/* * Copyright (C) OpenTX * * Based on code named * th9x - http://code.google.com/p/th9x * er9x - http://code.google.com/p/er9x * gruvin9x - http://code.google.com/p/gruvin9x * * License GPLv2: http://www.gnu.org/licenses/gpl-2.0.html * * This program is free software; you can redistribute it and/or modify * it under the terms of the GNU General Public License version 2 as * published by the Free Software Foundation. * * 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. */ #include "generalsettings.h" #include "appdata.h" #include "eeprominterface.h" #include "radiodataconversionstate.h" #include "compounditemmodels.h" const uint8_t chout_ar[] = { // First number is 0..23 -> template setup, Second is relevant channel out 1,2,3,4 , 1,2,4,3 , 1,3,2,4 , 1,3,4,2 , 1,4,2,3 , 1,4,3,2, 2,1,3,4 , 2,1,4,3 , 2,3,1,4 , 2,3,4,1 , 2,4,1,3 , 2,4,3,1, 3,1,2,4 , 3,1,4,2 , 3,2,1,4 , 3,2,4,1 , 3,4,1,2 , 3,4,2,1, 4,1,2,3 , 4,1,3,2 , 4,2,1,3 , 4,2,3,1 , 4,3,1,2 , 4,3,2,1 }; bool GeneralSettings::switchPositionAllowed(int index) const { if (index == 0) return true; div_t qr = div(abs(index) - 1, 3); if (index < 0 && switchConfig[qr.quot].type != Board::SWITCH_3POS) return false; else if (qr.rem == 1) return switchConfig[qr.quot].type == Board::SWITCH_3POS; else return switchConfig[qr.quot].type != Board::SWITCH_NOT_AVAILABLE; } bool GeneralSettings::switchSourceAllowed(int index) const { return switchConfig[index].type != Board::SWITCH_NOT_AVAILABLE; } bool GeneralSettings::isInputAvailable(int index) const { Board::Type board = getCurrentBoard(); if (index < 0 || index >= Boards::getCapability(board, Board::Inputs)) return false; const InputConfig &config = inputConfig[index]; return (config.type == Board::AIT_STICK || (config.type == Board::AIT_FLEX && config.flexType != Board::FLEX_NONE)); } bool GeneralSettings::isInputFlexSwitchAvailable(int index) const { Board::Type board = getCurrentBoard(); if (index < 0 || index >= Boards::getCapability(board, Board::Inputs)) return false; const InputConfig &config = inputConfig[index]; return (config.type == Board::AIT_FLEX && config.flexType == Board::FLEX_SWITCH); } bool GeneralSettings::isInputMultiPosPot(int index) const { if (isInputAvailable(index)) { const InputConfig &config = inputConfig[index]; return (config.type == Board::AIT_FLEX && config.flexType == Board::FLEX_MULTIPOS); } return false; } bool GeneralSettings::isInputPot(int index) const { if (isInputAvailable(index)) { const InputConfig &config = inputConfig[index]; return (config.type == Board::AIT_FLEX && (config.flexType == Board::FLEX_POT || config.flexType == Board::FLEX_POT_CENTER || config.flexType == Board::FLEX_MULTIPOS)); } return false; } bool GeneralSettings::isInputSlider(int index) const { if (isInputAvailable(index)) { const InputConfig &config = inputConfig[index]; return (config.type == Board::AIT_FLEX && config.flexType == Board::FLEX_SLIDER); } return false; } bool GeneralSettings::isInputStick(int index) const { if (isInputAvailable(index)) { const InputConfig &config = inputConfig[index]; return config.type == Board::AIT_STICK; } return false; } // pre v2.10 support // post refactor clean up - where do we call this from? bool GeneralSettings::isMultiPosPot(int index) const { return isInputMultiPosPot(Boards::getInputPotIndex(index)); } // pre v2.10 support // post refactor clean up - where do we call this from? bool GeneralSettings::isPotAvailable(int index) const { return isInputPot(Boards::getInputPotIndex(index)); } // pre v2.10 support // post refactor clean up - where do we call this from? bool GeneralSettings::isSliderAvailable(int index) const { return isInputSlider(Boards::getInputSliderIndex(index)); } bool GeneralSettings::isSwitchAvailable(int index) const { if (index < 0 || index >= Boards::getCapability(getCurrentBoard(), Board::Switches)) return false; const SwitchConfig &config = switchConfig[index]; return config.type != Board::SWITCH_NOT_AVAILABLE; } bool GeneralSettings::isSwitchFlex(int index) const { return Boards::isSwitchFlex(index); } bool GeneralSettings::unassignedInputFlexSwitches() const { Board::Type board = getCurrentBoard(); int cnt = 0; for (int i = 0; i < Boards::getCapability(board, Board::Inputs); i++) { if (inputConfig[i].flexType == Board::FLEX_SWITCH) cnt++; } return cnt < Boards::getCapability(board, Board::FlexSwitches); } void GeneralSettings::clear() { memset(reinterpret_cast(this), 0, sizeof(GeneralSettings)); init(); } void GeneralSettings::init() { Firmware * firmware = Firmware::getCurrentVariant(); Board::Type board = firmware->getBoard(); // vBatWarn is voltage in 100mV, vBatMin is in 100mV but with -9V offset, vBatMax has a -12V offset vBatWarn = 90; if (IS_TARANIS_X9E(board) || IS_HORUS_X12S(board)) { // NI-MH 9.6V vBatWarn = 87; vBatMin = -5; //8,5V vBatMax = -5; //11,5V } else if (IS_TARANIS_XLITE(board) || IS_HORUS_X10(board) || IS_FAMILY_T16(board)) { // Lipo 2S vBatWarn = 66; vBatMin = -23; // 6.7V vBatMax = -37; // 8.3V } else if (IS_JUMPER_TLITE(board)) { // 1S Li-Ion vBatWarn = 32; vBatMin = -60; //3V vBatMax = -78; //4.2V } else if (IS_TARANIS(board)) { // NI-MH 7.2V, X9D, X9D+ and X7 vBatWarn = 65; vBatMin = -30; //6V vBatMax = -40; //8V } setDefaultControlTypes(board); backlightMode = 3; // keys and sticks backlightDelay = 2; // 2 * 5 = 10 secs inactivityTimer = 10; hatsMode = HATSMODE_SWITCHABLE; // backlightBright = 0; // 0 = 100% if (IS_FAMILY_HORUS_OR_T16(board)) { backlightOffBright = 20; } speakerVolume = 12; wavVolume = 2; backgroundVolume = 1; if (IS_TARANIS(board)) contrast = 25; if (IS_JUMPER_T16(board)) strcpy(bluetoothName, "t16"); else if (IS_FLYSKY_NV14(board)) strcpy(bluetoothName, "nv14"); else if (IS_FLYSKY_PL18(board)) strcpy(bluetoothName, "pl18"); else if (IS_FAMILY_HORUS_OR_T16(board)) strcpy(bluetoothName, "horus"); else if (IS_TARANIS_X9E(board) || IS_TARANIS_SMALL(board)) strcpy(bluetoothName, "taranis"); for (uint8_t i = 0; i < 4; i++) { trainer.mix[i].mode = TrainerMix::TRN_MIX_MODE_SUBST; trainer.mix[i].src = i; trainer.mix[i].weight = 100; } ttsLanguage[0] = 'e'; ttsLanguage[1] = 'n'; templateSetup = g.profile[g.sessionId()].channelOrder(); stickMode = g.profile[g.sessionId()].defaultMode(); QString t_calib = g.profile[g.sessionId()].stickPotCalib(); if (!t_calib.isEmpty()) { QString t_trainercalib=g.profile[g.sessionId()].trainerCalib(); int8_t t_txVoltageCalibration=(int8_t)g.profile[g.sessionId()].txVoltageCalibration(); int8_t t_txCurrentCalibration=(int8_t)g.profile[g.sessionId()].txCurrentCalibration(); int8_t t_PPM_Multiplier=(int8_t)g.profile[g.sessionId()].ppmMultiplier(); uint8_t t_stickMode=(uint8_t)g.profile[g.sessionId()].gsStickMode(); uint8_t t_vBatWarn=(uint8_t)g.profile[g.sessionId()].vBatWarn(); QString t_DisplaySet=g.profile[g.sessionId()].display(); QString t_BeeperSet=g.profile[g.sessionId()].beeper(); QString t_HapticSet=g.profile[g.sessionId()].haptic(); QString t_SpeakerSet=g.profile[g.sessionId()].speaker(); QString t_CountrySet=g.profile[g.sessionId()].countryCode(); if ((t_calib.length() == (Boards::getInputsCalibrated() * 12)) && (t_trainercalib.length() == 16)) { QString Byte; int16_t byte16; bool ok; for (int i = 0; i < Boards::getCapability(board, Board::Inputs); i++) { if (Boards::isInputCalibrated(i)) { Byte = t_calib.mid(i * 12, 4); byte16 = (int16_t)Byte.toInt(&ok, 16); if (ok) inputConfig[i].calib.mid = byte16; Byte = t_calib.mid(4 + i * 12, 4); byte16 = (int16_t)Byte.toInt(&ok, 16); if (ok) inputConfig[i].calib.spanNeg = byte16; Byte = t_calib.mid(8 + i * 12, 4); byte16 = (int16_t)Byte.toInt(&ok, 16); if (ok) inputConfig[i].calib.spanPos = byte16; } } for (int i = 0; i < Boards::getCapability(board, Board::Sticks); i++) { Byte = t_trainercalib.mid(i * 4, 4); byte16 = (int16_t)Byte.toInt(&ok, 16); if (ok) trainer.calib[i] = byte16; } txCurrentCalibration = t_txCurrentCalibration; txVoltageCalibration = t_txVoltageCalibration; vBatWarn = t_vBatWarn; PPM_Multiplier = t_PPM_Multiplier; stickMode = t_stickMode; } if ((t_DisplaySet.length()==6) && (t_BeeperSet.length()==4) && (t_HapticSet.length()==6) && (t_SpeakerSet.length()==6)) { uint8_t byte8u; int8_t byte8; bool ok; byte8=(int8_t)t_DisplaySet.mid(0,2).toInt(&ok,16); if (ok) optrexDisplay=(byte8==1 ? true : false); byte8u=(uint8_t)t_DisplaySet.mid(2,2).toUInt(&ok,16); if (ok) contrast=byte8u; byte8u=(uint8_t)t_DisplaySet.mid(4,2).toUInt(&ok,16); if (ok) backlightBright=byte8u; byte8=(int8_t)t_BeeperSet.mid(0,2).toUInt(&ok,16); if (ok) beeperMode=(BeeperMode)byte8; byte8=(int8_t)t_BeeperSet.mid(2,2).toInt(&ok,16); if (ok) beeperLength=byte8; byte8=(int8_t)t_HapticSet.mid(0,2).toUInt(&ok,16); if (ok) hapticMode=(BeeperMode)byte8; byte8=(int8_t)t_HapticSet.mid(2,2).toInt(&ok,16); if (ok) hapticStrength=byte8; byte8=(int8_t)t_HapticSet.mid(4,2).toInt(&ok,16); if (ok) hapticLength=byte8; byte8u=(uint8_t)t_SpeakerSet.mid(0,2).toUInt(&ok,16); if (ok) speakerMode=byte8u; byte8u=(uint8_t)t_SpeakerSet.mid(2,2).toUInt(&ok,16); if (ok) speakerPitch=byte8u; byte8u=(uint8_t)t_SpeakerSet.mid(4,2).toUInt(&ok,16); if (ok) speakerVolume=byte8u; if (t_CountrySet.length()==6) { byte8u=(uint8_t)t_CountrySet.mid(0,2).toUInt(&ok,16); if (ok) countryCode=byte8u; byte8u=(uint8_t)t_CountrySet.mid(2,2).toUInt(&ok,16); if (ok) imperial=byte8u; QString chars = t_CountrySet.mid(4, 2); ttsLanguage[0] = chars[0].toLatin1(); ttsLanguage[1] = chars[1].toLatin1(); } } } internalModule = g.profile[g.sessionId()].defaultInternalModule(); if (IS_FLYSKY_NV14(board) || IS_FLYSKY_PL18(board)) stickDeadZone = 2; } void GeneralSettings::setDefaultControlTypes(Board::Type board) { for (int i = 0; i < Boards::getCapability(board, Board::Inputs); i++) { if (!Boards::isInputIgnored(i, board)) { Board::InputInfo info = Boards::getInputInfo(i, board); inputConfig[i].type = info.type; inputConfig[i].flexType = info.flexType; inputConfig[i].inverted = info.inverted; } } for (int i = 0; i < Boards::getCapability(board, Board::Inputs); ++i) { if (!Boards::isInputCalibrated(i, board)) continue; Board::InputInfo info = Boards::getInputInfo(i, board); if (info.type == Board::AIT_FLEX && info.flexType == Board::FLEX_MULTIPOS) { inputConfig[i].calib.mid = 773; inputConfig[i].calib.spanNeg = 5388; inputConfig[i].calib.spanPos = 9758; } else { inputConfig[i].calib.mid = 0x200; inputConfig[i].calib.spanNeg = 0x180; inputConfig[i].calib.spanPos = 0x180; } } for (int i = 0; i < Boards::getCapability(board, Board::Switches); i++) { Board::SwitchInfo info = Boards::getSwitchInfo(i, board); switchConfig[i].type = info.dflt; switchConfig[i].inverted = info.inverted; switchConfig[i].inputIdx = SWITCH_INPUTINDEX_NONE; } } int GeneralSettings::getDefaultStick(unsigned int channel) const { if (channel >= CPN_MAX_STICKS) return -1; else return chout_ar[4 * templateSetup + channel] - 1; } RawSource GeneralSettings::getDefaultSource(unsigned int channel) const { int stick = getDefaultStick(channel); if (stick >= 0) return RawSource(SOURCE_TYPE_STICK, stick); else return RawSource(SOURCE_TYPE_NONE); } int GeneralSettings::getDefaultChannel(unsigned int stick) const { for (int i = 0; i < 4; i++){ if (getDefaultStick(i) == (int)stick) return i; } return -1; } void GeneralSettings::convert(RadioDataConversionState & cstate) { // Here we can add explicit conversions when moving from one board to another cstate.setOrigin(tr("Radio Settings")); cstate.setComponent(tr("Hardware")); cstate.setSubComp(tr("Internal Module")); RadioDataConversionState::LogField oldData(internalModule, ModuleData::typeToString(internalModule)); if (internalModule != MODULE_TYPE_NONE && (int)internalModule != g.currentProfile().defaultInternalModule()) { internalModule = MODULE_TYPE_NONE; cstate.setInvalid(oldData); } // Try to intelligently copy any custom controls // step 1 clear current config memset(&inputConfig[0], '0', sizeof(InputConfig) * CPN_MAX_INPUTS); memset(&switchConfig[0], '0', sizeof(SwitchConfig) * CPN_MAX_SWITCHES); // step 2 load default config setDefaultControlTypes(cstate.toType); // step 3 copy matching config based on tags cstate.setSubComp(tr("Axis & Pots")); for (int i = 0; i < Boards::getCapability(cstate.fromType, Board::Inputs); i++) { if (Boards::isInputConfigurable(i, cstate.fromType)) { cstate.setItemType(Boards::isInputStick(i, cstate.fromType) ? tr("Axis") : tr("Pot")); RadioDataConversionState::LogField oldData(i, Boards::getInputName(i, cstate.fromType)); const int idx = Boards::getInputIndex(Boards::getInputTag(i, cstate.fromType), Board::LVT_TAG, cstate.toType); if (idx > -1) { const InputConfig &fromcfg = cstate.fromGS()->inputConfig[i]; InputConfig &tocfg = inputConfig[idx]; strncpy(tocfg.name, fromcfg.name, sizeof(inputConfig[0].name)); tocfg.type = fromcfg.type; if (tocfg.type == Board::AIT_FLEX && !Boards::getCapability(cstate.toType, Board::FlexSwitches) && fromcfg.flexType == Board::FLEX_SWITCH) { cstate.withComponentField(Boards::getInputName(i, cstate.fromType)); RadioDataConversionState::LogField oldFT(i, Boards::flexTypeToString(fromcfg.flexType)); tocfg.flexType = Board::FLEX_NONE; cstate.setConverted(oldFT, RadioDataConversionState::LogField(i, Boards::flexTypeToString(tocfg.flexType))); } else tocfg.flexType = fromcfg.flexType; tocfg.inverted = fromcfg.inverted; // do not copy calibration - use defaults as safer } else if (cstate.fromGS()->inputConfig[i].type == Board::AIT_FLEX && cstate.fromGS()->inputConfig[i].flexType != Board::FLEX_NONE) { cstate.setInvalid(oldData); } } } cstate.setSubComp(tr("Switches")); for (int i = 0; i < Boards::getCapability(cstate.fromType, Board::Switches); i++) { if (Boards::isSwitchConfigurable(i, cstate.fromType)) { cstate.setItemType(Boards::isSwitchFlex(i, cstate.fromType) ? tr("Flex Switch") : Boards::isSwitchFunc(i, cstate.fromType) ? tr("Function Switch") : tr("Switch")); RadioDataConversionState::LogField oldData(i, Boards::getSwitchName(i, cstate.fromType)); const int idx = Boards::getSwitchIndex(Boards::getSwitchTag(i, cstate.fromType), Board::LVT_TAG, cstate.toType); if (idx > -1) { const SwitchConfig &fromcfg = cstate.fromGS()->switchConfig[i]; SwitchConfig &tocfg = switchConfig[idx]; strncpy(tocfg.name, fromcfg.name, sizeof(switchConfig[0].name)); if (Boards::getSwitchInfo(i, cstate.fromType).type > Boards::getSwitchInfo(idx, cstate.toType).type) { cstate.withComponentField(Boards::getSwitchName(i, cstate.fromType)); RadioDataConversionState::LogField oldSWT(i, Boards::switchTypeToString(fromcfg.type)); tocfg.type = Board::SWITCH_NOT_AVAILABLE; cstate.setConverted(oldSWT, RadioDataConversionState::LogField(i, Boards::switchTypeToString(fromcfg.type))); } else tocfg.type = fromcfg.type; tocfg.inverted = fromcfg.inverted; if (fromcfg.inputIdx != SWITCH_INPUTINDEX_NONE) { if (!Boards::getCapability(cstate.toType, Board::FlexSwitches) || Boards::getInputIndex(Boards::getInputTag(fromcfg.inputIdx, cstate.fromType), Board::LVT_TAG, cstate.toType) < 0) { cstate.withComponentField(Boards::getSwitchName(i, cstate.fromType)); RadioDataConversionState::LogField oldFT(i, Boards::getInputName(fromcfg.inputIdx, cstate.fromType)); tocfg.inputIdx = SWITCH_INPUTINDEX_NONE; cstate.setConverted(oldFT, RadioDataConversionState::LogField(i, tr("None"))); } else tocfg.inputIdx = fromcfg.inputIdx; } } else if (cstate.fromGS()->switchConfig[i].type != Board::SWITCH_NOT_AVAILABLE) { cstate.setInvalid(oldData); } } } if (IS_TARANIS(cstate.toType)) { contrast = qBound(getCurrentFirmware()->getCapability(MinContrast), contrast, getCurrentFirmware()->getCapability(MaxContrast)); } // TODO: Would be nice at this point to have GUI pause and ask the user to set up any custom hardware they have on the destination radio. // Convert all global functions (do this after HW adjustments) for (int i = 0; i < CPN_MAX_SPECIAL_FUNCTIONS; i++) { customFn[i].convert(cstate.withComponentIndex(i)); } } QString GeneralSettings::antennaModeToString() const { return antennaModeToString(antennaMode); } QString GeneralSettings::bluetoothModeToString() const { return bluetoothModeToString(bluetoothMode); } QString GeneralSettings::serialPortModeToString(int port_nr) const { if (port_nr < 0 || port_nr >= SP_COUNT) return QString(); return serialModeToString(serialPort[port_nr]); } QString GeneralSettings::internalModuleBaudrateToString() const { return moduleBaudrateToString(internalModuleBaudrate); } // static QString GeneralSettings::antennaModeToString(int value) { Board::Type board = getCurrentBoard(); switch(value) { case ANTENNA_MODE_INTERNAL: return tr("Internal"); case ANTENNA_MODE_ASK: return tr("Ask"); case ANTENNA_MODE_PER_MODEL: return tr("Per model"); case ANTENNA_MODE_EXTERNAL: // case ANTENNA_MODE_INTERNAL_EXTERNAL: return IS_HORUS_X12S(board) ? tr("Internal + External") : tr("External"); default: return CPN_STR_UNKNOWN_ITEM; } } // static QString GeneralSettings::bluetoothModeToString(int value) { Board::Type board = getCurrentBoard(); switch(value) { case BLUETOOTH_MODE_OFF: return tr("OFF"); case BLUETOOTH_MODE_ENABLED: // case BLUETOOTH_MODE_TELEMETRY: return IS_TARANIS_X9E(board) ? tr("Enabled") : tr("Telemetry"); case BLUETOOTH_MODE_TRAINER: return tr("Trainer"); default: return CPN_STR_UNKNOWN_ITEM; } } // static QString GeneralSettings::serialModeToString(int value) { switch(value) { case AUX_SERIAL_OFF: return tr("OFF"); case AUX_SERIAL_TELE_MIRROR: return tr("Telemetry Mirror"); case AUX_SERIAL_TELE_IN: return tr("Telemetry In"); case AUX_SERIAL_SBUS_TRAINER: return tr("SBUS Trainer"); case AUX_SERIAL_LUA: return tr("LUA"); case AUX_SERIAL_CLI: return tr("CLI"); case AUX_SERIAL_GPS: return tr("GPS"); case AUX_SERIAL_DEBUG: return tr("Debug"); case AUX_SERIAL_SPACEMOUSE: return tr("SpaceMouse"); case AUX_SERIAL_EXT_MODULE: return tr("External module"); default: return CPN_STR_UNKNOWN_ITEM; } } // static QString GeneralSettings::moduleBaudrateToString(int value) { return moduleBaudratesList.value(value, CPN_STR_UNKNOWN_ITEM); } // static FieldRange GeneralSettings::getPPM_MultiplierRange() { FieldRange result; result.min = 0; result.max = 5; result.decimals = 1; result.step = 0.1; result.offset = 10; return result; } // static FieldRange GeneralSettings::getTxCurrentCalibration() { FieldRange result; result.max = 49; result.min = -result.max; result.unit = tr("mA"); return result; } // static AbstractStaticItemModel * GeneralSettings::antennaModeItemModel(bool model_setup) { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_GS_ANTENNAMODE); for (int i = ANTENNA_MODE_FIRST; i <= ANTENNA_MODE_LAST; i++) { mdl->appendToItemList(antennaModeToString(i), i, model_setup ? i != ANTENNA_MODE_PER_MODEL : true); } mdl->loadItemList(); return mdl; } // static AbstractStaticItemModel * GeneralSettings::bluetoothModeItemModel() { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_GS_BLUETOOTHMODE); for (int i = 0; i < BLUETOOTH_MODE_COUNT; i++) { mdl->appendToItemList(bluetoothModeToString(i), i); } mdl->loadItemList(); return mdl; } // static AbstractStaticItemModel * GeneralSettings::serialModeItemModel() { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_GS_SERIALMODE); for (int i = 0; i < AUX_SERIAL_COUNT; i++) { int contexts = AllAuxSerialModeContexts; if (i == AUX_SERIAL_EXT_MODULE) { contexts &= ~(AUX2Context | VCPContext); } else if (i == AUX_SERIAL_TELE_IN || i == AUX_SERIAL_SBUS_TRAINER || i == AUX_SERIAL_GPS || i == AUX_SERIAL_SPACEMOUSE || i == AUX_SERIAL_EXT_MODULE) { contexts &= ~VCPContext; } mdl->appendToItemList(serialModeToString(i), i, true, 0, contexts); } mdl->loadItemList(); return mdl; } // static AbstractStaticItemModel * GeneralSettings::internalModuleBaudrateItemModel() { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_GS_INTMODULEBAUDRATE); for (int i = 0; i < moduleBaudratesList.size(); i++) { mdl->appendToItemList(moduleBaudrateToString(i), i); } mdl->loadItemList(); return mdl; } // static AbstractStaticItemModel * GeneralSettings::stickDeadZoneItemModel() { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_GS_STICKDEADZONE); for (int i = 0; i <= 7; i++) { mdl->appendToItemList(i ? QString::number((int)(2 << (i - 1))) : QString::number(0), i); } mdl->loadItemList(); return mdl; } QString GeneralSettings::uartSampleModeToString() const { return uartSampleModeToString(uartSampleMode); } // static QString GeneralSettings::uartSampleModeToString(int value) { switch(value) { case UART_SAMPLE_MODE_NORMAL: return tr("Normal"); case UART_SAMPLE_MODE_ONEBIT: return tr("OneBit"); default: return CPN_STR_UNKNOWN_ITEM; } } // static AbstractStaticItemModel * GeneralSettings::uartSampleModeItemModel() { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_GS_UARTSAMPLEMODE); for (int i = 0; i < UART_SAMPLE_MODE_COUNT; i++) { mdl->appendToItemList(uartSampleModeToString(i), i); } mdl->loadItemList(); return mdl; } QString GeneralSettings::hatsModeToString() const { return hatsModeToString(hatsMode); } bool GeneralSettings::fix6POSCalibration() { bool changed = false; // Fix default 6POS calibration for (int i = CPN_MAX_STICKS; i < CPN_MAX_STICKS + CPN_MAX_POTS; i += 1) { if ((potConfig[i-CPN_MAX_STICKS] == Board::POT_MULTIPOS_SWITCH) && (calibMid[i] == 0x200) && (calibSpanNeg[i] == 0x180) && (calibSpanPos[i] == 0x180)) { calibMid[i] = 773;; calibSpanNeg[i] = 5388; calibSpanPos[i] = 9758; changed = true; } } return changed; } // static QString GeneralSettings::hatsModeToString(int value) { switch(value) { case HATSMODE_TRIMS_ONLY: return tr("Trims only"); case HATSMODE_KEYS_ONLY: return tr("Keys only"); case HATSMODE_SWITCHABLE: return tr("Switchable"); case HATSMODE_GLOBAL: return tr("Global"); default: return CPN_STR_UNKNOWN_ITEM; } } // static AbstractStaticItemModel * GeneralSettings::hatsModeItemModel(bool radio_setup) { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_GS_HATSMODE); for (int i = 0; i < HATSMODE_COUNT; i++) { mdl->appendToItemList(hatsModeToString(i), i, i == HATSMODE_GLOBAL && radio_setup ? false : true); } mdl->loadItemList(); return mdl; } // Legacy mapping static const StringTagMappingTable potTypesConversionTable = { {std::to_string(Board::POT_NONE), std::to_string(Board::FLEX_NONE)}, {std::to_string(Board::POT_WITH_DETENT), std::to_string(Board::FLEX_POT_CENTER)}, {std::to_string(Board::POT_MULTIPOS_SWITCH), std::to_string(Board::FLEX_MULTIPOS)}, {std::to_string(Board::POT_WITHOUT_DETENT), std::to_string(Board::FLEX_POT)}, {std::to_string(Board::POT_SLIDER_WITH_DETENT), std::to_string(Board::FLEX_SLIDER)}, }; static const StringTagMappingTable sliderTypesConversionTable = { {std::to_string(Board::SLIDER_NONE), std::to_string(Board::FLEX_NONE)}, {std::to_string(Board::SLIDER_WITH_DETENT), std::to_string(Board::FLEX_SLIDER)}, }; // This copies the pre v2.10 config to the new structs bool GeneralSettings::convertLegacyConfiguration(Board::Type board) { for (int i = 0; i < CPN_MAX_STICKS && i < Boards::getCapability(board, Board::Sticks); i++) { inputConfig[i].type = Board::AIT_STICK; strncpy(inputConfig[i].name, stickName[i], HARDWARE_NAME_LEN); } for (int i = 0; i < CPN_MAX_POTS && i < Boards::getCapability(board, Board::Pots); i++) { int idx = Boards::getInputPotIndex(i, board); if (idx >= 0) { inputConfig[idx].type = Board::AIT_FLEX; strncpy(inputConfig[idx].name, potName[i], HARDWARE_NAME_LEN); int ft = std::stoi(DataHelpers::getStringTagMappingTag(potTypesConversionTable, potConfig[i])); if (ft > -1) inputConfig[idx].flexType = (Board::FlexType)ft; } } for (int i = 0; i < CPN_MAX_SLIDERS && i < Boards::getCapability(board, Board::Sliders); i++) { int idx = Boards::getInputSliderIndex(i, board); if (idx >= 0) { inputConfig[idx].type = Board::AIT_FLEX; strncpy(inputConfig[idx].name, sliderName[i], HARDWARE_NAME_LEN); int ft = std::stoi(DataHelpers::getStringTagMappingTag(sliderTypesConversionTable, sliderConfig[i])); if (ft > -1) inputConfig[idx].flexType = (Board::FlexType)ft; } } for (int i = 0; i < CPN_MAX_ANALOGS && i < Boards::getInputsCalibrated(board); i++) { inputConfig[i].calib.mid = calibMid[i]; inputConfig[i].calib.spanNeg = calibSpanNeg[i]; inputConfig[i].calib.spanPos = calibSpanPos[i]; } for (int i = 0; i < CPN_MAX_SWITCHES && i < Boards::getCapability(board, Board::Switches); i++) { switchConfig[i].type = (Board::SwitchType)swtchConfig[i]; strncpy(switchConfig[i].name, swtchName[i], HARDWARE_NAME_LEN); } return true; } void GeneralSettings::validateFlexSwitches() { for (int i = 0; i < CPN_MAX_SWITCHES_FLEX; i++) { if (inputConfig[switchConfig[i].inputIdx].flexType != Board::FLEX_SWITCH) switchConfig[i].inputIdx = -1; int idx = Boards::getSwitchIndex(QString("FL%1").arg(i), Board::LVT_TAG); if (idx >= 0) { if (switchConfig[idx].type == Board::SWITCH_NOT_AVAILABLE) switchConfig[i].inputIdx = -1; } } } /* TrainerMix */ QString TrainerMix::modeToString() const { return modeToString(mode); } QString TrainerMix::srcToString() const { return srcToString(src); } // static FieldRange TrainerMix::getWeightRange() { FieldRange result; result.decimals = 0; result.max = 125; result.min = -result.max; result.step = 1; return result; } // static QString TrainerMix::modeToString(int value) { switch(value) { case TRN_MIX_MODE_OFF: return tr("OFF"); case TRN_MIX_MODE_ADD: return tr("+= (Sum)"); case TRN_MIX_MODE_SUBST: return tr(":= (Replace)"); default: return CPN_STR_UNKNOWN_ITEM; } } // static QString TrainerMix::srcToString(int value) { return tr("CH%1").arg(value + 1); } // static AbstractStaticItemModel * TrainerMix::modeItemModel() { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_TRAINERMIX_MODE); for (int i = 0; i < TRN_MIX_MODE_COUNT; i++) { mdl->appendToItemList(modeToString(i), i); } mdl->loadItemList(); return mdl; } // static AbstractStaticItemModel * TrainerMix::srcItemModel() { AbstractStaticItemModel * mdl = new AbstractStaticItemModel(); mdl->setName(AIM_TRAINERMIX_SRC); for (int i = 0; i < Boards::getCapability(getCurrentBoard(), Board::Sticks); i++) { mdl->appendToItemList(srcToString(i), i); } mdl->loadItemList(); return mdl; }