connectionToId.groupB, connectionToId.portB); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_ADDED, connectionToId.id, 0, 0, 0, 0.0f, strBuf); extGraph.connections.list.append(connectionToId); } for (LinkedList::Itenerator it = audioBuffers.connectedOut2.begin2(); it.valid(); it.next()) { const uint& portId(it.getValue(0)); CARLA_SAFE_ASSERT_CONTINUE(portId > 0); CARLA_SAFE_ASSERT_CONTINUE(portId <= extGraph.audioPorts.outs.count()); ConnectionToId connectionToId; connectionToId.setData(++(extGraph.connections.lastId), kExternalGraphGroupCarla, kExternalGraphCarlaPortAudioOut2, kExternalGraphGroupAudioOut, portId); std::snprintf(strBuf, STR_MAX, "%i:%i:%i:%i", connectionToId.groupA, connectionToId.portA, connectionToId.groupB, connectionToId.portB); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_ADDED, connectionToId.id, 0, 0, 0, 0.0f, strBuf); extGraph.connections.list.append(connectionToId); } } const char* const* RackGraph::getConnections() const noexcept { return extGraph.getConnections(); } bool RackGraph::getGroupAndPortIdFromFullName(const char* const fullPortName, uint& groupId, uint& portId) const noexcept { return extGraph.getGroupAndPortIdFromFullName(fullPortName, groupId, portId); } void RackGraph::process(CarlaEngine::ProtectedData* const data, const float* inBufReal[2], float* outBufReal[2], const uint32_t frames) { CARLA_SAFE_ASSERT_RETURN(data != nullptr,); CARLA_SAFE_ASSERT_RETURN(data->events.in != nullptr,); CARLA_SAFE_ASSERT_RETURN(data->events.out != nullptr,); // safe copy float* const dummyBuf = audioBuffers.unusedBuf; float* const inBuf0 = audioBuffers.inBufTmp[0]; float* const inBuf1 = audioBuffers.inBufTmp[1]; // initialize audio inputs carla_copyFloats(inBuf0, inBufReal[0], frames); carla_copyFloats(inBuf1, inBufReal[1], frames); // initialize audio outputs (zero) carla_zeroFloats(outBufReal[0], frames); carla_zeroFloats(outBufReal[1], frames); // initialize event outputs (zero) carla_zeroStructs(data->events.out, kMaxEngineEventInternalCount); const float* inBuf[MAX_GRAPH_AUDIO_IO]; float* outBuf[MAX_GRAPH_AUDIO_IO]; float* cvBuf[MAX_GRAPH_CV_IO]; uint32_t oldAudioInCount = 0; uint32_t oldAudioOutCount = 0; uint32_t oldMidiOutCount = 0; bool processed = false; // process plugins for (uint i=0; i < data->curPluginCount; ++i) { const CarlaPluginPtr plugin = data->plugins[i].plugin; if (plugin.get() == nullptr || ! plugin->isEnabled() || ! plugin->tryLock(isOffline)) continue; if (processed) { // initialize audio inputs (from previous outputs) carla_copyFloats(inBuf0, outBufReal[0], frames); carla_copyFloats(inBuf1, outBufReal[1], frames); // initialize audio outputs (zero) carla_zeroFloats(outBufReal[0], frames); carla_zeroFloats(outBufReal[1], frames); // if plugin has no midi out, add previous events if (oldMidiOutCount == 0 && data->events.in[0].type != kEngineEventTypeNull) { if (data->events.out[0].type != kEngineEventTypeNull) { // TODO: carefully add to input, sorted events //carla_stderr("TODO midi event mixing here %s", plugin->getName()); } // else nothing needed } else { // initialize event inputs from previous outputs carla_copyStructs(data->events.in, data->events.out, kMaxEngineEventInternalCount); // initialize event outputs (zero) carla_zeroStructs(data->events.out, kMaxEngineEventInternalCount); } } oldAudioInCount = plugin->getAudioInCount(); oldAudioOutCount = plugin->getAudioOutCount(); oldMidiOutCount = plugin->getMidiOutCount(); const uint32_t numInBufs = std::max(oldAudioInCount, 2U); const uint32_t numOutBufs = std::max(oldAudioOutCount, 2U); const uint32_t numCvBufs = std::max(plugin->getCVInCount(), plugin->getCVOutCount()); CARLA_SAFE_ASSERT_RETURN(numInBufs <= MAX_GRAPH_AUDIO_IO, plugin->unlock()); CARLA_SAFE_ASSERT_RETURN(numOutBufs <= MAX_GRAPH_AUDIO_IO, plugin->unlock()); CARLA_SAFE_ASSERT_RETURN(numCvBufs <= MAX_GRAPH_CV_IO, plugin->unlock()); inBuf[0] = inBuf0; inBuf[1] = inBuf1; outBuf[0] = outBufReal[0]; outBuf[1] = outBufReal[1]; for (uint32_t j=0; j 2 || numOutBufs > 2 || numCvBufs != 0) { carla_zeroFloats(dummyBuf, frames); for (uint32_t j=2; jinitBuffers(); plugin->process(inBuf, outBuf, cvBuf, cvBuf, frames); plugin->unlock(); // if plugin has no audio inputs, add input buffer if (oldAudioInCount == 0) { carla_addFloats(outBufReal[0], inBuf0, frames); carla_addFloats(outBufReal[1], inBuf1, frames); } // if plugin only has 1 output, copy it to the 2nd if (oldAudioOutCount == 1) { carla_copyFloats(outBufReal[1], outBufReal[0], frames); } // set peaks { EnginePluginData& pluginData(data->plugins[i]); if (oldAudioInCount > 0) { pluginData.peaks[0] = carla_findMaxNormalizedFloat(inBuf0, frames); pluginData.peaks[1] = carla_findMaxNormalizedFloat(inBuf1, frames); } else { pluginData.peaks[0] = 0.0f; pluginData.peaks[1] = 0.0f; } if (oldAudioOutCount > 0) { pluginData.peaks[2] = carla_findMaxNormalizedFloat(outBufReal[0], frames); pluginData.peaks[3] = carla_findMaxNormalizedFloat(outBufReal[1], frames); } else { pluginData.peaks[2] = 0.0f; pluginData.peaks[3] = 0.0f; } } processed = true; } } void RackGraph::processHelper(CarlaEngine::ProtectedData* const data, const float* const* const inBuf, float* const* const outBuf, const uint32_t frames) { CARLA_SAFE_ASSERT_RETURN(audioBuffers.outBuf[1] != nullptr,); const CarlaRecursiveMutexLocker _cml(audioBuffers.mutex); if (inBuf != nullptr && inputs > 0) { bool noConnections = true; // connect input buffers for (LinkedList::Itenerator it = audioBuffers.connectedIn1.begin2(); it.valid(); it.next()) { const uint& port(it.getValue(0)); CARLA_SAFE_ASSERT_CONTINUE(port > 0); CARLA_SAFE_ASSERT_CONTINUE(port <= inputs); if (noConnections) { carla_copyFloats(audioBuffers.inBuf[0], inBuf[port], frames); noConnections = false; } else { carla_addFloats(audioBuffers.inBuf[0], inBuf[port], frames); } } if (noConnections) carla_zeroFloats(audioBuffers.inBuf[0], frames); noConnections = true; for (LinkedList::Itenerator it = audioBuffers.connectedIn2.begin2(); it.valid(); it.next()) { const uint& port(it.getValue(0)); CARLA_SAFE_ASSERT_CONTINUE(port > 0); CARLA_SAFE_ASSERT_CONTINUE(port <= inputs); if (noConnections) { carla_copyFloats(audioBuffers.inBuf[1], inBuf[port-1], frames); noConnections = false; } else { carla_addFloats(audioBuffers.inBuf[1], inBuf[port-1], frames); } } if (noConnections) carla_zeroFloats(audioBuffers.inBuf[1], frames); } else { carla_zeroFloats(audioBuffers.inBuf[0], frames); carla_zeroFloats(audioBuffers.inBuf[1], frames); } carla_zeroFloats(audioBuffers.outBuf[0], frames); carla_zeroFloats(audioBuffers.outBuf[1], frames); // process process(data, const_cast(audioBuffers.inBuf), audioBuffers.outBuf, frames); // connect output buffers if (audioBuffers.connectedOut1.count() != 0) { for (LinkedList::Itenerator it = audioBuffers.connectedOut1.begin2(); it.valid(); it.next()) { const uint& port(it.getValue(0)); CARLA_SAFE_ASSERT_CONTINUE(port > 0); CARLA_SAFE_ASSERT_CONTINUE(port <= outputs); carla_addFloats(outBuf[port-1], audioBuffers.outBuf[0], frames); } } if (audioBuffers.connectedOut2.count() != 0) { for (LinkedList::Itenerator it = audioBuffers.connectedOut2.begin2(); it.valid(); it.next()) { const uint& port(it.getValue(0)); CARLA_SAFE_ASSERT_CONTINUE(port > 0); CARLA_SAFE_ASSERT_CONTINUE(port <= outputs); carla_addFloats(outBuf[port-1], audioBuffers.outBuf[1], frames); } } } // ----------------------------------------------------------------------- // Patchbay Graph stuff static const uint32_t kMaxPortsPerPlugin = 255; static const uint32_t kAudioInputPortOffset = kMaxPortsPerPlugin*1; static const uint32_t kAudioOutputPortOffset = kMaxPortsPerPlugin*2; static const uint32_t kCVInputPortOffset = kMaxPortsPerPlugin*3; static const uint32_t kCVOutputPortOffset = kMaxPortsPerPlugin*4; static const uint32_t kMidiInputPortOffset = kMaxPortsPerPlugin*5; static const uint32_t kMidiOutputPortOffset = kMaxPortsPerPlugin*6; static const uint32_t kMaxPortOffset = kMaxPortsPerPlugin*7; static inline bool adjustPatchbayPortIdForWater(AudioProcessor::ChannelType& channelType, uint& portId) { CARLA_SAFE_ASSERT_RETURN(portId >= kAudioInputPortOffset, false); CARLA_SAFE_ASSERT_RETURN(portId < kMaxPortOffset, false); if (portId >= kMidiOutputPortOffset) { portId -= kMidiOutputPortOffset; channelType = AudioProcessor::ChannelTypeMIDI; return true; } if (portId >= kMidiInputPortOffset) { portId -= kMidiInputPortOffset; channelType = AudioProcessor::ChannelTypeMIDI; return true; } if (portId >= kCVOutputPortOffset) { portId -= kCVOutputPortOffset; channelType = AudioProcessor::ChannelTypeCV; return true; } if (portId >= kCVInputPortOffset) { portId -= kCVInputPortOffset; channelType = AudioProcessor::ChannelTypeCV; return true; } if (portId >= kAudioOutputPortOffset) { portId -= kAudioOutputPortOffset; channelType = AudioProcessor::ChannelTypeAudio; return true; } if (portId >= kAudioInputPortOffset) { portId -= kAudioInputPortOffset; channelType = AudioProcessor::ChannelTypeAudio; return true; } return false; } static inline const String getProcessorFullPortName(AudioProcessor* const proc, const uint32_t portId) { CARLA_SAFE_ASSERT_RETURN(proc != nullptr, String()); CARLA_SAFE_ASSERT_RETURN(portId >= kAudioInputPortOffset, String()); CARLA_SAFE_ASSERT_RETURN(portId < kMaxPortOffset, String()); String fullPortName(proc->getName()); /**/ if (portId >= kMidiOutputPortOffset) { CARLA_SAFE_ASSERT_RETURN(proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeMIDI) > 0, String()); fullPortName += ":" + proc->getOutputChannelName(AudioProcessor::ChannelTypeMIDI, portId-kMidiOutputPortOffset); } else if (portId >= kMidiInputPortOffset) { CARLA_SAFE_ASSERT_RETURN(proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeMIDI) > 0, String()); fullPortName += ":" + proc->getInputChannelName(AudioProcessor::ChannelTypeMIDI, portId-kMidiInputPortOffset); } else if (portId >= kCVOutputPortOffset) { CARLA_SAFE_ASSERT_RETURN(proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeCV) > 0, String()); fullPortName += ":" + proc->getOutputChannelName(AudioProcessor::ChannelTypeCV, portId-kCVOutputPortOffset); } else if (portId >= kCVInputPortOffset) { CARLA_SAFE_ASSERT_RETURN(proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeCV) > 0, String()); fullPortName += ":" + proc->getInputChannelName(AudioProcessor::ChannelTypeCV, portId-kCVInputPortOffset); } else if (portId >= kAudioOutputPortOffset) { CARLA_SAFE_ASSERT_RETURN(proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeAudio) > 0, String()); fullPortName += ":" + proc->getOutputChannelName(AudioProcessor::ChannelTypeAudio, portId-kAudioOutputPortOffset); } else if (portId >= kAudioInputPortOffset) { CARLA_SAFE_ASSERT_RETURN(proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeAudio) > 0, String()); fullPortName += ":" + proc->getInputChannelName(AudioProcessor::ChannelTypeAudio, portId-kAudioInputPortOffset); } else { return String(); } return fullPortName; } static inline void addNodeToPatchbay(const bool sendHost, const bool sendOSC, CarlaEngine* const engine, AudioProcessorGraph::Node* const node, const int pluginId, const AudioProcessor* const proc) { CARLA_SAFE_ASSERT_RETURN(engine != nullptr,); CARLA_SAFE_ASSERT_RETURN(node != nullptr,); CARLA_SAFE_ASSERT_RETURN(proc != nullptr,); const uint groupId = node->nodeId; engine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_ADDED, groupId, pluginId >= 0 ? PATCHBAY_ICON_PLUGIN : PATCHBAY_ICON_HARDWARE, pluginId, 0, 0.0f, proc->getName().toRawUTF8()); for (uint i=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeAudio); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, groupId, static_cast(kAudioInputPortOffset+i), PATCHBAY_PORT_TYPE_AUDIO|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, proc->getInputChannelName(AudioProcessor::ChannelTypeAudio, i).toRawUTF8()); } for (uint i=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeAudio); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, groupId, static_cast(kAudioOutputPortOffset+i), PATCHBAY_PORT_TYPE_AUDIO, 0, 0.0f, proc->getOutputChannelName(AudioProcessor::ChannelTypeAudio, i).toRawUTF8()); } for (uint i=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeCV); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, groupId, static_cast(kCVInputPortOffset+i), PATCHBAY_PORT_TYPE_CV|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, proc->getInputChannelName(AudioProcessor::ChannelTypeCV, i).toRawUTF8()); } for (uint i=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeCV); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, groupId, static_cast(kCVOutputPortOffset+i), PATCHBAY_PORT_TYPE_CV, 0, 0.0f, proc->getOutputChannelName(AudioProcessor::ChannelTypeCV, i).toRawUTF8()); } for (uint i=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeMIDI); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, groupId, static_cast(kMidiInputPortOffset+i), PATCHBAY_PORT_TYPE_MIDI|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, proc->getInputChannelName(AudioProcessor::ChannelTypeMIDI, i).toRawUTF8()); } for (uint i=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeMIDI); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, groupId, static_cast(kMidiOutputPortOffset+i), PATCHBAY_PORT_TYPE_MIDI, 0, 0.0f, proc->getOutputChannelName(AudioProcessor::ChannelTypeMIDI, i).toRawUTF8()); } if (node->properties.position.valid) { engine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_POSITION_CHANGED, groupId, node->properties.position.x1, node->properties.position.y1, node->properties.position.x2, static_cast(node->properties.position.y2), nullptr); } } static inline void removeNodeFromPatchbay(const bool sendHost, const bool sendOSC, CarlaEngine* const engine, const uint32_t groupId, const AudioProcessor* const proc) { CARLA_SAFE_ASSERT_RETURN(engine != nullptr,); CARLA_SAFE_ASSERT_RETURN(proc != nullptr,); for (uint i=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeAudio); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_REMOVED, groupId, static_cast(kAudioInputPortOffset+i), 0, 0, 0.0f, nullptr); } for (uint i=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeAudio); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_REMOVED, groupId, static_cast(kAudioOutputPortOffset+i), 0, 0, 0.0f, nullptr); } for (uint i=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeCV); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_REMOVED, groupId, static_cast(kCVInputPortOffset+i), 0, 0, 0.0f, nullptr); } for (uint i=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeCV); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_REMOVED, groupId, static_cast(kCVOutputPortOffset+i), 0, 0, 0.0f, nullptr); } for (uint i=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeMIDI); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_REMOVED, groupId, static_cast(kMidiInputPortOffset+i), 0, 0, 0.0f, nullptr); } for (uint i=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeMIDI); icallback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_REMOVED, groupId, static_cast(kMidiOutputPortOffset+i), 0, 0, 0.0f, nullptr); } engine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_REMOVED, groupId, 0, 0, 0, 0.0f, nullptr); } // ----------------------------------------------------------------------- class CarlaPluginInstance : public AudioProcessor { public: CarlaPluginInstance(CarlaEngine* const engine, const CarlaPluginPtr plugin) : kEngine(engine), fPlugin(plugin) { CarlaEngineClient* const client = plugin->getEngineClient(); setPlayConfigDetails(client->getPortCount(kEnginePortTypeAudio, true), client->getPortCount(kEnginePortTypeAudio, false), client->getPortCount(kEnginePortTypeCV, true), client->getPortCount(kEnginePortTypeCV, false), client->getPortCount(kEnginePortTypeEvent, true), client->getPortCount(kEnginePortTypeEvent, false), getSampleRate(), getBlockSize()); } ~CarlaPluginInstance() override { } void reconfigure() override { const CarlaPluginPtr plugin = fPlugin; CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr,); CarlaEngineClient* const client = plugin->getEngineClient(); CARLA_SAFE_ASSERT_RETURN(client != nullptr,); carla_stdout("reconfigure called"); setPlayConfigDetails(client->getPortCount(kEnginePortTypeAudio, true), client->getPortCount(kEnginePortTypeAudio, false), client->getPortCount(kEnginePortTypeCV, true), client->getPortCount(kEnginePortTypeCV, false), client->getPortCount(kEnginePortTypeEvent, true), client->getPortCount(kEnginePortTypeEvent, false), getSampleRate(), getBlockSize()); } void invalidatePlugin() noexcept { fPlugin.reset(); } // ------------------------------------------------------------------- const String getName() const override { const CarlaPluginPtr plugin = fPlugin; CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr, String()); return plugin->getName(); } void processBlockWithCV(AudioSampleBuffer& audio, const AudioSampleBuffer& cvIn, AudioSampleBuffer& cvOut, MidiBuffer& midi) override { const CarlaPluginPtr plugin = fPlugin; if (plugin.get() == nullptr || !plugin->isEnabled() || !plugin->tryLock(kEngine->isOffline())) { audio.clear(); cvOut.clear(); midi.clear(); return; } if (CarlaEngineEventPort* const port = plugin->getDefaultEventInPort()) { EngineEvent* const engineEvents(port->fBuffer); CARLA_SAFE_ASSERT_RETURN(engineEvents != nullptr,); carla_zeroStructs(engineEvents, kMaxEngineEventInternalCount); fillEngineEventsFromWaterMidiBuffer(engineEvents, midi); } midi.clear(); plugin->initBuffers(); const uint32_t numSamples = audio.getNumSamples(); const uint32_t numAudioChan = audio.getNumChannels(); const uint32_t numCVInChan = cvIn.getNumChannels(); const uint32_t numCVOutChan = cvOut.getNumChannels(); if (numAudioChan+numCVInChan+numCVOutChan == 0) { // nothing to process plugin->process(nullptr, nullptr, nullptr, nullptr, numSamples); } else if (numAudioChan != 0) { // processing audio, include code for peaks const uint32_t numChan2 = jmin(numAudioChan, 2U); if (plugin->getAudioInCount() == 0) audio.clear(); float* audioBuffers[MAX_GRAPH_AUDIO_IO]; float* cvOutBuffers[MAX_GRAPH_CV_IO]; const float* cvInBuffers[MAX_GRAPH_CV_IO]; CARLA_SAFE_ASSERT_RETURN(numAudioChan <= MAX_GRAPH_AUDIO_IO, plugin->unlock()); CARLA_SAFE_ASSERT_RETURN(numCVOutChan <= MAX_GRAPH_CV_IO, plugin->unlock()); CARLA_SAFE_ASSERT_RETURN(numCVInChan <= MAX_GRAPH_CV_IO, plugin->unlock()); for (uint32_t i=0; igetAudioInCount(), numChan2); iprocess(const_cast(audioBuffers), audioBuffers, cvInBuffers, cvOutBuffers, numSamples); for (uint32_t i=0, count=jmin(plugin->getAudioOutCount(), numChan2); isetPluginPeaksRT(plugin->getId(), inPeaks, outPeaks); } else { // processing CV only, skip audiopeaks float* cvOutBuffers[MAX_GRAPH_CV_IO]; const float* cvInBuffers[MAX_GRAPH_CV_IO]; for (uint32_t i=0; iprocess(nullptr, nullptr, cvInBuffers, cvOutBuffers, numSamples); } midi.clear(); if (CarlaEngineEventPort* const port = plugin->getDefaultEventOutPort()) { /*const*/ EngineEvent* const engineEvents(port->fBuffer); CARLA_SAFE_ASSERT_RETURN(engineEvents != nullptr,); fillWaterMidiBufferFromEngineEvents(midi, engineEvents); carla_zeroStructs(engineEvents, kMaxEngineEventInternalCount); } plugin->unlock(); } const String getInputChannelName(ChannelType t, uint i) const override { const CarlaPluginPtr plugin = fPlugin; CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr, String()); CarlaEngineClient* const client = plugin->getEngineClient(); switch (t) { case ChannelTypeAudio: return client->getAudioPortName(true, i); case ChannelTypeCV: return client->getCVPortName(true, i); case ChannelTypeMIDI: return client->getEventPortName(true, i); } return String(); } const String getOutputChannelName(ChannelType t, uint i) const override { const CarlaPluginPtr plugin = fPlugin; CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr, String()); CarlaEngineClient* const client(plugin->getEngineClient()); switch (t) { case ChannelTypeAudio: return client->getAudioPortName(false, i); case ChannelTypeCV: return client->getCVPortName(false, i); case ChannelTypeMIDI: return client->getEventPortName(false, i); } return String(); } void prepareToPlay(double, int) override {} void releaseResources() override {} bool acceptsMidi() const override { const CarlaPluginPtr plugin = fPlugin; CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr, false); return plugin->getDefaultEventInPort() != nullptr; } bool producesMidi() const override { const CarlaPluginPtr plugin = fPlugin; CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr, false); return plugin->getDefaultEventOutPort() != nullptr; } private: CarlaEngine* const kEngine; CarlaPluginPtr fPlugin; CARLA_DECLARE_NON_COPYABLE_WITH_LEAK_DETECTOR(CarlaPluginInstance) }; // ----------------------------------------------------------------------- // Patchbay Graph class NamedAudioGraphIOProcessor : public AudioProcessorGraph::AudioGraphIOProcessor { public: NamedAudioGraphIOProcessor(const IODeviceType iotype) : AudioProcessorGraph::AudioGraphIOProcessor(iotype), inputNames(), outputNames() {} const String getInputChannelName (ChannelType, uint _index) const override { const int index = static_cast(_index); // FIXME if (index < inputNames.size()) return inputNames[index]; return String("Playback ") + String(index+1); } const String getOutputChannelName (ChannelType, uint _index) const override { const int index = static_cast(_index); // FIXME if (index < outputNames.size()) return outputNames[index]; return String("Capture ") + String(index+1); } void setNames(const bool setInputNames, const StringArray& names) { if (setInputNames) inputNames = names; else outputNames = names; } private: StringArray inputNames; StringArray outputNames; }; PatchbayGraph::PatchbayGraph(CarlaEngine* const engine, const uint32_t audioIns, const uint32_t audioOuts, const uint32_t cvIns, const uint32_t cvOuts, const bool withMidiIn, const bool withMidiOut) : CarlaRunner("PatchbayReorderRunner"), connections(), graph(), audioBuffer(), cvInBuffer(), cvOutBuffer(), midiBuffer(), numAudioIns(carla_fixedValue(0U, MAX_GRAPH_AUDIO_IO, audioIns)), numAudioOuts(carla_fixedValue(0U, MAX_GRAPH_AUDIO_IO, audioOuts)), numCVIns(carla_fixedValue(0U, MAX_GRAPH_CV_IO, cvIns)), numCVOuts(carla_fixedValue(0U, MAX_GRAPH_CV_IO, cvOuts)), retCon(), usingExternalHost(false), usingExternalOSC(false), extGraph(engine), kEngine(engine) { const uint32_t bufferSize(engine->getBufferSize()); const double sampleRate(engine->getSampleRate()); graph.setPlayConfigDetails(numAudioIns, numAudioOuts, numCVIns, numCVOuts, 1, 1, sampleRate, static_cast(bufferSize)); graph.prepareToPlay(sampleRate, static_cast(bufferSize)); audioBuffer.setSize(jmax(numAudioIns, numAudioOuts), bufferSize); cvInBuffer.setSize(numCVIns, bufferSize); cvOutBuffer.setSize(numCVOuts, bufferSize); midiBuffer.ensureSize(kMaxEngineEventInternalCount*2); midiBuffer.clear(); StringArray channelNames; switch (numAudioIns) { case 2: channelNames.add("Left"); channelNames.add("Right"); break; case 3: channelNames.add("Left"); channelNames.add("Right"); channelNames.add("Sidechain"); break; } if (numAudioIns != 0) { NamedAudioGraphIOProcessor* const proc( new NamedAudioGraphIOProcessor(NamedAudioGraphIOProcessor::audioInputNode)); proc->setNames(false, channelNames); AudioProcessorGraph::Node* const node(graph.addNode(proc)); node->properties.isPlugin = false; node->properties.isOutput = false; node->properties.isAudio = true; node->properties.isCV = false; node->properties.isMIDI = false; node->properties.isOSC = false; } if (numAudioOuts != 0) { NamedAudioGraphIOProcessor* const proc( new NamedAudioGraphIOProcessor(NamedAudioGraphIOProcessor::audioOutputNode)); proc->setNames(true, channelNames); AudioProcessorGraph::Node* const node(graph.addNode(proc)); node->properties.isPlugin = false; node->properties.isOutput = false; node->properties.isAudio = true; node->properties.isCV = false; node->properties.isMIDI = false; node->properties.isOSC = false; } if (numCVIns != 0) { NamedAudioGraphIOProcessor* const proc( new NamedAudioGraphIOProcessor(NamedAudioGraphIOProcessor::cvInputNode)); // proc->setNames(false, channelNames); AudioProcessorGraph::Node* const node(graph.addNode(proc)); node->properties.isPlugin = false; node->properties.isOutput = false; node->properties.isAudio = false; node->properties.isCV = true; node->properties.isMIDI = false; node->properties.isOSC = false; } if (numCVOuts != 0) { NamedAudioGraphIOProcessor* const proc( new NamedAudioGraphIOProcessor(NamedAudioGraphIOProcessor::cvOutputNode)); // proc->setNames(true, channelNames); AudioProcessorGraph::Node* const node(graph.addNode(proc)); node->properties.isPlugin = false; node->properties.isOutput = false; node->properties.isAudio = false; node->properties.isCV = true; node->properties.isMIDI = false; node->properties.isOSC = false; } if (withMidiIn) { NamedAudioGraphIOProcessor* const proc( new NamedAudioGraphIOProcessor(NamedAudioGraphIOProcessor::midiInputNode)); AudioProcessorGraph::Node* const node(graph.addNode(proc)); node->properties.isPlugin = false; node->properties.isOutput = false; node->properties.isAudio = false; node->properties.isCV = false; node->properties.isMIDI = true; node->properties.isOSC = false; } if (withMidiOut) { NamedAudioGraphIOProcessor* const proc( new NamedAudioGraphIOProcessor(NamedAudioGraphIOProcessor::midiOutputNode)); AudioProcessorGraph::Node* const node(graph.addNode(proc)); node->properties.isPlugin = false; node->properties.isOutput = true; node->properties.isAudio = false; node->properties.isCV = false; node->properties.isMIDI = true; node->properties.isOSC = false; } startRunner(100); } PatchbayGraph::~PatchbayGraph() { stopRunner(); connections.clear(); extGraph.clear(); graph.releaseResources(); graph.clear(); audioBuffer.clear(); cvInBuffer.clear(); cvOutBuffer.clear(); } void PatchbayGraph::setBufferSize(const uint32_t bufferSize) { const CarlaRecursiveMutexLocker cml1(graph.getReorderMutex()); graph.releaseResources(); graph.prepareToPlay(kEngine->getSampleRate(), static_cast(bufferSize)); audioBuffer.setSize(audioBuffer.getNumChannels(), bufferSize); cvInBuffer.setSize(numCVIns, bufferSize); cvOutBuffer.setSize(numCVOuts, bufferSize); } void PatchbayGraph::setSampleRate(const double sampleRate) { const CarlaRecursiveMutexLocker cml1(graph.getReorderMutex()); graph.releaseResources(); graph.prepareToPlay(sampleRate, static_cast(kEngine->getBufferSize())); } void PatchbayGraph::setOffline(const bool offline) { graph.setNonRealtime(offline); } void PatchbayGraph::addPlugin(const CarlaPluginPtr plugin) { CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr,); carla_debug("PatchbayGraph::addPlugin(%p)", plugin.get()); CarlaPluginInstance* const instance(new CarlaPluginInstance(kEngine, plugin)); AudioProcessorGraph::Node* const node(graph.addNode(instance)); CARLA_SAFE_ASSERT_RETURN(node != nullptr,); const bool sendHost = !usingExternalHost; const bool sendOSC = !usingExternalOSC; plugin->setPatchbayNodeId(node->nodeId); node->properties.isPlugin = true; node->properties.pluginId = plugin->getId(); addNodeToPatchbay(sendHost, sendOSC, kEngine, node, static_cast(plugin->getId()), instance); } void PatchbayGraph::replacePlugin(const CarlaPluginPtr oldPlugin, const CarlaPluginPtr newPlugin) { CARLA_SAFE_ASSERT_RETURN(oldPlugin.get() != nullptr,); CARLA_SAFE_ASSERT_RETURN(newPlugin.get() != nullptr,); CARLA_SAFE_ASSERT_RETURN(oldPlugin != newPlugin,); CARLA_SAFE_ASSERT_RETURN(oldPlugin->getId() == newPlugin->getId(),); AudioProcessorGraph::Node* const oldNode(graph.getNodeForId(oldPlugin->getPatchbayNodeId())); CARLA_SAFE_ASSERT_RETURN(oldNode != nullptr,); const bool sendHost = !usingExternalHost; const bool sendOSC = !usingExternalOSC; disconnectInternalGroup(oldNode->nodeId); removeNodeFromPatchbay(sendHost, sendOSC, kEngine, oldNode->nodeId, oldNode->getProcessor()); ((CarlaPluginInstance*)oldNode->getProcessor())->invalidatePlugin(); graph.removeNode(oldNode->nodeId); CarlaPluginInstance* const instance(new CarlaPluginInstance(kEngine, newPlugin)); AudioProcessorGraph::Node* const node(graph.addNode(instance)); CARLA_SAFE_ASSERT_RETURN(node != nullptr,); newPlugin->setPatchbayNodeId(node->nodeId); node->properties.isPlugin = true; node->properties.pluginId = newPlugin->getId(); addNodeToPatchbay(sendHost, sendOSC, kEngine, node, static_cast(newPlugin->getId()), instance); } void PatchbayGraph::renamePlugin(const CarlaPluginPtr plugin, const char* const newName) { CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr,); carla_debug("PatchbayGraph::renamePlugin(%p)", plugin.get(), newName); AudioProcessorGraph::Node* const node(graph.getNodeForId(plugin->getPatchbayNodeId())); CARLA_SAFE_ASSERT_RETURN(node != nullptr,); const bool sendHost = !usingExternalHost; const bool sendOSC = !usingExternalOSC; kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_RENAMED, node->nodeId, 0, 0, 0, 0.0f, newName); } void PatchbayGraph::switchPlugins(CarlaPluginPtr pluginA, CarlaPluginPtr pluginB) { CARLA_SAFE_ASSERT_RETURN(pluginA.get() != nullptr,); CARLA_SAFE_ASSERT_RETURN(pluginB.get() != nullptr,); CARLA_SAFE_ASSERT_RETURN(pluginA != pluginB,); CARLA_SAFE_ASSERT_RETURN(pluginA->getId() != pluginB->getId(),); AudioProcessorGraph::Node* const nodeA(graph.getNodeForId(pluginA->getPatchbayNodeId())); CARLA_SAFE_ASSERT_RETURN(nodeA != nullptr,); AudioProcessorGraph::Node* const nodeB(graph.getNodeForId(pluginB->getPatchbayNodeId())); CARLA_SAFE_ASSERT_RETURN(nodeB != nullptr,); nodeA->properties.pluginId = pluginB->getId(); nodeB->properties.pluginId = pluginA->getId(); } void PatchbayGraph::reconfigureForCV(const CarlaPluginPtr plugin, const uint portIndex, bool added) { CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr,); carla_debug("PatchbayGraph::reconfigureForCV(%p, %u, %s)", plugin.get(), portIndex, bool2str(added)); AudioProcessorGraph::Node* const node = graph.getNodeForId(plugin->getPatchbayNodeId()); CARLA_SAFE_ASSERT_RETURN(node != nullptr,); CarlaPluginInstance* const proc = dynamic_cast(node->getProcessor()); CARLA_SAFE_ASSERT_RETURN(proc != nullptr,); const bool sendHost = !usingExternalHost; const bool sendOSC = !usingExternalOSC; const uint oldCvIn = proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeCV); // const uint oldCvOut = proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeCV); { const CarlaRecursiveMutexLocker crml(graph.getCallbackLock()); proc->reconfigure(); graph.buildRenderingSequence(); } const uint newCvIn = proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeCV); // const uint newCvOut = proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeCV); if (added) { CARLA_SAFE_ASSERT_UINT2_RETURN(newCvIn > oldCvIn, newCvIn, oldCvIn,); // CARLA_SAFE_ASSERT_UINT2_RETURN(newCvOut >= oldCvOut, newCvOut, oldCvOut,); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_ADDED, node->nodeId, static_cast(kCVInputPortOffset + plugin->getCVInCount() + portIndex), PATCHBAY_PORT_TYPE_CV|PATCHBAY_PORT_IS_INPUT, 0, 0.0f, proc->getInputChannelName(AudioProcessor::ChannelTypeCV, portIndex).toRawUTF8()); } else { CARLA_SAFE_ASSERT_UINT2_RETURN(newCvIn < oldCvIn, newCvIn, oldCvIn,); // CARLA_SAFE_ASSERT_UINT2_RETURN(newCvOut <= oldCvOut, newCvOut, oldCvOut,); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_PORT_REMOVED, node->nodeId, static_cast(kCVInputPortOffset + plugin->getCVInCount() + portIndex), 0, 0, 0.0f, nullptr); } } void PatchbayGraph::removePlugin(const CarlaPluginPtr plugin) { CARLA_SAFE_ASSERT_RETURN(plugin.get() != nullptr,); carla_debug("PatchbayGraph::removePlugin(%p)", plugin.get()); AudioProcessorGraph::Node* const node(graph.getNodeForId(plugin->getPatchbayNodeId())); CARLA_SAFE_ASSERT_RETURN(node != nullptr,); const bool sendHost = !usingExternalHost; const bool sendOSC = !usingExternalOSC; disconnectInternalGroup(node->nodeId); removeNodeFromPatchbay(sendHost, sendOSC, kEngine, node->nodeId, node->getProcessor()); ((CarlaPluginInstance*)node->getProcessor())->invalidatePlugin(); // Fix plugin Ids properties for (uint i=plugin->getId()+1, count=kEngine->getCurrentPluginCount(); igetPlugin(i); CARLA_SAFE_ASSERT_BREAK(plugin2.get() != nullptr); if (AudioProcessorGraph::Node* const node2 = graph.getNodeForId(plugin2->getPatchbayNodeId())) { CARLA_SAFE_ASSERT_CONTINUE(node2->properties.isPlugin); node2->properties.pluginId = i - 1; } } CARLA_SAFE_ASSERT_RETURN(graph.removeNode(node->nodeId),); } void PatchbayGraph::removeAllPlugins(const bool aboutToClose) { carla_debug("PatchbayGraph::removeAllPlugins()"); stopRunner(); const bool sendHost = !usingExternalHost; const bool sendOSC = !usingExternalOSC; for (uint i=0, count=kEngine->getCurrentPluginCount(); igetPlugin(i); CARLA_SAFE_ASSERT_CONTINUE(plugin.get() != nullptr); AudioProcessorGraph::Node* const node(graph.getNodeForId(plugin->getPatchbayNodeId())); CARLA_SAFE_ASSERT_CONTINUE(node != nullptr); disconnectInternalGroup(node->nodeId); removeNodeFromPatchbay(sendHost, sendOSC, kEngine, node->nodeId, node->getProcessor()); ((CarlaPluginInstance*)node->getProcessor())->invalidatePlugin(); graph.removeNode(node->nodeId); } if (!aboutToClose) startRunner(100); } bool PatchbayGraph::connect(const bool external, const uint groupA, const uint portA, const uint groupB, const uint portB) { if (external) return extGraph.connect(usingExternalHost, usingExternalOSC, groupA, portA, groupB, portB); uint adjustedPortA = portA; uint adjustedPortB = portB; AudioProcessor::ChannelType channelType; if (! adjustPatchbayPortIdForWater(channelType, adjustedPortA)) return false; if (! adjustPatchbayPortIdForWater(channelType, adjustedPortB)) return false; if (! graph.addConnection(channelType, groupA, adjustedPortA, groupB, adjustedPortB)) { kEngine->setLastError("Failed from water"); return false; } ConnectionToId connectionToId; connectionToId.setData(++connections.lastId, groupA, portA, groupB, portB); char strBuf[STR_MAX+1]; strBuf[STR_MAX] = '\0'; std::snprintf(strBuf, STR_MAX, "%u:%u:%u:%u", groupA, portA, groupB, portB); kEngine->callback(!usingExternalHost, !usingExternalOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_ADDED, connectionToId.id, 0, 0, 0, 0.0f, strBuf); connections.list.append(connectionToId); return true; } bool PatchbayGraph::disconnect(const bool external, const uint connectionId) { if (external) return extGraph.disconnect(usingExternalHost, usingExternalOSC, connectionId); for (LinkedList::Itenerator it=connections.list.begin2(); it.valid(); it.next()) { static const ConnectionToId fallback = { 0, 0, 0, 0, 0 }; const ConnectionToId& connectionToId(it.getValue(fallback)); CARLA_SAFE_ASSERT_CONTINUE(connectionToId.id > 0); if (connectionToId.id != connectionId) continue; uint adjustedPortA = connectionToId.portA; uint adjustedPortB = connectionToId.portB; AudioProcessor::ChannelType channelType; if (! adjustPatchbayPortIdForWater(channelType, adjustedPortA)) return false; if (! adjustPatchbayPortIdForWater(channelType, adjustedPortB)) return false; if (! graph.removeConnection(channelType, connectionToId.groupA, adjustedPortA, connectionToId.groupB, adjustedPortB)) return false; kEngine->callback(!usingExternalHost, !usingExternalOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_REMOVED, connectionToId.id, 0, 0, 0, 0.0f, nullptr); connections.list.remove(it); return true; } kEngine->setLastError("Failed to find connection"); return false; } void PatchbayGraph::disconnectInternalGroup(const uint groupId) noexcept { for (LinkedList::Itenerator it=connections.list.begin2(); it.valid(); it.next()) { static const ConnectionToId fallback = { 0, 0, 0, 0, 0 }; const ConnectionToId& connectionToId(it.getValue(fallback)); CARLA_SAFE_ASSERT_CONTINUE(connectionToId.id > 0); if (connectionToId.groupA != groupId && connectionToId.groupB != groupId) continue; /* uint adjustedPortA = connectionToId.portA; uint adjustedPortB = connectionToId.portB; AudioProcessor::ChannelType channelType; if (! adjustPatchbayPortIdForWater(adjustedPortA)) return false; if (! adjustPatchbayPortIdForWater(adjustedPortB)) return false; graph.removeConnection(connectionToId.groupA, static_cast(adjustedPortA), connectionToId.groupB, static_cast(adjustedPortB)); */ kEngine->callback(!usingExternalHost, !usingExternalOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_REMOVED, connectionToId.id, 0, 0, 0, 0.0f, nullptr); connections.list.remove(it); } } void PatchbayGraph::setGroupPos(const bool sendHost, const bool sendOSC, const bool external, uint groupId, int x1, int y1, int x2, int y2) { if (external) return extGraph.setGroupPos(sendHost, sendOSC, groupId, x1, y1, x2, y2); AudioProcessorGraph::Node* const node(graph.getNodeForId(groupId)); CARLA_SAFE_ASSERT_RETURN(node != nullptr,); node->properties.position.x1 = x1; node->properties.position.y1 = y1; node->properties.position.x2 = x2; node->properties.position.y2 = y2; node->properties.position.valid = true; kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CLIENT_POSITION_CHANGED, groupId, x1, y1, x2, static_cast(y2), nullptr); } void PatchbayGraph::refresh(const bool sendHost, const bool sendOSC, const bool external, const char* const deviceName) { if (external) return extGraph.refresh(sendHost, sendOSC, deviceName); CARLA_SAFE_ASSERT_RETURN(deviceName != nullptr,); connections.clear(); graph.removeIllegalConnections(); for (int i=0, count=graph.getNumNodes(); igetProcessor()); CARLA_SAFE_ASSERT_CONTINUE(proc != nullptr); int pluginId = -1; // plugin node if (node->properties.isPlugin) pluginId = static_cast(node->properties.pluginId); addNodeToPatchbay(sendHost, sendOSC, kEngine, node, pluginId, proc); } char strBuf[STR_MAX+1]; strBuf[STR_MAX] = '\0'; for (size_t i=0, count=graph.getNumConnections(); isourceNodeId; const uint groupB = conn->destNodeId; uint portA = conn->sourceChannelIndex; uint portB = conn->destChannelIndex; switch (conn->channelType) { case AudioProcessor::ChannelTypeAudio: portA += kAudioOutputPortOffset; portB += kAudioInputPortOffset; break; case AudioProcessor::ChannelTypeCV: portA += kCVOutputPortOffset; portB += kCVInputPortOffset; break; case AudioProcessor::ChannelTypeMIDI: portA += kMidiOutputPortOffset; portB += kMidiInputPortOffset; break; } ConnectionToId connectionToId; connectionToId.setData(++connections.lastId, groupA, portA, groupB, portB); std::snprintf(strBuf, STR_MAX, "%i:%i:%i:%i", groupA, portA, groupB, portB); kEngine->callback(sendHost, sendOSC, ENGINE_CALLBACK_PATCHBAY_CONNECTION_ADDED, connectionToId.id, 0, 0, 0, 0.0f, strBuf); connections.list.append(connectionToId); } } const char* const* PatchbayGraph::getConnections(const bool external) const { if (external) return extGraph.getConnections(); if (connections.list.count() == 0) return nullptr; CarlaStringList connList; for (LinkedList::Itenerator it=connections.list.begin2(); it.valid(); it.next()) { static const ConnectionToId fallback = { 0, 0, 0, 0, 0 }; const ConnectionToId& connectionToId(it.getValue(fallback)); CARLA_SAFE_ASSERT_CONTINUE(connectionToId.id > 0); AudioProcessorGraph::Node* const nodeA(graph.getNodeForId(connectionToId.groupA)); CARLA_SAFE_ASSERT_CONTINUE(nodeA != nullptr); AudioProcessorGraph::Node* const nodeB(graph.getNodeForId(connectionToId.groupB)); CARLA_SAFE_ASSERT_CONTINUE(nodeB != nullptr); AudioProcessor* const procA(nodeA->getProcessor()); CARLA_SAFE_ASSERT_CONTINUE(procA != nullptr); AudioProcessor* const procB(nodeB->getProcessor()); CARLA_SAFE_ASSERT_CONTINUE(procB != nullptr); String fullPortNameA(getProcessorFullPortName(procA, connectionToId.portA)); CARLA_SAFE_ASSERT_CONTINUE(fullPortNameA.isNotEmpty()); String fullPortNameB(getProcessorFullPortName(procB, connectionToId.portB)); CARLA_SAFE_ASSERT_CONTINUE(fullPortNameB.isNotEmpty()); connList.append(fullPortNameA.toRawUTF8()); connList.append(fullPortNameB.toRawUTF8()); } if (connList.count() == 0) return nullptr; retCon = connList.toCharStringListPtr(); return retCon; } const CarlaEngine::PatchbayPosition* PatchbayGraph::getPositions(bool external, uint& count) const { CarlaEngine::PatchbayPosition* ret; if (external) { try { ret = new CarlaEngine::PatchbayPosition[kExternalGraphGroupMax]; } CARLA_SAFE_EXCEPTION_RETURN("new CarlaEngine::PatchbayPosition", nullptr); count = 0; for (uint i=kExternalGraphGroupCarla; i 0, nullptr); try { ret = new CarlaEngine::PatchbayPosition[numNodes]; } CARLA_SAFE_EXCEPTION_RETURN("new CarlaEngine::PatchbayPosition", nullptr); count = 0; for (int i=numNodes; --i >= 0;) { AudioProcessorGraph::Node* const node(graph.getNode(i)); CARLA_SAFE_ASSERT_CONTINUE(node != nullptr); if (! node->properties.position.valid) continue; AudioProcessor* const proc(node->getProcessor()); CARLA_SAFE_ASSERT_CONTINUE(proc != nullptr); CarlaEngine::PatchbayPosition& ppos(ret[count++]); ppos.name = carla_strdup(proc->getName().toRawUTF8()); ppos.dealloc = true; ppos.pluginId = node->properties.isPlugin ? static_cast(node->properties.pluginId) : -1; ppos.x1 = node->properties.position.x1; ppos.y1 = node->properties.position.y1; ppos.x2 = node->properties.position.x2; ppos.y2 = node->properties.position.y2; } return ret; } } bool PatchbayGraph::getGroupFromName(bool external, const char* groupName, uint& groupId) const { if (external) return extGraph.getGroupFromName(groupName, groupId); for (int i=0, count=graph.getNumNodes(); igetProcessor()); CARLA_SAFE_ASSERT_CONTINUE(proc != nullptr); if (proc->getName() != groupName) continue; groupId = node->nodeId; return true; } return false; } bool PatchbayGraph::getGroupAndPortIdFromFullName(const bool external, const char* const fullPortName, uint& groupId, uint& portId) const { if (external) return extGraph.getGroupAndPortIdFromFullName(fullPortName, groupId, portId); String groupName(String(fullPortName).upToFirstOccurrenceOf(":", false, false)); String portName(String(fullPortName).fromFirstOccurrenceOf(":", false, false)); for (int i=0, count=graph.getNumNodes(); igetProcessor()); CARLA_SAFE_ASSERT_CONTINUE(proc != nullptr); if (proc->getName() != groupName) continue; groupId = node->nodeId; for (uint j=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeAudio); jgetInputChannelName(AudioProcessor::ChannelTypeAudio, j) != portName) continue; portId = kAudioInputPortOffset+j; return true; } for (uint j=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeAudio); jgetOutputChannelName(AudioProcessor::ChannelTypeAudio, j) != portName) continue; portId = kAudioOutputPortOffset+j; return true; } for (uint j=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeCV); jgetInputChannelName(AudioProcessor::ChannelTypeCV, j) != portName) continue; portId = kCVInputPortOffset+j; return true; } for (uint j=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeCV); jgetOutputChannelName(AudioProcessor::ChannelTypeCV, j) != portName) continue; portId = kCVOutputPortOffset+j; return true; } for (uint j=0, numInputs=proc->getTotalNumInputChannels(AudioProcessor::ChannelTypeMIDI); jgetInputChannelName(AudioProcessor::ChannelTypeMIDI, j) != portName) continue; portId = kMidiInputPortOffset+j; return true; } for (uint j=0, numOutputs=proc->getTotalNumOutputChannels(AudioProcessor::ChannelTypeMIDI); jgetOutputChannelName(AudioProcessor::ChannelTypeMIDI, j) != portName) continue; portId = kMidiOutputPortOffset+j; return true; } } return false; } void PatchbayGraph::process(CarlaEngine::ProtectedData* const data, const float* const* const inBuf, float* const* const outBuf, const uint32_t frames) { CARLA_SAFE_ASSERT_RETURN(data != nullptr,); CARLA_SAFE_ASSERT_RETURN(data->events.in != nullptr,); CARLA_SAFE_ASSERT_RETURN(data->events.out != nullptr,); CARLA_SAFE_ASSERT_RETURN(frames > 0,); // put events in water buffer { midiBuffer.clear(); fillWaterMidiBufferFromEngineEvents(midiBuffer, data->events.in); } // set audio and cv buffer size, needed for water internals if (! audioBuffer.setSizeRT(frames)) return; if (! cvInBuffer.setSizeRT(frames)) return; if (! cvOutBuffer.setSizeRT(frames)) return; // put carla audio and cv in water buffer { uint32_t i=0; for (; i < numAudioIns; ++i) { CARLA_SAFE_ASSERT_BREAK(inBuf[i]); audioBuffer.copyFrom(i, 0, inBuf[i], frames); } for (uint32_t j=0; j < numCVIns; ++j, ++i) { CARLA_SAFE_ASSERT_BREAK(inBuf[i]); cvInBuffer.copyFrom(j, 0, inBuf[i], frames); } // clear remaining channels for (uint32_t j=numAudioIns, count=audioBuffer.getNumChannels(); j < count; ++j) audioBuffer.clear(j, 0, frames); for (uint32_t j=0; j < numCVOuts; ++j) cvOutBuffer.clear(j, 0, frames); } // ready to go! graph.processBlockWithCV(audioBuffer, cvInBuffer, cvOutBuffer, midiBuffer); // put water audio and cv in carla buffer { uint32_t i=0; for (; i < numAudioOuts; ++i) carla_copyFloats(outBuf[i], audioBuffer.getReadPointer(i), frames); for (uint32_t j=0; j < numCVOuts; ++j, ++i) carla_copyFloats(outBuf[i], cvOutBuffer.getReadPointer(j), frames); } // put water events in carla buffer { carla_zeroStructs(data->events.out, kMaxEngineEventInternalCount); fillEngineEventsFromWaterMidiBuffer(data->events.out, midiBuffer); midiBuffer.clear(); } } bool PatchbayGraph::run() { graph.reorderNowIfNeeded(); return true; } // ----------------------------------------------------------------------- // InternalGraph EngineInternalGraph::EngineInternalGraph(CarlaEngine* const engine) noexcept : fIsRack(false), fNumAudioOuts(0), fIsReady(false), fRack(nullptr), kEngine(engine) {} EngineInternalGraph::~EngineInternalGraph() noexcept { CARLA_SAFE_ASSERT(! fIsReady); CARLA_SAFE_ASSERT(fRack == nullptr); } void EngineInternalGraph::create(const uint32_t audioIns, const uint32_t audioOuts, const uint32_t cvIns, const uint32_t cvOuts, const bool withMidiIn, const bool withMidiOut) { fIsRack = (kEngine->getOptions().processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK); if (fIsRack) { CARLA_SAFE_ASSERT_RETURN(fRack == nullptr,); fRack = new RackGraph(kEngine, audioIns, audioOuts); } else { CARLA_SAFE_ASSERT_RETURN(fPatchbay == nullptr,); fPatchbay = new PatchbayGraph(kEngine, audioIns, audioOuts, cvIns, cvOuts, withMidiIn, withMidiOut); } fNumAudioOuts = audioOuts; fIsReady = true; } void EngineInternalGraph::destroy() noexcept { if (! fIsReady) { CARLA_SAFE_ASSERT(fRack == nullptr); return; } if (fIsRack) { CARLA_SAFE_ASSERT_RETURN(fRack != nullptr,); delete fRack; fRack = nullptr; } else { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); delete fPatchbay; fPatchbay = nullptr; } fIsReady = false; fNumAudioOuts = 0; } void EngineInternalGraph::setBufferSize(const uint32_t bufferSize) { CarlaScopedValueSetter svs(fIsReady, false, true); if (fIsRack) { CARLA_SAFE_ASSERT_RETURN(fRack != nullptr,); fRack->setBufferSize(bufferSize); } else { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->setBufferSize(bufferSize); } } void EngineInternalGraph::setSampleRate(const double sampleRate) { CarlaScopedValueSetter svs(fIsReady, false, true); if (fIsRack) { CARLA_SAFE_ASSERT_RETURN(fRack != nullptr,); } else { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->setSampleRate(sampleRate); } } void EngineInternalGraph::setOffline(const bool offline) { CarlaScopedValueSetter svs(fIsReady, false, true); if (fIsRack) { CARLA_SAFE_ASSERT_RETURN(fRack != nullptr,); fRack->setOffline(offline); } else { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->setOffline(offline); } } RackGraph* EngineInternalGraph::getRackGraph() const noexcept { CARLA_SAFE_ASSERT_RETURN(fIsRack, nullptr); return fRack; } PatchbayGraph* EngineInternalGraph::getPatchbayGraph() const noexcept { CARLA_SAFE_ASSERT_RETURN(! fIsRack, nullptr); return fPatchbay; } PatchbayGraph* EngineInternalGraph::getPatchbayGraphOrNull() const noexcept { return fIsRack ? nullptr : fPatchbay; } void EngineInternalGraph::process(CarlaEngine::ProtectedData* const data, const float* const* const inBuf, float* const* const outBuf, const uint32_t frames) { if (fIsRack) { CARLA_SAFE_ASSERT_RETURN(fRack != nullptr,); fRack->processHelper(data, inBuf, outBuf, frames); } else { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->process(data, inBuf, outBuf, frames); } } void EngineInternalGraph::processRack(CarlaEngine::ProtectedData* const data, const float* inBuf[2], float* outBuf[2], const uint32_t frames) { CARLA_SAFE_ASSERT_RETURN(fIsRack,); CARLA_SAFE_ASSERT_RETURN(fRack != nullptr,); fRack->process(data, inBuf, outBuf, frames); } // ----------------------------------------------------------------------- // used for internal patchbay mode void EngineInternalGraph::addPlugin(const CarlaPluginPtr plugin) { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->addPlugin(plugin); } void EngineInternalGraph::replacePlugin(const CarlaPluginPtr oldPlugin, const CarlaPluginPtr newPlugin) { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->replacePlugin(oldPlugin, newPlugin); } void EngineInternalGraph::renamePlugin(const CarlaPluginPtr plugin, const char* const newName) { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->renamePlugin(plugin, newName); } void EngineInternalGraph::switchPlugins(CarlaPluginPtr pluginA, CarlaPluginPtr pluginB) { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->switchPlugins(pluginA, pluginB); } void EngineInternalGraph::removePlugin(const CarlaPluginPtr plugin) { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->removePlugin(plugin); } void EngineInternalGraph::removeAllPlugins(const bool aboutToClose) { CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->removeAllPlugins(aboutToClose); } bool EngineInternalGraph::isUsingExternalHost() const noexcept { if (fIsRack) return true; CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr, false); return fPatchbay->usingExternalHost; } bool EngineInternalGraph::isUsingExternalOSC() const noexcept { if (fIsRack) return true; CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr, false); return fPatchbay->usingExternalOSC; } void EngineInternalGraph::setUsingExternalHost(const bool usingExternal) noexcept { CARLA_SAFE_ASSERT_RETURN(! fIsRack,); CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->usingExternalHost = usingExternal; } void EngineInternalGraph::setUsingExternalOSC(const bool usingExternal) noexcept { CARLA_SAFE_ASSERT_RETURN(! fIsRack,); CARLA_SAFE_ASSERT_RETURN(fPatchbay != nullptr,); fPatchbay->usingExternalOSC = usingExternal; } // ----------------------------------------------------------------------- // CarlaEngine Patchbay stuff bool CarlaEngine::patchbayConnect(const bool external, const uint groupA, const uint portA, const uint groupB, const uint portB) { CARLA_SAFE_ASSERT_RETURN(pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK || pData->options.processMode == ENGINE_PROCESS_MODE_PATCHBAY, false); CARLA_SAFE_ASSERT_RETURN(pData->graph.isReady(), false); carla_debug("CarlaEngine::patchbayConnect(%u, %u, %u, %u)", groupA, portA, groupB, portB); if (pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK) { RackGraph* const graph = pData->graph.getRackGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); return graph->connect(groupA, portA, groupB, portB); } else { PatchbayGraph* const graph = pData->graph.getPatchbayGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); return graph->connect(external, groupA, portA, groupB, portB); } } bool CarlaEngine::patchbayDisconnect(const bool external, const uint connectionId) { CARLA_SAFE_ASSERT_RETURN(pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK || pData->options.processMode == ENGINE_PROCESS_MODE_PATCHBAY, false); CARLA_SAFE_ASSERT_RETURN(pData->graph.isReady(), false); carla_debug("CarlaEngine::patchbayDisconnect(%u)", connectionId); if (pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK) { RackGraph* const graph = pData->graph.getRackGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); return graph->disconnect(connectionId); } else { PatchbayGraph* const graph = pData->graph.getPatchbayGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); return graph->disconnect(external, connectionId); } } bool CarlaEngine::patchbaySetGroupPos(const bool sendHost, const bool sendOSC, const bool external, const uint groupId, const int x1, const int y1, const int x2, const int y2) { CARLA_SAFE_ASSERT_RETURN(pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK || pData->options.processMode == ENGINE_PROCESS_MODE_PATCHBAY, false); CARLA_SAFE_ASSERT_RETURN(pData->graph.isReady(), false); carla_debug("CarlaEngine::patchbaySetGroupPos(%u, %i, %i, %i, %i)", groupId, x1, y1, x2, y2); if (pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK) { // we don't bother to save position in this case, there is only midi in/out return true; } else { PatchbayGraph* const graph = pData->graph.getPatchbayGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); graph->setGroupPos(sendHost, sendOSC, external, groupId, x1, y1, x2, y2); return true; } } bool CarlaEngine::patchbayRefresh(const bool sendHost, const bool sendOSC, const bool external) { // subclasses should handle this CARLA_SAFE_ASSERT_RETURN(! external, false); if (pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK) { // This is implemented in engine subclasses setLastError("Unsupported operation"); return false; } if (pData->options.processMode == ENGINE_PROCESS_MODE_PATCHBAY) { PatchbayGraph* const graph = pData->graph.getPatchbayGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); graph->refresh(sendHost, sendOSC, external, ""); return true; } setLastError("Unsupported operation"); return false; } // ----------------------------------------------------------------------- // Patchbay stuff const char* const* CarlaEngine::getPatchbayConnections(const bool external) const { CARLA_SAFE_ASSERT_RETURN(pData->graph.isReady(), nullptr); carla_debug("CarlaEngine::getPatchbayConnections(%s)", bool2str(external)); if (pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK) { RackGraph* const graph = pData->graph.getRackGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, nullptr); CARLA_SAFE_ASSERT_RETURN(external, nullptr); return graph->getConnections(); } else { PatchbayGraph* const graph = pData->graph.getPatchbayGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, nullptr); return graph->getConnections(external); } return nullptr; } const CarlaEngine::PatchbayPosition* CarlaEngine::getPatchbayPositions(bool external, uint& count) const { CARLA_SAFE_ASSERT_RETURN(pData->graph.isReady(), nullptr); carla_debug("CarlaEngine::getPatchbayPositions(%s)", bool2str(external)); if (pData->options.processMode == ENGINE_PROCESS_MODE_PATCHBAY) { PatchbayGraph* const graph = pData->graph.getPatchbayGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, nullptr); return graph->getPositions(external, count); } return nullptr; } void CarlaEngine::restorePatchbayConnection(const bool external, const char* const sourcePort, const char* const targetPort) { CARLA_SAFE_ASSERT_RETURN(pData->graph.isReady(),); CARLA_SAFE_ASSERT_RETURN(sourcePort != nullptr && sourcePort[0] != '\0',); CARLA_SAFE_ASSERT_RETURN(targetPort != nullptr && targetPort[0] != '\0',); carla_debug("CarlaEngine::restorePatchbayConnection(%s, \"%s\", \"%s\")", bool2str(external), sourcePort, targetPort); uint groupA, portA; uint groupB, portB; if (pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK) { RackGraph* const graph = pData->graph.getRackGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr,); CARLA_SAFE_ASSERT_RETURN(external,); if (! graph->getGroupAndPortIdFromFullName(sourcePort, groupA, portA)) return; if (! graph->getGroupAndPortIdFromFullName(targetPort, groupB, portB)) return; graph->connect(groupA, portA, groupB, portB); } else { PatchbayGraph* const graph = pData->graph.getPatchbayGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr,); if (! graph->getGroupAndPortIdFromFullName(external, sourcePort, groupA, portA)) return; if (! graph->getGroupAndPortIdFromFullName(external, targetPort, groupB, portB)) return; graph->connect(external, groupA, portA, groupB, portB); } } bool CarlaEngine::restorePatchbayGroupPosition(const bool external, PatchbayPosition& ppos) { CARLA_SAFE_ASSERT_RETURN(pData->graph.isReady(), false); CARLA_SAFE_ASSERT_RETURN(ppos.name != nullptr && ppos.name[0] != '\0', false); if (pData->options.processMode == ENGINE_PROCESS_MODE_PATCHBAY) { PatchbayGraph* const graph = pData->graph.getPatchbayGraph(); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); const char* const orig_name = ppos.name; // strip client name prefix if present if (ppos.pluginId >= 0) { if (const char* const rname2 = std::strstr(ppos.name, ".")) if (const char* const rname3 = std::strstr(rname2 + 1, "/")) ppos.name = rname3 + 1; } uint groupId; CARLA_SAFE_ASSERT_INT_RETURN(graph->getGroupFromName(external, ppos.name, groupId), external, false); graph->setGroupPos(true, true, external, groupId, ppos.x1, ppos.y1, ppos.x2, ppos.y2); return ppos.name != orig_name; } return false; } // ----------------------------------------------------------------------- bool CarlaEngine::connectExternalGraphPort(const uint connectionType, const uint portId, const char* const portName) { CARLA_SAFE_ASSERT_RETURN(connectionType != 0 || (portName != nullptr && portName[0] != '\0'), false); CARLA_SAFE_ASSERT_RETURN(pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK, false); RackGraph* const graph(pData->graph.getRackGraph()); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); const CarlaRecursiveMutexLocker cml(graph->audioBuffers.mutex); switch (connectionType) { case kExternalGraphConnectionAudioIn1: return graph->audioBuffers.connectedIn1.append(portId); case kExternalGraphConnectionAudioIn2: return graph->audioBuffers.connectedIn2.append(portId); case kExternalGraphConnectionAudioOut1: return graph->audioBuffers.connectedOut1.append(portId); case kExternalGraphConnectionAudioOut2: return graph->audioBuffers.connectedOut2.append(portId); } return false; } bool CarlaEngine::disconnectExternalGraphPort(const uint connectionType, const uint portId, const char* const portName) { CARLA_SAFE_ASSERT_RETURN(connectionType != 0 || (portName != nullptr && portName[0] != '\0'), false); CARLA_SAFE_ASSERT_RETURN(pData->options.processMode == ENGINE_PROCESS_MODE_CONTINUOUS_RACK, false); RackGraph* const graph(pData->graph.getRackGraph()); CARLA_SAFE_ASSERT_RETURN(graph != nullptr, false); const CarlaRecursiveMutexLocker cml(graph->audioBuffers.mutex); switch (connectionType) { case kExternalGraphConnectionAudioIn1: return graph->audioBuffers.connectedIn1.removeOne(portId); case kExternalGraphConnectionAudioIn2: return graph->audioBuffers.connectedIn2.removeOne(portId); case kExternalGraphConnectionAudioOut1: return graph->audioBuffers.connectedOut1.removeOne(portId); case kExternalGraphConnectionAudioOut2: return graph->audioBuffers.connectedOut2.removeOne(portId); } return false; } // ----------------------------------------------------------------------- CARLA_BACKEND_END_NAMESPACE