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opentx/radio/src/storage/eeprom_conversions.cpp
2016-07-29 14:44:59 +02:00

1292 lines
40 KiB
C++

/*
* 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 "opentx.h"
enum Mix216Sources {
MIXSRC216_NONE,
#if defined(PCBTARANIS)
MIXSRC216_FIRST_INPUT,
MIXSRC216_LAST_INPUT = MIXSRC216_FIRST_INPUT+MAX_INPUTS-1,
MIXSRC216_FIRST_LUA,
MIXSRC216_LAST_LUA = MIXSRC216_FIRST_LUA+(MAX_SCRIPTS*MAX_SCRIPT_OUTPUTS)-1,
#endif
MIXSRC216_Rud,
MIXSRC216_Ele,
MIXSRC216_Thr,
MIXSRC216_Ail,
MIXSRC216_FIRST_POT,
#if defined(PCBTARANIS)
MIXSRC216_POT1 = MIXSRC216_FIRST_POT,
MIXSRC216_POT2,
MIXSRC216_POT3,
MIXSRC216_SLIDER1,
MIXSRC216_SLIDER2,
MIXSRC216_LAST_POT = MIXSRC216_SLIDER2,
#else
MIXSRC216_P1 = MIXSRC216_FIRST_POT,
MIXSRC216_P2,
MIXSRC216_P3,
MIXSRC216_LAST_POT = MIXSRC216_P3,
#endif
#if defined(PCBSKY9X)
MIXSRC216_REa,
MIXSRC216_LAST_ROTARY_ENCODER = MIXSRC216_REa,
#endif
MIXSRC216_MAX,
MIXSRC216_CYC1,
MIXSRC216_CYC2,
MIXSRC216_CYC3,
MIXSRC216_TrimRud,
MIXSRC216_TrimEle,
MIXSRC216_TrimThr,
MIXSRC216_TrimAil,
MIXSRC216_FIRST_SWITCH,
#if defined(PCBTARANIS)
MIXSRC216_SA = MIXSRC216_FIRST_SWITCH,
MIXSRC216_SB,
MIXSRC216_SC,
MIXSRC216_SD,
MIXSRC216_SE,
MIXSRC216_SF,
MIXSRC216_SG,
MIXSRC216_SH,
#else
MIXSRC216_3POS = MIXSRC216_FIRST_SWITCH,
MIXSRC216_THR,
MIXSRC216_RUD,
MIXSRC216_ELE,
MIXSRC216_AIL,
MIXSRC216_GEA,
MIXSRC216_TRN,
#endif
MIXSRC216_FIRST_LOGICAL_SWITCH,
MIXSRC216_SW1 = MIXSRC216_FIRST_LOGICAL_SWITCH,
MIXSRC216_SW9 = MIXSRC216_SW1 + 8,
MIXSRC216_SWA,
MIXSRC216_SWB,
MIXSRC216_SWC,
MIXSRC216_LAST_LOGICAL_SWITCH = MIXSRC216_FIRST_LOGICAL_SWITCH+32-1,
MIXSRC216_FIRST_TRAINER,
MIXSRC216_LAST_TRAINER = MIXSRC216_FIRST_TRAINER+NUM_TRAINER-1,
MIXSRC216_FIRST_CH,
MIXSRC216_CH1 = MIXSRC216_FIRST_CH,
MIXSRC216_CH2,
MIXSRC216_CH3,
MIXSRC216_CH4,
MIXSRC216_CH5,
MIXSRC216_CH6,
MIXSRC216_CH7,
MIXSRC216_CH8,
MIXSRC216_CH9,
MIXSRC216_CH10,
MIXSRC216_CH11,
MIXSRC216_CH12,
MIXSRC216_CH13,
MIXSRC216_CH14,
MIXSRC216_CH15,
MIXSRC216_CH16,
MIXSRC216_LAST_CH = MIXSRC216_CH1+NUM_CHNOUT-1,
MIXSRC216_GVAR1,
MIXSRC216_LAST_GVAR = MIXSRC216_GVAR1+MAX_GVARS-1,
MIXSRC216_FIRST_TELEM,
};
enum Telemetry216Source {
TELEM216_NONE,
TELEM216_TX_VOLTAGE,
TELEM216_TX_TIME,
TELEM216_RESERVE1,
TELEM216_RESERVE2,
TELEM216_RESERVE3,
TELEM216_RESERVE4,
TELEM216_RESERVE5,
TELEM216_TIMER1,
TELEM216_TIMER2,
TELEM216_SWR,
TELEM216_RSSI_TX,
TELEM216_RSSI_RX,
TELEM216_RESERVE0,
TELEM216_A1,
TELEM216_A2,
TELEM216_A3,
TELEM216_A4,
TELEM216_ALT,
TELEM216_RPM,
TELEM216_FUEL,
TELEM216_T1,
TELEM216_T2,
TELEM216_SPEED,
TELEM216_DIST,
TELEM216_GPSALT,
TELEM216_CELL,
TELEM216_CELLS_SUM,
TELEM216_VFAS,
TELEM216_CURRENT,
TELEM216_CONSUMPTION,
TELEM216_POWER,
TELEM216_ACCx,
TELEM216_ACCy,
TELEM216_ACCz,
TELEM216_HDG,
TELEM216_VSPEED,
TELEM216_ASPEED,
TELEM216_DTE,
TELEM216_RESERVE6,
TELEM216_RESERVE7,
TELEM216_RESERVE8,
TELEM216_RESERVE9,
TELEM216_RESERVE10,
TELEM216_MIN_A1,
TELEM216_MIN_A2,
TELEM216_MIN_A3,
TELEM216_MIN_A4,
TELEM216_MIN_ALT,
TELEM216_MAX_ALT,
TELEM216_MAX_RPM,
TELEM216_MAX_T1,
TELEM216_MAX_T2,
TELEM216_MAX_SPEED,
TELEM216_MAX_DIST,
TELEM216_MAX_ASPEED,
TELEM216_MIN_CELL,
TELEM216_MIN_CELLS_SUM,
TELEM216_MIN_VFAS,
TELEM216_MAX_CURRENT,
TELEM216_MAX_POWER,
TELEM216_RESERVE11,
TELEM216_RESERVE12,
TELEM216_RESERVE13,
TELEM216_RESERVE14,
TELEM216_RESERVE15,
TELEM216_ACC,
TELEM216_GPS_TIME,
};
#if defined(XCURVES)
PACK(typedef struct {
uint8_t type:3;
uint8_t smooth:1;
uint8_t spare:4;
int8_t points;
}) CurveData_v216;
#else
typedef int16_t CurveData_v216;
#endif
#if defined(PCBTARANIS)
PACK(typedef struct {
uint8_t srcRaw;
uint16_t scale;
uint8_t chn;
int8_t swtch;
uint16_t flightModes;
int8_t weight;
int8_t carryTrim:6;
uint8_t mode:2;
char name[LEN_EXPOMIX_NAME];
int8_t offset;
CurveRef curve;
uint8_t spare;
}) ExpoData_v216;
PACK(typedef struct {
uint32_t srcRaw:10;
uint32_t scale:14;
uint32_t chn:8;
int8_t swtch;
uint16_t flightModes;
int8_t weight;
int8_t carryTrim:6;
uint8_t mode:2;
char name[LEN_EXPOMIX_NAME];
int8_t offset;
CurveRef curve;
}) ExpoData_v217;
#else
PACK(typedef struct {
uint8_t mode:2; // 0=end, 1=pos, 2=neg, 3=both
uint8_t chn:4;
uint8_t curveMode:2;
int8_t swtch;
uint16_t flightModes;
int8_t weight;
char name[LEN_EXPOMIX_NAME];
int8_t curveParam;
}) ExpoData_v216;
typedef ExpoData_v216 ExpoData_v217;
#endif
#if defined(PCBTARANIS)
PACK(typedef struct {
int16_t min;
int16_t max;
int8_t ppmCenter;
int16_t offset:14;
uint16_t symetrical:1;
uint16_t revert:1;
char name[LEN_CHANNEL_NAME];
int8_t curve;
}) LimitData_v216;
#else
#define LimitData_v216 LimitData
#endif
#if defined(PCBTARANIS)
PACK(typedef struct {
uint8_t destCh;
uint16_t flightModes;
uint8_t mltpx:2; // multiplex method: 0 means +=, 1 means *=, 2 means :=
uint8_t carryTrim:1;
uint8_t spare1:5;
int16_t weight;
int8_t swtch;
CurveRef curve;
uint8_t mixWarn:4; // mixer warning
uint8_t spare2:4;
uint8_t delayUp;
uint8_t delayDown;
uint8_t speedUp;
uint8_t speedDown;
uint8_t srcRaw;
int16_t offset;
char name[LEN_EXPOMIX_NAME];
uint8_t spare3;
}) MixData_v216;
PACK(typedef struct {
uint8_t destCh;
uint16_t flightModes:9;
uint16_t mltpx:2; // multiplex method: 0 means +=, 1 means *=, 2 means :=
uint16_t carryTrim:1;
uint16_t mixWarn:4; // mixer warning
int16_t weight;
uint32_t srcRaw:10;
int32_t offset:14;
int32_t swtch:8;
CurveRef curve;
uint8_t delayUp;
uint8_t delayDown;
uint8_t speedUp;
uint8_t speedDown;
char name[LEN_EXPOMIX_NAME];
}) MixData_v217;
#else
PACK(typedef struct {
uint8_t destCh:5;
uint8_t mixWarn:3; // mixer warning
uint16_t flightModes;
uint8_t curveMode:1;
uint8_t noExpo:1;
int8_t carryTrim:3;
uint8_t mltpx:2; // multiplex method: 0 means +=, 1 means *=, 2 means :=
uint8_t spare:1;
int16_t weight;
int8_t swtch;
int8_t curveParam;
uint8_t delayUp;
uint8_t delayDown;
uint8_t speedUp;
uint8_t speedDown;
uint8_t srcRaw;
int16_t offset;
char name[LEN_EXPOMIX_NAME];
}) MixData_v216;
typedef MixData MixData_v217;
#endif
PACK(typedef struct {
int8_t mode; // timer trigger source -> off, abs, stk, stk%, sw/!sw, !m_sw/!m_sw
uint16_t start;
uint8_t countdownBeep:2;
uint8_t minuteBeep:1;
uint8_t persistent:2;
uint8_t spare:3;
uint16_t value;
}) TimerData_v216;
PACK(typedef struct {
int32_t mode:8; // timer trigger source -> off, abs, stk, stk%, sw/!sw, !m_sw/!m_sw
uint32_t start:24;
int32_t value:24;
uint32_t countdownBeep:2;
uint32_t minuteBeep:1;
uint32_t persistent:2;
uint32_t spare:3;
char name[LEN_TIMER_NAME];
}) TimerData_v217;
PACK(typedef struct {
int16_t trim[NUM_STICKS];
int8_t swtch; // swtch of phase[0] is not used
char name[LEN_FLIGHT_MODE_NAME];
uint8_t fadeIn;
uint8_t fadeOut;
int16_t rotaryEncoders[1];
gvar_t gvars[9];
}) FlightModeData_v216;
PACK(typedef struct { // Logical Switches data
int8_t v1;
int16_t v2;
int16_t v3;
uint8_t func;
uint8_t delay;
uint8_t duration;
int8_t andsw;
}) LogicalSwitchData_v216;
PACK(typedef struct { // Logical Switches data
uint16_t func:6;
int16_t v1:10;
int16_t v2;
int16_t v3;
uint8_t delay;
uint8_t duration;
int8_t andsw;
}) LogicalSwitchData_v217;
#if defined(PCBTARANIS)
PACK(typedef struct {
int8_t swtch;
uint8_t func;
PACK(union {
PACK(struct {
char name[8];
}) play;
PACK(struct {
int16_t val;
uint8_t mode;
uint8_t param;
int32_t spare2;
}) all;
PACK(struct {
int32_t val1;
int32_t val2;
}) clear;
});
uint8_t active;
}) CustomFunctionData_v216;
#else
PACK(typedef struct {
int8_t swtch;
uint8_t func;
PACK(union {
PACK(struct {
char name[6];
}) play;
PACK(struct {
int16_t val;
uint8_t mode;
uint8_t param;
int16_t spare2;
}) all;
PACK(struct {
int32_t val1;
int16_t val2;
}) clear;
});
uint8_t active;
}) CustomFunctionData_v216;
#endif
PACK(typedef struct {
uint8_t source;
uint8_t barMin; // minimum for bar display
uint8_t barMax; // ditto for max display (would usually = ratio)
}) FrSkyBarData_v216;
PACK(typedef struct {
uint8_t sources[NUM_LINE_ITEMS];
}) FrSkyLineData_v216;
typedef union {
FrSkyBarData_v216 bars[4];
FrSkyLineData_v216 lines[4];
} FrSkyScreenData_v216;
PACK(typedef struct {
FrSkyChannelData channels[4];
uint8_t usrProto; // Protocol in FrSky user data, 0=None, 1=FrSky hub, 2=WS HowHigh, 3=Halcyon
uint8_t voltsSource:7;
uint8_t altitudeDisplayed:1;
int8_t blades; // How many blades for RPMs, 0=2 blades
uint8_t currentSource;
uint8_t screensType; // 2bits per screen (None/Gauges/Numbers/Script)
FrSkyScreenData_v216 screens[3];
uint8_t varioSource;
int8_t varioCenterMax;
int8_t varioCenterMin;
int8_t varioMin;
int8_t varioMax;
FrSkyRSSIAlarm rssiAlarms[2];
uint16_t mAhPersistent:1;
uint16_t storedMah:15;
int8_t fasOffset;
}) FrSkyData_v216;
PACK(typedef struct {
char file[10];
char name[10];
int8_t inputs[10];
}) ScriptData_v216;
PACK(typedef struct { // Swash Ring data
uint8_t invertELE:1;
uint8_t invertAIL:1;
uint8_t invertCOL:1;
uint8_t type:5;
uint8_t collectiveSource;
uint8_t value;
}) SwashRingData_v216;
PACK(typedef struct {
int8_t rfProtocol;
uint8_t channelsStart;
int8_t channelsCount; // 0=8 channels
uint8_t failsafeMode;
int16_t failsafeChannels[NUM_CHNOUT];
int8_t ppmDelay;
int8_t ppmFrameLength;
uint8_t ppmPulsePol;
}) ModuleData_v216;
#if defined(PCBTARANIS)
#define MODELDATA_EXTRA_216 \
uint8_t externalModule; \
uint8_t trainerMode; \
ModuleData_v216 moduleData[NUM_MODULES+1]; \
char curveNames[MAX_CURVES][6]; \
ScriptData_v216 scriptsData[MAX_SCRIPTS]; \
char inputNames[MAX_INPUTS][LEN_INPUT_NAME]; \
uint8_t nPotsToWarn; \
int8_t potPosition[NUM_POTS]; \
uint8_t spare[2];
#elif defined(PCBSKY9X)
#define MODELDATA_EXTRA_216 \
uint8_t externalModule; \
ModuleData_v216 moduleData[NUM_MODULES+1]; \
uint8_t nPotsToWarn; \
int8_t potPosition[NUM_POTS]; \
uint8_t rxBattAlarms[2];
#endif
#if defined(PCBTARANIS)
#define MODELDATA_EXTRA_217 \
uint8_t spare:3; \
uint8_t trainerMode:3; \
uint8_t potsWarnMode:2; \
ModuleData moduleData[NUM_MODULES+1]; \
char curveNames[MAX_CURVES][6]; \
ScriptData scriptsData[MAX_SCRIPTS]; \
char inputNames[MAX_INPUTS][LEN_INPUT_NAME]; \
uint8_t potsWarnEnabled; \
int8_t potsWarnPosition[NUM_POTS];
#else
#define MODELDATA_EXTRA_217 \
uint8_t spare:6; \
uint8_t potsWarnMode:2; \
ModuleData moduleData[NUM_MODULES+1]; \
uint8_t potsWarnEnabled; \
int8_t potsWarnPosition[NUM_POTS]; \
uint8_t rxBattAlarms[2];
#endif
#if defined(PCBTARANIS)
PACK(typedef struct {
char name[LEN_MODEL_NAME];
uint8_t modelId;
char bitmap[LEN_BITMAP_NAME];
}) ModelHeader_v216;
#else
PACK(typedef struct {
char name[LEN_MODEL_NAME];
uint8_t modelId;
}) ModelHeader_v216;
#endif
PACK(typedef struct {
ModelHeader_v216 header;
TimerData_v216 timers[2];
AVR_FIELD(uint8_t protocol:3)
ARM_FIELD(uint8_t telemetryProtocol:3)
uint8_t thrTrim:1; // Enable Throttle Trim
AVR_FIELD(int8_t ppmNCH:4)
ARM_FIELD(int8_t spare2:4)
int8_t trimInc:3; // Trim Increments
uint8_t disableThrottleWarning:1;
ARM_FIELD(uint8_t displayChecklist:1)
AVR_FIELD(uint8_t pulsePol:1)
uint8_t extendedLimits:1;
uint8_t extendedTrims:1;
uint8_t throttleReversed:1;
AVR_FIELD(int8_t ppmDelay)
BeepANACenter beepANACenter; // 1<<0->A1.. 1<<6->A7
MixData_v216 mixData[MAX_MIXERS];
LimitData_v216 limitData[NUM_CHNOUT];
ExpoData_v216 expoData[MAX_EXPOS];
CurveData_v216 curves[MAX_CURVES];
int8_t points[NUM_POINTS];
LogicalSwitchData_v216 logicalSw[32];
CustomFunctionData_v216 customFn[NUM_CFN];
SwashRingData_v216 swashR;
FlightModeData_v216 flightModeData[MAX_FLIGHT_MODES];
uint8_t thrTraceSrc;
uint16_t switchWarningState;
uint8_t switchWarningEnable;
GVarData gvars[MAX_GVARS];
FrSkyData_v216 frsky;
MODELDATA_EXTRA_216
}) ModelData_v216;
PACK(typedef struct {
ModelHeader header;
TimerData_v217 timers[MAX_TIMERS];
ARM_FIELD(uint8_t telemetryProtocol:3)
uint8_t thrTrim:1; // Enable Throttle Trim
ARM_FIELD(uint8_t noGlobalFunctions:1)
ARM_FIELD(uint8_t displayTrims:2)
ARM_FIELD(uint8_t ignoreSensorIds:1)
int8_t trimInc:3; // Trim Increments
uint8_t disableThrottleWarning:1;
ARM_FIELD(uint8_t displayChecklist:1)
uint8_t extendedLimits:1;
uint8_t extendedTrims:1;
uint8_t throttleReversed:1;
BeepANACenter beepANACenter;
MixData_v217 mixData[MAX_MIXERS];
LimitData limitData[NUM_CHNOUT];
ExpoData_v217 expoData[MAX_EXPOS];
CurveData_v216 curves[MAX_CURVES];
int8_t points[NUM_POINTS];
LogicalSwitchData_v217 logicalSw[32];
CustomFunctionData_v216 customFn[NUM_CFN];
SwashRingData swashR;
FlightModeData_v216 flightModeData[MAX_FLIGHT_MODES];
uint8_t thrTraceSrc;
swarnstate_t switchWarningState;
swarnenable_t switchWarningEnable;
GVarData gvars[MAX_GVARS];
FrSkyTelemetryData frsky;
MODELDATA_EXTRA_217
TelemetrySensor telemetrySensors[MAX_SENSORS];
TARANIS_PCBX9E_FIELD(uint8_t toplcdTimer)
}) ModelData_v217;
int ConvertTelemetrySource_216_to_217(int source)
{
// TELEM_TIMER3 added
// if (source >= TELEM_TIMER3)
// source += 1;
return source;
}
#if defined(PCBTARANIS)
int ConvertSwitch_216_to_217(int swtch)
{
if (swtch < 0)
return -ConvertSwitch_216_to_217(-swtch);
if (swtch > SWSRC_SF0)
swtch += 1;
if (swtch > SWSRC_SH0)
swtch += 1;
return swtch;
}
#else
int ConvertSwitch_216_to_217(int swtch)
{
return swtch;
}
#endif
int ConvertSwitch_217_to_218(int swtch)
{
// 32 additional logical switches
if (swtch < 0)
return -ConvertSwitch_217_to_218(-swtch);
if (swtch >= SWSRC_FIRST_LOGICAL_SWITCH+32)
return swtch+32;
return swtch;
}
int ConvertSource_216_to_217(int source)
{
#if defined(PCBX9E)
// SI to SR switches added
if (source >= MIXSRC_SI)
source += 10;
#endif
// Telemetry conversions
if (source >= MIXSRC_FIRST_TELEM)
source = 0;
return source;
}
int ConvertSource_217_to_218(int source)
{
#if defined(PCBTARANIS)
if (source >= MIXSRC_FIRST_LOGICAL_SWITCH + 32)
source += 32;
#endif
return source;
}
int ConvertGVar_216_to_217(int value)
{
if (value < -4096 + 9)
value += 4096 - 1024;
else if (value > 4095 - 9)
value -= 4095 - 1023;
return value;
}
PACK(typedef struct {
uint8_t version;
uint16_t variant;
CalibData calib[NUM_STICKS+NUM_POTS];
uint16_t chkSum;
int8_t currModel;
uint8_t contrast;
uint8_t vBatWarn;
int8_t txVoltageCalibration;
int8_t backlightMode;
TrainerData trainer;
uint8_t view; // index of view in main screen
int8_t buzzerMode:2; // -2=quiet, -1=only alarms, 0=no keys, 1=all
uint8_t fai:1;
int8_t beepMode:2; // -2=quiet, -1=only alarms, 0=no keys, 1=all
uint8_t alarmsFlash:1;
uint8_t disableMemoryWarning:1;
uint8_t disableAlarmWarning:1;
uint8_t stickMode:2;
int8_t timezone:5;
uint8_t adjustRTC:1;
uint8_t inactivityTimer;
uint8_t mavbaud:3;
int8_t splashMode:3;
int8_t hapticMode:2; // -2=quiet, -1=only alarms, 0=no keys, 1=all
int8_t switchesDelay;
uint8_t lightAutoOff;
uint8_t templateSetup; // RETA order for receiver channels
int8_t PPM_Multiplier;
int8_t hapticLength;
uint8_t reNavigation;
N_TARANIS_FIELD(uint8_t stickReverse)
int8_t beepLength:3;
int8_t hapticStrength:3;
uint8_t gpsFormat:1;
uint8_t unexpectedShutdown:1;
uint8_t speakerPitch;
int8_t speakerVolume;
int8_t vBatMin;
int8_t vBatMax;
uint8_t backlightBright;
int8_t txCurrentCalibration;
int8_t temperatureWarn;
uint8_t mAhWarn;
uint16_t mAhUsed;
uint32_t globalTimer;
int8_t temperatureCalib;
uint8_t btBaudrate;
uint8_t optrexDisplay;
uint8_t sticksGain;
uint8_t rotarySteps;
uint8_t countryCode;
uint8_t imperial;
char ttsLanguage[2];
int8_t beepVolume;
int8_t wavVolume;
int8_t varioVolume;
int8_t varioPitch;
int8_t varioRange;
int8_t varioRepeat;
int8_t backgroundVolume;
TARANIS_FIELD(uint8_t serial2Mode : 6)
TARANIS_FIELD(uint8_t slidersConfig : 2)
TARANIS_FIELD(uint8_t potsConfig)
TARANIS_FIELD(uint8_t backlightColor)
TARANIS_FIELD(swarnstate_t switchUnlockStates)
TARANIS_FIELD(CustomFunctionData_v216 customFn[NUM_CFN])
TARANIS_FIELD(swconfig_t switchConfig)
TARANIS_FIELD(char switchNames[NUM_SWITCHES][LEN_SWITCH_NAME])
TARANIS_FIELD(char anaNames[NUM_STICKS + NUM_POTS][LEN_ANA_NAME])
N_TARANIS_FIELD(CustomFunctionData_v216 customFn[NUM_CFN])
TARANIS_PCBX9E_FIELD(uint8_t bluetoothEnable)
TARANIS_PCBX9E_FIELD(char bluetoothName[LEN_BLUETOOTH_NAME])
}) RadioData_v216;
void ConvertRadioData_216_to_217(RadioData & settings)
{
RadioData_v216 * settings_v216 = (RadioData_v216 *)&settings;
settings_v216->version = 217;
#if defined(PCBTARANIS)
settings_v216->potsConfig = 0x05; // S1 and S2 = pots with detent
settings_v216->switchConfig = 0x00007bff; // 6x3POS, 1x2POS, 1xTOGGLE
#endif
}
void ConvertSpecialFunctions_217_to_218(CustomFunctionData * cf218, CustomFunctionData_v216 * cf216)
{
for (int i=0; i<NUM_CFN; i++) {
CustomFunctionData & cf = cf218[i];
memcpy(&cf, &cf216[i], sizeof(CustomFunctionData));
cf.swtch = ConvertSwitch_217_to_218(cf216[i].swtch);
cf.func = cf216[i].func;
if (cf.func == FUNC_PLAY_VALUE || cf.func == FUNC_VOLUME || (IS_ADJUST_GV_FUNC(cf.func) && cf.all.mode == FUNC_ADJUST_GVAR_SOURCE)) {
cf.all.val = ConvertSource_217_to_218(cf.all.val);
}
}
}
void ConvertRadioData_217_to_218(RadioData & settings)
{
RadioData_v216 * settings_v217 = (RadioData_v216 *)&settings;
settings.version = 218;
#if !defined(PCBTARANIS)
settings.stickReverse = settings_v217->stickReverse;
#endif
settings.beepLength = settings_v217->beepLength;
settings.hapticStrength = settings_v217->hapticStrength;
settings.gpsFormat = settings_v217->gpsFormat;
settings.unexpectedShutdown = settings_v217->unexpectedShutdown;
settings.speakerPitch = settings_v217->speakerPitch;
settings.speakerVolume = settings_v217->speakerVolume;
settings.vBatMin = settings_v217->vBatMin;
settings.vBatMax = settings_v217->vBatMax;
settings.backlightBright = settings_v217->backlightBright;
settings.globalTimer = settings_v217->globalTimer;
settings.btBaudrate = settings_v217->btBaudrate;
settings.countryCode = settings_v217->countryCode;
settings.imperial = settings_v217->imperial;
settings.ttsLanguage[0] = settings_v217->ttsLanguage[0];
settings.ttsLanguage[1] = settings_v217->ttsLanguage[1];
settings.beepVolume = settings_v217->beepVolume;
settings.wavVolume = settings_v217->wavVolume;
settings.varioVolume = settings_v217->varioVolume;
settings.backgroundVolume = settings_v217->backgroundVolume;
settings.varioPitch = settings_v217->varioPitch;
settings.varioRange = settings_v217->varioRange;
settings.varioRepeat = settings_v217->varioRepeat;
ConvertSpecialFunctions_217_to_218(settings.customFn, settings_v217->customFn);
#if defined(PCBTARANIS)
settings.serial2Mode = settings_v217->serial2Mode;
settings.slidersConfig = settings_v217->slidersConfig;
settings.potsConfig = settings_v217->potsConfig;
settings.backlightColor = settings_v217->backlightColor;
settings.switchUnlockStates = settings_v217->switchUnlockStates;
settings.switchConfig = settings_v217->switchConfig;
memcpy(settings.switchNames, settings_v217->switchNames, sizeof(settings.switchNames));
memcpy(settings.anaNames, settings_v217->anaNames, sizeof(settings.anaNames));
#endif
#if defined(PCBX9E)
settings.bluetoothEnable = settings_v217->bluetoothEnable;
memcpy(settings.bluetoothName, settings_v217->bluetoothName, sizeof(settings.bluetoothName));
#endif
#if defined(PCBSKY9X)
settings.txCurrentCalibration = settings_v217->txCurrentCalibration;
settings.temperatureWarn = settings_v217->temperatureWarn;
settings.mAhWarn = settings_v217->mAhWarn;
settings.mAhUsed = settings_v217->mAhUsed;
settings.temperatureCalib = settings_v217->temperatureCalib;
settings.optrexDisplay = settings_v217->optrexDisplay;
settings.sticksGain = settings_v217->sticksGain;
settings.rotarySteps = settings_v217->rotarySteps;
#endif
}
void ConvertModel_216_to_217(ModelData & model)
{
// Timer3 added
// 32bits Timers
// MixData reduction
// PPM center range
// Telemetry custom screens
assert(sizeof(ModelData_v216) <= sizeof(ModelData));
ModelData_v216 oldModel;
memcpy(&oldModel, &model, sizeof(oldModel));
ModelData_v217 & newModel = (ModelData_v217 &)model;
memset(&newModel, 0, sizeof(ModelData_v217));
char name[LEN_MODEL_NAME+1];
zchar2str(name, oldModel.header.name, LEN_MODEL_NAME);
TRACE("Model %s conversion from v216 to v217", name);
newModel.header.modelId[0] = oldModel.header.modelId;
memcpy(newModel.header.name, oldModel.header.name, LEN_MODEL_NAME);
#if defined(PCBTARANIS)
memcpy(newModel.header.bitmap, oldModel.header.bitmap, LEN_BITMAP_NAME);
#endif
for (uint8_t i=0; i<2; i++) {
TimerData_v217 & timer = newModel.timers[i];
if (oldModel.timers[i].mode >= TMRMODE_COUNT)
timer.mode = TMRMODE_COUNT + ConvertSwitch_216_to_217(oldModel.timers[i].mode - TMRMODE_COUNT + 1) - 1;
else
timer.mode = ConvertSwitch_216_to_217(oldModel.timers[i].mode);
timer.start = oldModel.timers[i].start;
timer.countdownBeep = oldModel.timers[i].countdownBeep;
timer.minuteBeep = oldModel.timers[i].minuteBeep;
timer.persistent = oldModel.timers[i].persistent;
timer.value = oldModel.timers[i].value;
}
newModel.telemetryProtocol = oldModel.telemetryProtocol;
newModel.thrTrim = oldModel.thrTrim;
newModel.trimInc = oldModel.trimInc;
newModel.disableThrottleWarning = oldModel.disableThrottleWarning;
newModel.displayChecklist = oldModel.displayChecklist;
newModel.extendedLimits = oldModel.extendedLimits;
newModel.extendedTrims = oldModel.extendedTrims;
newModel.throttleReversed = oldModel.throttleReversed;
newModel.beepANACenter = oldModel.beepANACenter;
for (int i=0; i<MAX_MIXERS; i++) {
newModel.mixData[i].destCh = oldModel.mixData[i].destCh;
newModel.mixData[i].flightModes = oldModel.mixData[i].flightModes;
newModel.mixData[i].mltpx = oldModel.mixData[i].mltpx;
newModel.mixData[i].carryTrim = oldModel.mixData[i].carryTrim;
newModel.mixData[i].mixWarn = oldModel.mixData[i].mixWarn;
newModel.mixData[i].weight = ConvertGVar_216_to_217(oldModel.mixData[i].weight);
newModel.mixData[i].swtch = ConvertSwitch_216_to_217(oldModel.mixData[i].swtch);
#if defined(PCBTARANIS)
newModel.mixData[i].curve = oldModel.mixData[i].curve;
#else
newModel.mixData[i].curveMode = oldModel.mixData[i].curveMode;
newModel.mixData[i].noExpo = oldModel.mixData[i].noExpo;
newModel.mixData[i].curveParam = oldModel.mixData[i].curveParam;
#endif
newModel.mixData[i].delayUp = oldModel.mixData[i].delayUp;
newModel.mixData[i].delayDown = oldModel.mixData[i].delayDown;
newModel.mixData[i].speedUp = oldModel.mixData[i].speedUp;
newModel.mixData[i].speedDown = oldModel.mixData[i].speedDown;
newModel.mixData[i].srcRaw = ConvertSource_216_to_217(oldModel.mixData[i].srcRaw);
newModel.mixData[i].offset = ConvertGVar_216_to_217(oldModel.mixData[i].offset);
memcpy(newModel.mixData[i].name, oldModel.mixData[i].name, sizeof(newModel.mixData[i].name));
}
for (int i=0; i<NUM_CHNOUT; i++) {
#if defined(PCBTARANIS)
newModel.limitData[i].min = ConvertGVar_216_to_217(oldModel.limitData[i].min);
newModel.limitData[i].max = ConvertGVar_216_to_217(oldModel.limitData[i].max);
newModel.limitData[i].offset = ConvertGVar_216_to_217(oldModel.limitData[i].offset);
newModel.limitData[i].ppmCenter = oldModel.limitData[i].ppmCenter;
newModel.limitData[i].symetrical = oldModel.limitData[i].symetrical;
newModel.limitData[i].revert = oldModel.limitData[i].revert;
newModel.limitData[i].curve = oldModel.limitData[i].curve;
memcpy(newModel.limitData[i].name, oldModel.limitData[i].name, sizeof(newModel.limitData[i].name));
#else
newModel.limitData[i] = oldModel.limitData[i];
#endif
}
for (int i=0; i<MAX_EXPOS; i++) {
#if defined(PCBTARANIS)
newModel.expoData[i].srcRaw = ConvertSource_216_to_217(oldModel.expoData[i].srcRaw);
newModel.expoData[i].scale = oldModel.expoData[i].scale;
newModel.expoData[i].carryTrim = oldModel.expoData[i].carryTrim;
newModel.expoData[i].curve = oldModel.expoData[i].curve;
newModel.expoData[i].offset = oldModel.expoData[i].offset;
#else
newModel.expoData[i].curveMode = oldModel.expoData[i].curveMode;
newModel.expoData[i].curveParam = oldModel.expoData[i].curveParam;
#endif
newModel.expoData[i].chn = oldModel.expoData[i].chn;
newModel.expoData[i].swtch = ConvertSwitch_216_to_217(oldModel.expoData[i].swtch);
newModel.expoData[i].flightModes = oldModel.expoData[i].flightModes;
newModel.expoData[i].weight = oldModel.expoData[i].weight;
newModel.expoData[i].mode = oldModel.expoData[i].mode;
memcpy(newModel.expoData[i].name, oldModel.expoData[i].name, sizeof(newModel.expoData[i].name));
}
memcpy(newModel.curves, oldModel.curves, sizeof(newModel.curves));
memcpy(newModel.points, oldModel.points, sizeof(newModel.points));
for (int i=0; i<32; i++) {
LogicalSwitchData_v217 & sw = newModel.logicalSw[i];
sw.func = oldModel.logicalSw[i].func;
sw.v1 = oldModel.logicalSw[i].v1;
sw.v2 = oldModel.logicalSw[i].v2;
sw.v3 = oldModel.logicalSw[i].v3;
sw.delay = oldModel.logicalSw[i].delay;
sw.duration = oldModel.logicalSw[i].duration;
uint8_t cstate = lswFamily(sw.func);
if (cstate == LS_FAMILY_OFS || cstate == LS_FAMILY_COMP || cstate == LS_FAMILY_DIFF) {
sw.v1 = ConvertSource_216_to_217((uint8_t)sw.v1);
if (cstate == LS_FAMILY_COMP) {
sw.v2 = ConvertSource_216_to_217((uint8_t)sw.v2);
}
}
else if (cstate == LS_FAMILY_BOOL || cstate == LS_FAMILY_STICKY) {
sw.v1 = ConvertSwitch_216_to_217(sw.v1);
sw.v2 = ConvertSwitch_216_to_217(sw.v2);
}
else if (cstate == LS_FAMILY_EDGE) {
sw.v1 = ConvertSwitch_216_to_217(sw.v1);
}
sw.andsw = ConvertSwitch_216_to_217(sw.andsw);
}
for (int i=0; i<NUM_CFN; i++) {
CustomFunctionData_v216 & fn = newModel.customFn[i];
fn = oldModel.customFn[i];
fn.swtch = ConvertSwitch_216_to_217(fn.swtch);
if (fn.func == FUNC_PLAY_VALUE || fn.func == FUNC_VOLUME || (IS_ADJUST_GV_FUNC(fn.func) && fn.all.mode == FUNC_ADJUST_GVAR_SOURCE)) {
fn.all.val = ConvertSource_216_to_217(fn.all.val);
}
}
newModel.swashR.collectiveSource = ConvertSource_216_to_217(newModel.swashR.collectiveSource);
// TODO other fields
for (int i=0; i<MAX_FLIGHT_MODES; i++) {
newModel.flightModeData[i] = oldModel.flightModeData[i];
newModel.flightModeData[i].swtch = ConvertSwitch_216_to_217(oldModel.flightModeData[i].swtch);
}
newModel.thrTraceSrc = oldModel.thrTraceSrc;
newModel.switchWarningState = oldModel.switchWarningState;
newModel.switchWarningEnable = oldModel.switchWarningEnable;
memcpy(newModel.gvars, oldModel.gvars, sizeof(newModel.gvars));
memcpy(&newModel.frsky.rssiAlarms, &oldModel.frsky.rssiAlarms, sizeof(newModel.frsky.rssiAlarms));
for (int i=0; i<NUM_MODULES+1; i++) {
newModel.moduleData[i].type = 0;
newModel.moduleData[i].rfProtocol = oldModel.moduleData[i].rfProtocol;
newModel.moduleData[i].channelsStart = oldModel.moduleData[i].channelsStart;
newModel.moduleData[i].channelsCount = oldModel.moduleData[i].channelsCount;
newModel.moduleData[i].failsafeMode = oldModel.moduleData[i].failsafeMode + 1;
for (int j=0; j<NUM_CHNOUT; j++) {
newModel.moduleData[i].failsafeChannels[j] = oldModel.moduleData[i].failsafeChannels[j];
}
newModel.moduleData[i].ppm.delay = oldModel.moduleData[i].ppmDelay;
newModel.moduleData[i].ppm.frameLength = oldModel.moduleData[i].ppmFrameLength;
newModel.moduleData[i].ppm.pulsePol = oldModel.moduleData[i].ppmPulsePol;
}
#if defined(PCBTARANIS)
newModel.moduleData[INTERNAL_MODULE].type = MODULE_TYPE_XJT;
#endif
newModel.moduleData[EXTERNAL_MODULE].type = oldModel.externalModule;
#if defined(PCBTARANIS)
newModel.trainerMode = oldModel.trainerMode;
// TODO memcpy(newModel.scriptsData, oldModel.scriptsData, sizeof(newModel.scriptsData));
memcpy(newModel.curveNames, oldModel.curveNames, sizeof(newModel.curveNames));
memcpy(newModel.inputNames, oldModel.inputNames, sizeof(newModel.inputNames));
#endif
newModel.potsWarnMode = oldModel.nPotsToWarn >> 6;
newModel.potsWarnEnabled = oldModel.nPotsToWarn & 0x1f;
memcpy(newModel.potsWarnPosition, oldModel.potPosition, sizeof(newModel.potsWarnPosition));
}
void ConvertModel_217_to_218(ModelData & model)
{
assert(sizeof(ModelData_v217) <= sizeof(ModelData));
ModelData_v217 oldModel;
memcpy(&oldModel, &model, sizeof(oldModel));
ModelData & newModel = model;
memset(&newModel, 0, sizeof(ModelData));
char name[LEN_MODEL_NAME+1];
zchar2str(name, oldModel.header.name, LEN_MODEL_NAME);
TRACE("Model %s conversion from v217 to v218", name);
newModel.header = oldModel.header;
for (uint8_t i=0; i<MAX_TIMERS; i++) {
if (oldModel.timers[i].mode >= TMRMODE_COUNT)
newModel.timers[i].mode = TMRMODE_COUNT + ConvertSwitch_217_to_218(oldModel.timers[i].mode - TMRMODE_COUNT + 1) - 1;
else
newModel.timers[i].mode = ConvertSwitch_217_to_218(oldModel.timers[i].mode);
if (oldModel.timers[i].mode)
TRACE("timer mode %d => %d", oldModel.timers[i].mode, newModel.timers[i].mode);
newModel.timers[i].start = oldModel.timers[i].start;
newModel.timers[i].value = oldModel.timers[i].value;
newModel.timers[i].countdownBeep = oldModel.timers[i].countdownBeep;
newModel.timers[i].minuteBeep = oldModel.timers[i].minuteBeep;
newModel.timers[i].persistent = oldModel.timers[i].persistent;
memcpy(newModel.timers[i].name, oldModel.timers[i].name, sizeof(newModel.timers[i].name));
}
newModel.telemetryProtocol = oldModel.telemetryProtocol;
newModel.thrTrim = oldModel.thrTrim;
newModel.noGlobalFunctions = oldModel.noGlobalFunctions;
newModel.displayTrims = oldModel.displayTrims;
newModel.ignoreSensorIds = oldModel.ignoreSensorIds;
newModel.trimInc = oldModel.trimInc;
newModel.disableThrottleWarning = oldModel.disableThrottleWarning;
newModel.displayChecklist = oldModel.displayChecklist;
newModel.extendedLimits = oldModel.extendedLimits;
newModel.extendedTrims = oldModel.extendedTrims;
newModel.throttleReversed = oldModel.throttleReversed;
newModel.beepANACenter = oldModel.beepANACenter;
for (int i=0; i<MAX_MIXERS; i++) {
newModel.mixData[i].destCh = oldModel.mixData[i].destCh;
newModel.mixData[i].flightModes = oldModel.mixData[i].flightModes;
newModel.mixData[i].mltpx = oldModel.mixData[i].mltpx;
newModel.mixData[i].carryTrim = oldModel.mixData[i].carryTrim;
newModel.mixData[i].mixWarn = oldModel.mixData[i].mixWarn;
newModel.mixData[i].weight = oldModel.mixData[i].weight;
newModel.mixData[i].swtch = ConvertSwitch_217_to_218(oldModel.mixData[i].swtch);
#if defined(PCBTARANIS)
newModel.mixData[i].curve = oldModel.mixData[i].curve;
#else
newModel.mixData[i].curveMode = oldModel.mixData[i].curveMode;
newModel.mixData[i].noExpo = oldModel.mixData[i].noExpo;
newModel.mixData[i].curveParam = oldModel.mixData[i].curveParam;
#endif
newModel.mixData[i].delayUp = oldModel.mixData[i].delayUp;
newModel.mixData[i].delayDown = oldModel.mixData[i].delayDown;
newModel.mixData[i].speedUp = oldModel.mixData[i].speedUp;
newModel.mixData[i].speedDown = oldModel.mixData[i].speedDown;
newModel.mixData[i].srcRaw = oldModel.mixData[i].srcRaw;
newModel.mixData[i].offset = oldModel.mixData[i].offset;
memcpy(newModel.mixData[i].name, oldModel.mixData[i].name, sizeof(newModel.mixData[i].name));
}
for (int i=0; i<NUM_CHNOUT; i++) {
newModel.limitData[i] = oldModel.limitData[i];
#if defined(PCBTARANIS)
if (newModel.moduleData[INTERNAL_MODULE].type == MODULE_TYPE_XJT || newModel.moduleData[EXTERNAL_MODULE].type == MODULE_TYPE_XJT) {
newModel.limitData[i].ppmCenter = (oldModel.limitData[i].ppmCenter * 612) / 1024;
}
#endif
}
for (int i=0; i<MAX_EXPOS; i++) {
#if defined(PCBTARANIS)
newModel.expoData[i].srcRaw = oldModel.expoData[i].srcRaw;
newModel.expoData[i].scale = oldModel.expoData[i].scale;
newModel.expoData[i].carryTrim = oldModel.expoData[i].carryTrim;
newModel.expoData[i].curve = oldModel.expoData[i].curve;
newModel.expoData[i].offset = oldModel.expoData[i].offset;
#else
newModel.expoData[i].curveMode = oldModel.expoData[i].curveMode;
newModel.expoData[i].curveParam = oldModel.expoData[i].curveParam;
#endif
newModel.expoData[i].chn = oldModel.expoData[i].chn;
newModel.expoData[i].swtch = ConvertSwitch_217_to_218(oldModel.expoData[i].swtch);
newModel.expoData[i].flightModes = oldModel.expoData[i].flightModes;
newModel.expoData[i].weight = oldModel.expoData[i].weight;
newModel.expoData[i].mode = oldModel.expoData[i].mode;
memcpy(newModel.expoData[i].name, oldModel.expoData[i].name, sizeof(newModel.expoData[i].name));
}
for (int i=0; i<MAX_CURVES; i++) {
#if defined(XCURVES)
newModel.curves[i].type = oldModel.curves[i].type;
newModel.curves[i].smooth = oldModel.curves[i].smooth;
newModel.curves[i].points = oldModel.curves[i].points;
memcpy(newModel.curves[i].name, oldModel.curveNames[i], sizeof(newModel.curves[i].name));
#else
newModel.curves[i] = oldModel.curves[i];
#endif
}
memcpy(newModel.points, oldModel.points, sizeof(newModel.points));
for (int i=0; i<32; i++) {
LogicalSwitchData & sw = newModel.logicalSw[i];
sw.func = oldModel.logicalSw[i].func;
sw.v1 = oldModel.logicalSw[i].v1;
sw.v2 = oldModel.logicalSw[i].v2;
sw.v3 = oldModel.logicalSw[i].v3;
newModel.logicalSw[i].andsw = ConvertSwitch_217_to_218(oldModel.logicalSw[i].andsw);
sw.delay = oldModel.logicalSw[i].delay;
sw.duration = oldModel.logicalSw[i].duration;
uint8_t cstate = lswFamily(sw.func);
if (cstate == LS_FAMILY_OFS || cstate == LS_FAMILY_COMP || cstate == LS_FAMILY_DIFF) {
sw.v1 = ConvertSource_217_to_218((uint8_t)sw.v1);
if (cstate == LS_FAMILY_COMP) {
sw.v2 = ConvertSource_217_to_218((uint8_t)sw.v2);
}
}
else if (cstate == LS_FAMILY_BOOL || cstate == LS_FAMILY_STICKY) {
sw.v1 = ConvertSwitch_217_to_218(sw.v1);
sw.v2 = ConvertSwitch_217_to_218(sw.v2);
}
else if (cstate == LS_FAMILY_EDGE) {
sw.v1 = ConvertSwitch_217_to_218(sw.v1);
}
}
ConvertSpecialFunctions_217_to_218(newModel.customFn, oldModel.customFn);
newModel.swashR = oldModel.swashR;
for (int i=0; i<MAX_FLIGHT_MODES; i++) {
memcpy(newModel.flightModeData[i].trim, oldModel.flightModeData[i].trim, sizeof(newModel.flightModeData[i].trim));
memcpy(newModel.flightModeData[i].name, oldModel.flightModeData[i].name, sizeof(newModel.flightModeData[i].name));
newModel.flightModeData[i].swtch = ConvertSwitch_217_to_218(oldModel.flightModeData[i].swtch);
newModel.flightModeData[i].fadeIn = oldModel.flightModeData[i].fadeIn;
newModel.flightModeData[i].fadeOut = oldModel.flightModeData[i].fadeOut;
#if defined(PCBSKY9X)
memcpy(newModel.flightModeData[i].rotaryEncoders, oldModel.flightModeData[i].rotaryEncoders, sizeof(newModel.flightModeData[i].rotaryEncoders));
#endif
memcpy(newModel.flightModeData[i].gvars, oldModel.flightModeData[i].gvars, sizeof(newModel.flightModeData[i].gvars));
}
newModel.thrTraceSrc = oldModel.thrTraceSrc;
newModel.switchWarningState = oldModel.switchWarningState;
newModel.switchWarningEnable = oldModel.switchWarningEnable;
memcpy(newModel.gvars, oldModel.gvars, sizeof(newModel.gvars));
newModel.frsky = oldModel.frsky;
for (int i=0; i<NUM_MODULES+1; i++) {
newModel.moduleData[i] = oldModel.moduleData[i];
}
#if defined(PCBTARANIS)
newModel.trainerMode = oldModel.trainerMode;
memcpy(newModel.scriptsData, oldModel.scriptsData, sizeof(newModel.scriptsData));
memcpy(newModel.inputNames, oldModel.inputNames, sizeof(newModel.inputNames));
#endif
newModel.potsWarnMode = oldModel.potsWarnMode;
newModel.potsWarnEnabled = oldModel.potsWarnEnabled;
memcpy(newModel.potsWarnPosition, oldModel.potsWarnPosition, sizeof(newModel.potsWarnPosition));
for (int i=0; i<MAX_SENSORS; i++) {
newModel.telemetrySensors[i] = oldModel.telemetrySensors[i];
if (newModel.telemetrySensors[i].unit > UNIT_WATTS)
newModel.telemetrySensors[i].unit += 1;
}
#if defined(PCBX9E)
newModel.toplcdTimer = oldModel.toplcdTimer;
#endif
}
void ConvertModel(int id, int version)
{
eeLoadModelData(id);
if (version == 216) {
version = 217;
ConvertModel_216_to_217(g_model);
}
if (version == 217) {
version = 218;
ConvertModel_217_to_218(g_model);
}
uint8_t currModel = g_eeGeneral.currModel;
g_eeGeneral.currModel = id;
storageDirty(EE_MODEL);
storageCheck(true);
g_eeGeneral.currModel = currModel;
}
bool eeConvert()
{
const char *msg = NULL;
if (g_eeGeneral.version == 216) {
msg = PSTR("EEprom Data v216");
}
else if (g_eeGeneral.version == 217) {
msg = PSTR("EEprom Data v217");
}
else {
return false;
}
int conversionVersionStart = g_eeGeneral.version;
// Information to the user and wait for key press
#if defined(PCBSKY9X)
g_eeGeneral.optrexDisplay = 0;
#endif
g_eeGeneral.backlightMode = e_backlight_mode_on;
g_eeGeneral.backlightBright = 0;
g_eeGeneral.contrast = 25;
ALERT(STR_STORAGE_WARNING, msg, AU_BAD_RADIODATA);
// Message
MESSAGE(STR_STORAGE_WARNING, STR_EEPROM_CONVERTING, NULL, AU_NONE);
// General Settings conversion
eeLoadGeneralSettingsData();
int version = conversionVersionStart;
if (version == 216) {
version = 217;
ConvertRadioData_216_to_217(g_eeGeneral);
}
if (version == 217) {
version = 218;
ConvertRadioData_217_to_218(g_eeGeneral);
}
storageDirty(EE_GENERAL);
storageCheck(true);
#if defined(COLORLCD)
#elif LCD_W >= 212
lcdDrawRect(60, 6*FH+4, 132, 3);
#else
lcdDrawRect(10, 6*FH+4, 102, 3);
#endif
// Models conversion
for (uint8_t id=0; id<MAX_MODELS; id++) {
#if defined(COLORLCD)
#elif LCD_W >= 212
lcdDrawSolidHorizontalLine(61, 6*FH+5, 10+id*2, FORCE);
#else
lcdDrawSolidHorizontalLine(11, 6*FH+5, 10+(id*3)/2, FORCE);
#endif
lcdRefresh();
if (eeModelExists(id)) {
ConvertModel(id, conversionVersionStart);
}
}
return true;
}