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inav-configurator/js/msp/MSPHelper.js

3269 lines
136 KiB
JavaScript

/*global $, SERVO_DATA, PID_names, ADJUSTMENT_RANGES, RXFAIL_CONFIG, SERVO_CONFIG,CONFIG*/
'use strict';
var mspHelper = (function (gui) {
var self = {};
self.BAUD_RATES_post1_6_3 = [
'AUTO',
'1200',
'2400',
'4800',
'9600',
'19200',
'38400',
'57600',
'115200',
'230400',
'250000',
'460800',
'921600'
];
self.SERIAL_PORT_FUNCTIONS = {
'MSP': 0,
'GPS': 1,
'TELEMETRY_FRSKY': 2,
'TELEMETRY_HOTT': 3,
'TELEMETRY_LTM': 4, // LTM replaced MSP
'TELEMETRY_SMARTPORT': 5,
'RX_SERIAL': 6,
'BLACKBOX': 7,
'TELEMETRY_MAVLINK': 8,
'TELEMETRY_IBUS': 9,
'RUNCAM_DEVICE_CONTROL': 10,
'TBS_SMARTAUDIO': 11,
'IRC_TRAMP': 12,
'OPFLOW': 14,
'LOG': 15,
'RANGEFINDER': 16,
'VTX_FFPV': 17,
'ESC': 18,
'GSM_SMS': 19,
'FRSKY_OSD': 20,
'DJI_FPV': 21,
'SMARTPORT_MASTER': 23,
'IMU2': 24,
'HDZERO_VTX': 25,
};
// Required for MSP_DEBUGMSG because console.log() doesn't allow omitting
// the newline at the end, so we keep the pending message here until we find a
// '\0', then print it. Messages sent by MSP_DEBUGMSG are guaranteed to
// always finish with a '\0'.
var debugMsgBuffer = '';
/**
*
* @param {MSP} dataHandler
*/
self.processData = function (dataHandler) {
var data = new DataView(dataHandler.message_buffer, 0), // DataView (allowing us to view arrayBuffer as struct/union)
offset = 0,
needle = 0,
i = 0,
buff = [],
identifier = '',
flags,
colorCount,
color;
if (!dataHandler.unsupported || dataHandler.unsupported) switch (dataHandler.code) {
case MSPCodes.MSPV2_INAV_STATUS:
CONFIG.cycleTime = data.getUint16(offset, true);
offset += 2;
CONFIG.i2cError = data.getUint16(offset, true);
offset += 2;
CONFIG.activeSensors = data.getUint16(offset, true);
offset += 2;
CONFIG.cpuload = data.getUint16(offset, true);
offset += 2;
profile_byte = data.getUint8(offset++)
CONFIG.profile = profile_byte & 0x0F;
CONFIG.battery_profile = (profile_byte & 0xF0) >> 4;
CONFIG.armingFlags = data.getUint32(offset, true);
offset += 4;
gui.updateStatusBar();
gui.updateProfileChange();
break;
case MSPCodes.MSP_ACTIVEBOXES:
var words = dataHandler.message_length_expected / 4;
CONFIG.mode = [];
for (i = 0; i < words; ++i)
CONFIG.mode.push(data.getUint32(i * 4, true));
break;
case MSPCodes.MSP_SENSOR_STATUS:
SENSOR_STATUS.isHardwareHealthy = data.getUint8(0);
SENSOR_STATUS.gyroHwStatus = data.getUint8(1);
SENSOR_STATUS.accHwStatus = data.getUint8(2);
SENSOR_STATUS.magHwStatus = data.getUint8(3);
SENSOR_STATUS.baroHwStatus = data.getUint8(4);
SENSOR_STATUS.gpsHwStatus = data.getUint8(5);
SENSOR_STATUS.rangeHwStatus = data.getUint8(6);
SENSOR_STATUS.speedHwStatus = data.getUint8(7);
SENSOR_STATUS.flowHwStatus = data.getUint8(8);
SENSOR_STATUS.imu2HwStatus = data.getUint8(9);
sensor_status_ex(SENSOR_STATUS);
break;
case MSPCodes.MSP_RAW_IMU:
// 512 for mpu6050, 256 for mma
// currently we are unable to differentiate between the sensor types, so we are goign with 512
SENSOR_DATA.accelerometer[0] = data.getInt16(0, true) / 512;
SENSOR_DATA.accelerometer[1] = data.getInt16(2, true) / 512;
SENSOR_DATA.accelerometer[2] = data.getInt16(4, true) / 512;
// properly scaled
SENSOR_DATA.gyroscope[0] = data.getInt16(6, true) * (4 / 16.4);
SENSOR_DATA.gyroscope[1] = data.getInt16(8, true) * (4 / 16.4);
SENSOR_DATA.gyroscope[2] = data.getInt16(10, true) * (4 / 16.4);
// no clue about scaling factor
SENSOR_DATA.magnetometer[0] = data.getInt16(12, true) / 1090;
SENSOR_DATA.magnetometer[1] = data.getInt16(14, true) / 1090;
SENSOR_DATA.magnetometer[2] = data.getInt16(16, true) / 1090;
break;
case MSPCodes.MSP_SERVO:
var servoCount = dataHandler.message_length_expected / 2;
for (i = 0; i < servoCount; i++) {
SERVO_DATA[i] = data.getUint16(needle, true);
needle += 2;
}
break;
case MSPCodes.MSP_MOTOR:
var motorCount = dataHandler.message_length_expected / 2;
for (i = 0; i < motorCount; i++) {
MOTOR_DATA[i] = data.getUint16(needle, true);
needle += 2;
}
break;
case MSPCodes.MSP_RC:
RC.active_channels = dataHandler.message_length_expected / 2;
for (i = 0; i < RC.active_channels; i++) {
RC.channels[i] = data.getUint16((i * 2), true);
}
break;
case MSPCodes.MSP_RAW_GPS:
GPS_DATA.fix = data.getUint8(0);
GPS_DATA.numSat = data.getUint8(1);
GPS_DATA.lat = data.getInt32(2, true);
GPS_DATA.lon = data.getInt32(6, true);
GPS_DATA.alt = data.getInt16(10, true);
GPS_DATA.speed = data.getUint16(12, true);
GPS_DATA.ground_course = data.getUint16(14, true);
GPS_DATA.hdop = data.getUint16(16, true);
break;
case MSPCodes.MSP_COMP_GPS:
GPS_DATA.distanceToHome = data.getUint16(0, 1);
GPS_DATA.directionToHome = data.getUint16(2, 1);
GPS_DATA.update = data.getUint8(4);
break;
case MSPCodes.MSP_GPSSTATISTICS:
GPS_DATA.messageDt = data.getUint16(0, true);
GPS_DATA.errors = data.getUint32(2, true);
GPS_DATA.timeouts = data.getUint32(6, true);
GPS_DATA.packetCount = data.getUint32(10, true);
GPS_DATA.hdop = data.getUint16(14, true);
GPS_DATA.eph = data.getUint16(16, true);
GPS_DATA.epv = data.getUint16(18, true);
break;
case MSPCodes.MSP_ATTITUDE:
SENSOR_DATA.kinematics[0] = data.getInt16(0, true) / 10.0; // x
SENSOR_DATA.kinematics[1] = data.getInt16(2, true) / 10.0; // y
SENSOR_DATA.kinematics[2] = data.getInt16(4, true); // z
break;
case MSPCodes.MSP_ALTITUDE:
SENSOR_DATA.altitude = parseFloat((data.getInt32(0, true) / 100.0).toFixed(2)); // correct scale factor
SENSOR_DATA.barometer = parseFloat((data.getInt32(6, true) / 100.0).toFixed(2)); // correct scale factor
break;
case MSPCodes.MSP_SONAR:
SENSOR_DATA.sonar = data.getInt32(0, true);
break;
case MSPCodes.MSPV2_INAV_AIR_SPEED:
SENSOR_DATA.air_speed = data.getInt32(0, true);
break;
case MSPCodes.MSP_ANALOG:
ANALOG.voltage = data.getUint8(0) / 10.0;
ANALOG.mAhdrawn = data.getUint16(1, true);
ANALOG.rssi = data.getUint16(3, true); // 0-1023
ANALOG.amperage = data.getInt16(5, true) / 100; // A
break;
case MSPCodes.MSPV2_INAV_ANALOG:
let tmp = data.getUint8(offset++);
ANALOG.battery_full_when_plugged_in = (tmp & 1 ? true : false);
ANALOG.use_capacity_thresholds = ((tmp & 2) >> 1 ? true : false);
ANALOG.battery_state = (tmp & 12) >> 2;
ANALOG.cell_count = (tmp & 0xF0) >> 4;
ANALOG.voltage = data.getUint16(offset, true) / 100.0;
offset += 2;
ANALOG.amperage = data.getInt16(offset, true) / 100; // A
offset += 2;
ANALOG.power = data.getInt32(offset, true) / 100.0;
offset += 4;
ANALOG.mAhdrawn = data.getInt32(offset, true);
offset += 4;
ANALOG.mWhdrawn = data.getInt32(offset, true);
offset += 4;
ANALOG.battery_remaining_capacity = data.getUint32(offset, true);
offset += 4;
ANALOG.battery_percentage = data.getUint8(offset++);
ANALOG.rssi = data.getUint16(offset, true); // 0-1023
offset += 2;
//noinspection JSValidateTypes
dataHandler.analog_last_received_timestamp = Date.now();
break;
case MSPCodes.MSP_RC_TUNING:
RC_tuning.RC_RATE = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.RC_EXPO = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.roll_pitch_rate = 0;
RC_tuning.roll_rate = parseFloat((data.getUint8(offset++) * 10));
RC_tuning.pitch_rate = parseFloat((data.getUint8(offset++) * 10));
RC_tuning.yaw_rate = parseFloat((data.getUint8(offset++) * 10));
RC_tuning.dynamic_THR_PID = parseInt(data.getUint8(offset++));
RC_tuning.throttle_MID = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.throttle_EXPO = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.dynamic_THR_breakpoint = data.getUint16(offset, true);
offset += 2;
RC_tuning.RC_YAW_EXPO = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
break;
case MSPCodes.MSPV2_INAV_RATE_PROFILE:
// compat
RC_tuning.RC_RATE = 100;
RC_tuning.roll_pitch_rate = 0;
// throttle
RC_tuning.throttle_MID = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.throttle_EXPO = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.dynamic_THR_PID = parseInt(data.getUint8(offset++));
RC_tuning.dynamic_THR_breakpoint = data.getUint16(offset, true);
offset += 2;
// stabilized
RC_tuning.RC_EXPO = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.RC_YAW_EXPO = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.roll_rate = data.getUint8(offset++) * 10;
RC_tuning.pitch_rate = data.getUint8(offset++) * 10;
RC_tuning.yaw_rate = data.getUint8(offset++) * 10;
// manual
RC_tuning.manual_RC_EXPO = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.manual_RC_YAW_EXPO = parseFloat((data.getUint8(offset++) / 100).toFixed(2));
RC_tuning.manual_roll_rate = data.getUint8(offset++);
RC_tuning.manual_pitch_rate = data.getUint8(offset++);
RC_tuning.manual_yaw_rate = data.getUint8(offset++);
break;
case MSPCodes.MSP2_PID:
// PID data arrived, we need to scale it and save to appropriate bank / array
for (i = 0, needle = 0; i < (dataHandler.message_length_expected / 4); i++, needle += 4) {
PIDs[i][0] = data.getUint8(needle);
PIDs[i][1] = data.getUint8(needle + 1);
PIDs[i][2] = data.getUint8(needle + 2);
PIDs[i][3] = data.getUint8(needle + 3);
}
break;
case MSPCodes.MSP_ARMING_CONFIG:
ARMING_CONFIG.auto_disarm_delay = data.getUint8(0);
ARMING_CONFIG.disarm_kill_switch = data.getUint8(1);
break;
case MSPCodes.MSP_LOOP_TIME:
FC_CONFIG.loopTime = data.getInt16(0, true);
break;
case MSPCodes.MSP_MISC: // 22 bytes
MISC.midrc = data.getInt16(offset, true);
offset += 2;
MISC.minthrottle = data.getUint16(offset, true); // 0-2000
offset += 2;
MISC.maxthrottle = data.getUint16(offset, true); // 0-2000
offset += 2;
MISC.mincommand = data.getUint16(offset, true); // 0-2000
offset += 2;
MISC.failsafe_throttle = data.getUint16(offset, true); // 1000-2000
offset += 2;
MISC.gps_type = data.getUint8(offset++);
MISC.sensors_baudrate = data.getUint8(offset++);
MISC.gps_ubx_sbas = data.getInt8(offset++);
MISC.multiwiicurrentoutput = data.getUint8(offset++);
MISC.rssi_channel = data.getUint8(offset++);
MISC.placeholder2 = data.getUint8(offset++);
MISC.mag_declination = data.getInt16(offset, 1) / 10; // -18000-18000
offset += 2;
MISC.vbatscale = data.getUint8(offset++); // 10-200
MISC.vbatmincellvoltage = data.getUint8(offset++) / 10; // 10-50
MISC.vbatmaxcellvoltage = data.getUint8(offset++) / 10; // 10-50
MISC.vbatwarningcellvoltage = data.getUint8(offset++) / 10; // 10-50
break;
case MSPCodes.MSPV2_INAV_MISC:
MISC.midrc = data.getInt16(offset, true);
offset += 2;
MISC.minthrottle = data.getUint16(offset, true); // 0-2000
offset += 2;
MISC.maxthrottle = data.getUint16(offset, true); // 0-2000
offset += 2;
MISC.mincommand = data.getUint16(offset, true); // 0-2000
offset += 2;
MISC.failsafe_throttle = data.getUint16(offset, true); // 1000-2000
offset += 2;
MISC.gps_type = data.getUint8(offset++);
MISC.sensors_baudrate = data.getUint8(offset++);
MISC.gps_ubx_sbas = data.getInt8(offset++);
MISC.rssi_channel = data.getUint8(offset++);
MISC.mag_declination = data.getInt16(offset, 1) / 10; // -18000-18000
offset += 2;
MISC.vbatscale = data.getUint16(offset, true);
offset += 2;
MISC.voltage_source = data.getUint8(offset++);
MISC.battery_cells = data.getUint8(offset++);
MISC.vbatdetectcellvoltage = data.getUint16(offset, true) / 100;
offset += 2;
MISC.vbatmincellvoltage = data.getUint16(offset, true) / 100;
offset += 2;
MISC.vbatmaxcellvoltage = data.getUint16(offset, true) / 100;
offset += 2;
MISC.vbatwarningcellvoltage = data.getUint16(offset, true) / 100;
offset += 2;
MISC.battery_capacity = data.getUint32(offset, true);
offset += 4;
MISC.battery_capacity_warning = data.getUint32(offset, true);
offset += 4;
MISC.battery_capacity_critical = data.getUint32(offset, true);
offset += 4;
MISC.battery_capacity_unit = (data.getUint8(offset++) ? 'mWh' : 'mAh');
break;
case MSPCodes.MSPV2_INAV_SET_MISC:
console.log('MISC INAV Configuration saved');
break;
case MSPCodes.MSPV2_INAV_BATTERY_CONFIG:
BATTERY_CONFIG.vbatscale = data.getUint16(offset, true);
offset += 2;
BATTERY_CONFIG.voltage_source = data.getUint8(offset++);
BATTERY_CONFIG.battery_cells = data.getUint8(offset++);
BATTERY_CONFIG.vbatdetectcellvoltage = data.getUint16(offset, true) / 100;
offset += 2;
BATTERY_CONFIG.vbatmincellvoltage = data.getUint16(offset, true) / 100;
offset += 2;
BATTERY_CONFIG.vbatmaxcellvoltage = data.getUint16(offset, true) / 100;
offset += 2;
BATTERY_CONFIG.vbatwarningcellvoltage = data.getUint16(offset, true) / 100;
offset += 2;
BATTERY_CONFIG.current_offset = data.getUint16(offset, true);
offset += 2;
BATTERY_CONFIG.current_scale = data.getUint16(offset, true);
offset += 2;
BATTERY_CONFIG.capacity = data.getUint32(offset, true);
offset += 4;
BATTERY_CONFIG.capacity_warning = data.getUint32(offset, true);
offset += 4;
BATTERY_CONFIG.capacity_critical = data.getUint32(offset, true);
offset += 4;
BATTERY_CONFIG.battery_capacity_unit = (data.getUint8(offset++) ? 'mWh' : 'mAh');
break;
case MSPCodes.MSP_3D:
REVERSIBLE_MOTORS.deadband_low = data.getUint16(offset, true);
offset += 2;
REVERSIBLE_MOTORS.deadband_high = data.getUint16(offset, true);
offset += 2;
REVERSIBLE_MOTORS.neutral = data.getUint16(offset, true);
break;
case MSPCodes.MSP_MOTOR_PINS:
console.log(data);
break;
case MSPCodes.MSP_BOXNAMES:
//noinspection JSUndeclaredVariable
AUX_CONFIG = []; // empty the array as new data is coming in
buff = [];
for (i = 0; i < data.byteLength; i++) {
if (data.getUint8(i) == 0x3B) { // ; (delimeter char)
AUX_CONFIG.push(String.fromCharCode.apply(null, buff)); // convert bytes into ASCII and save as strings
// empty buffer
buff = [];
} else {
buff.push(data.getUint8(i));
}
}
break;
case MSPCodes.MSP_PIDNAMES:
//noinspection JSUndeclaredVariable
PID_names = []; // empty the array as new data is coming in
buff = [];
for (i = 0; i < data.byteLength; i++) {
if (data.getUint8(i) == 0x3B) { // ; (delimiter char)
PID_names.push(String.fromCharCode.apply(null, buff)); // convert bytes into ASCII and save as strings
// empty buffer
buff = [];
} else {
buff.push(data.getUint8(i));
}
}
break;
case MSPCodes.MSP_WP:
MISSION_PLANNER.put(new Waypoint(
data.getUint8(0),
data.getUint8(1),
data.getInt32(2, true),
data.getInt32(6, true),
data.getInt32(10, true),
data.getInt16(14, true),
data.getInt16(16, true),
data.getInt16(18, true),
data.getUint8(20)
));
break;
case MSPCodes.MSP_BOXIDS:
//noinspection JSUndeclaredVariable
AUX_CONFIG_IDS = []; // empty the array as new data is coming in
for (i = 0; i < data.byteLength; i++) {
AUX_CONFIG_IDS.push(data.getUint8(i));
}
break;
case MSPCodes.MSP_SERVO_MIX_RULES:
SERVO_RULES.flush();
if (data.byteLength % 8 === 0) {
for (i = 0; i < data.byteLength; i += 8) {
SERVO_RULES.put(new ServoMixRule(
data.getInt8(i),
data.getInt8(i + 1),
data.getInt16(i + 2, true),
data.getInt8(i + 4)
));
}
}
SERVO_RULES.cleanup();
break;
case MSPCodes.MSP2_INAV_SERVO_MIXER:
SERVO_RULES.flush();
if (data.byteLength % 6 === 0) {
for (i = 0; i < data.byteLength; i += 6) {
SERVO_RULES.put(new ServoMixRule(
data.getInt8(i),
data.getInt8(i + 1),
data.getInt16(i + 2, true),
data.getInt8(i + 4),
data.getInt8(i + 5)
));
}
}
SERVO_RULES.cleanup();
break;
case MSPCodes.MSP_SET_SERVO_MIX_RULE:
console.log("Servo mix saved");
break;
case MSPCodes.MSP2_INAV_SET_SERVO_MIXER:
console.log("Servo mix saved");
break;
case MSPCodes.MSP2_INAV_LOGIC_CONDITIONS:
LOGIC_CONDITIONS.flush();
if (data.byteLength % 14 === 0) {
for (i = 0; i < data.byteLength; i += 14) {
LOGIC_CONDITIONS.put(new LogicCondition(
data.getInt8(i),
data.getInt8(i + 1),
data.getUint8(i + 2),
data.getUint8(i + 3),
data.getInt32(i + 4, true),
data.getUint8(i + 8),
data.getInt32(i + 9, true),
data.getInt8(i + 13)
));
}
}
break;
case MSPCodes.MSP2_INAV_LOGIC_CONDITIONS_SINGLE:
LOGIC_CONDITIONS.put(new LogicCondition(
data.getInt8(0),
data.getInt8(1),
data.getUint8(2),
data.getUint8(3),
data.getInt32(4, true),
data.getUint8(8),
data.getInt32(9, true),
data.getInt8(13)
));
break;
case MSPCodes.MSP2_INAV_LOGIC_CONDITIONS_STATUS:
if (data.byteLength % 4 === 0) {
let index = 0;
for (i = 0; i < data.byteLength; i += 4) {
LOGIC_CONDITIONS_STATUS.set(index, data.getInt32(i, true));
index++;
}
}
break;
case MSPCodes.MSP2_INAV_GVAR_STATUS:
if (data.byteLength % 4 === 0) {
let index = 0;
for (i = 0; i < data.byteLength; i += 4) {
GLOBAL_VARIABLES_STATUS.set(index, data.getInt32(i, true));
index++;
}
}
break;
case MSPCodes.MSP2_INAV_SET_LOGIC_CONDITIONS:
console.log("Logic conditions saved");
break;
case MSPCodes.MSP2_INAV_PROGRAMMING_PID:
PROGRAMMING_PID.flush();
if (data.byteLength % 19 === 0) {
for (i = 0; i < data.byteLength; i += 19) {
PROGRAMMING_PID.put(new ProgrammingPid(
data.getInt8(i), // enabled
data.getInt8(i + 1), // setpointType
data.getInt32(i + 2, true), // setpointValue
data.getInt8(i + 6), // measurementType
data.getInt32(i + 7, true), // measurementValue
data.getInt16(i + 11, true), // gainP
data.getInt16(i + 13, true), // gainI
data.getInt16(i + 15, true), // gainD
data.getInt16(i + 17, true) // gainFF
));
}
}
break;
case MSPCodes.MSP2_INAV_PROGRAMMING_PID_STATUS:
if (data.byteLength % 4 === 0) {
let index = 0;
for (i = 0; i < data.byteLength; i += 4) {
PROGRAMMING_PID_STATUS.set(index, data.getInt32(i, true));
index++;
}
}
break;
case MSPCodes.MSP2_INAV_SET_PROGRAMMING_PID:
console.log("Programming PID saved");
break;
case MSPCodes.MSP2_COMMON_MOTOR_MIXER:
MOTOR_RULES.flush();
if (data.byteLength % 8 === 0) {
for (i = 0; i < data.byteLength; i += 8) {
var rule = new MotorMixRule(0, 0, 0, 0);
rule.fromMsp(
data.getUint16(i, true),
data.getUint16(i + 2, true),
data.getUint16(i + 4, true),
data.getUint16(i + 6, true)
);
MOTOR_RULES.put(rule);
}
}
MOTOR_RULES.cleanup();
break;
case MSPCodes.MSP2_COMMON_SET_MOTOR_MIXER:
console.log("motor mixer saved");
break;
case MSPCodes.MSP_SERVO_CONFIGURATIONS:
//noinspection JSUndeclaredVariable
SERVO_CONFIG = []; // empty the array as new data is coming in
if (data.byteLength % 14 == 0) {
for (i = 0; i < data.byteLength; i += 14) {
var arr = {
'min': data.getInt16(i + 0, true),
'max': data.getInt16(i + 2, true),
'middle': data.getInt16(i + 4, true),
'rate': data.getInt8(i + 6),
'indexOfChannelToForward': data.getInt8(i + 9)
};
data.getUint32(i + 10); // Skip 4 bytes that used to be reversed Sources
SERVO_CONFIG.push(arr);
}
}
break;
case MSPCodes.MSP_RC_DEADBAND:
RC_deadband.deadband = data.getUint8(offset++);
RC_deadband.yaw_deadband = data.getUint8(offset++);
RC_deadband.alt_hold_deadband = data.getUint8(offset++);
REVERSIBLE_MOTORS.deadband_throttle = data.getUint16(offset, true);
break;
case MSPCodes.MSP_SENSOR_ALIGNMENT:
SENSOR_ALIGNMENT.align_gyro = data.getUint8(offset++);
SENSOR_ALIGNMENT.align_acc = data.getUint8(offset++);
SENSOR_ALIGNMENT.align_mag = data.getUint8(offset++);
SENSOR_ALIGNMENT.align_opflow = data.getUint8(offset++);
break;
case MSPCodes.MSP_SET_RAW_RC:
break;
case MSPCodes.MSP_SET_RAW_GPS:
break;
case MSPCodes.MSP2_SET_PID:
console.log('PID settings saved');
break;
case MSPCodes.MSP_SET_RC_TUNING:
console.log('RC Tuning saved');
break;
case MSPCodes.MSP_ACC_CALIBRATION:
console.log('Accelerometer calibration executed');
break;
case MSPCodes.MSP_MAG_CALIBRATION:
console.log('Mag calibration executed');
break;
case MSPCodes.MSP2_INAV_OPFLOW_CALIBRATION:
console.log('Optic flow calibration executed');
break;
case MSPCodes.MSP_SET_MISC:
console.log('MISC Configuration saved');
break;
case MSPCodes.MSP_RESET_CONF:
console.log('Settings Reset');
break;
case MSPCodes.MSP_SELECT_SETTING:
console.log('Profile selected');
break;
case MSPCodes.MSP_SET_SERVO_CONFIGURATION:
console.log('Servo Configuration saved');
break;
case MSPCodes.MSP_RTC:
if (data.length >= 6) {
var seconds = data.getInt32(0, true);
var millis = data.getUint16(4, true);
console.log("RTC received: " + new Date(seconds * 1000 + millis));
}
break;
case MSPCodes.MSP_SET_RTC:
console.log('RTC set');
break;
case MSPCodes.MSP_EEPROM_WRITE:
console.log('Settings Saved in EEPROM');
break;
case MSPCodes.MSP_DEBUGMSG:
for (var ii = 0; ii < data.byteLength; ii++) {
var c = data.readU8();
if (c == 0) {
// End of message
if (debugMsgBuffer.length > 1) {
console.log('[DEBUG] ' + debugMsgBuffer);
DEBUG_TRACE = (DEBUG_TRACE || '') + debugMsgBuffer;
}
debugMsgBuffer = '';
continue;
}
debugMsgBuffer += String.fromCharCode(c);
}
break;
case MSPCodes.MSP_DEBUG:
for (i = 0; i < 4; i++)
SENSOR_DATA.debug[i] = data.getInt16((2 * i), 1);
break;
case MSPCodes.MSP2_INAV_DEBUG:
for (i = 0; i < 8; i++)
SENSOR_DATA.debug[i] = data.getInt32((4 * i), 1);
break;
case MSPCodes.MSP_SET_MOTOR:
console.log('Motor Speeds Updated');
break;
// Additional baseflight commands that are not compatible with MultiWii
case MSPCodes.MSP_UID:
CONFIG.uid[0] = data.getUint32(0, true);
CONFIG.uid[1] = data.getUint32(4, true);
CONFIG.uid[2] = data.getUint32(8, true);
break;
case MSPCodes.MSP_ACC_TRIM:
CONFIG.accelerometerTrims[0] = data.getInt16(0, true); // pitch
CONFIG.accelerometerTrims[1] = data.getInt16(2, true); // roll
break;
case MSPCodes.MSP_SET_ACC_TRIM:
console.log('Accelerometer trimms saved.');
break;
// Additional private MSP for baseflight configurator
case MSPCodes.MSP_RX_MAP:
//noinspection JSUndeclaredVariable
RC_MAP = []; // empty the array as new data is coming in
for (i = 0; i < data.byteLength; i++) {
RC_MAP.push(data.getUint8(i));
}
break;
case MSPCodes.MSP_SET_RX_MAP:
console.log('RCMAP saved');
break;
case MSPCodes.MSP_BOARD_ALIGNMENT:
BOARD_ALIGNMENT.roll = data.getInt16(0, true); // -180 - 360
BOARD_ALIGNMENT.pitch = data.getInt16(2, true); // -180 - 360
BOARD_ALIGNMENT.yaw = data.getInt16(4, true); // -180 - 360
break;
case MSPCodes.MSP_SET_BOARD_ALIGNMENT:
console.log('MSP_SET_BOARD_ALIGNMENT saved');
break;
case MSPCodes.MSP_CURRENT_METER_CONFIG:
CURRENT_METER_CONFIG.scale = data.getInt16(0, true);
CURRENT_METER_CONFIG.offset = data.getInt16(2, true);
CURRENT_METER_CONFIG.type = data.getUint8(4);
CURRENT_METER_CONFIG.capacity = data.getInt16(5, true);
break;
case MSPCodes.MSP_SET_CURRENT_METER_CONFIG:
console.log('MSP_SET_CURRENT_METER_CONFIG saved');
break;
case MSPCodes.MSP_FEATURE:
FEATURES = data.getUint32(0, true);
break;
case MSPCodes.MSP_SET_FEATURE:
console.log('MSP_SET_FEATURE saved');
break;
case MSPCodes.MSP_SET_REBOOT:
console.log('Reboot request accepted');
break;
//
// Cleanflight specific
//
case MSPCodes.MSP_API_VERSION:
CONFIG.mspProtocolVersion = data.getUint8(offset++);
CONFIG.apiVersion = data.getUint8(offset++) + '.' + data.getUint8(offset++) + '.0';
break;
case MSPCodes.MSP_FC_VARIANT:
for (offset = 0; offset < 4; offset++) {
identifier += String.fromCharCode(data.getUint8(offset));
}
CONFIG.flightControllerIdentifier = identifier;
break;
case MSPCodes.MSP_FC_VERSION:
CONFIG.flightControllerVersion = data.getUint8(offset++) + '.' + data.getUint8(offset++) + '.' + data.getUint8(offset++);
break;
case MSPCodes.MSP_BUILD_INFO:
var dateLength = 11;
buff = [];
for (i = 0; i < dateLength; i++) {
buff.push(data.getUint8(offset++));
}
buff.push(32); // ascii space
var timeLength = 8;
for (i = 0; i < timeLength; i++) {
buff.push(data.getUint8(offset++));
}
CONFIG.buildInfo = String.fromCharCode.apply(null, buff);
break;
case MSPCodes.MSP_BOARD_INFO:
for (offset = 0; offset < 4; offset++) {
identifier += String.fromCharCode(data.getUint8(offset));
}
CONFIG.boardIdentifier = identifier;
CONFIG.boardVersion = data.getUint16(offset, 1);
offset += 2;
break;
case MSPCodes.MSP_SET_CHANNEL_FORWARDING:
console.log('Channel forwarding saved');
break;
case MSPCodes.MSP2_CF_SERIAL_CONFIG:
SERIAL_CONFIG.ports = [];
var bytesPerPort = 1 + 4 + 4;
var serialPortCount = data.byteLength / bytesPerPort;
for (i = 0; i < serialPortCount; i++) {
var BAUD_RATES = mspHelper.BAUD_RATES_post1_6_3;
var serialPort = {
identifier: data.getUint8(offset),
functions: mspHelper.serialPortFunctionMaskToFunctions(data.getUint32(offset + 1, true)),
msp_baudrate: BAUD_RATES[data.getUint8(offset + 5)],
sensors_baudrate: BAUD_RATES[data.getUint8(offset + 6)],
telemetry_baudrate: BAUD_RATES[data.getUint8(offset + 7)],
blackbox_baudrate: BAUD_RATES[data.getUint8(offset + 8)]
};
offset += bytesPerPort;
SERIAL_CONFIG.ports.push(serialPort);
}
break;
case MSPCodes.MSP2_SET_CF_SERIAL_CONFIG:
console.log('Serial config saved');
break;
case MSPCodes.MSP_MODE_RANGES:
//noinspection JSUndeclaredVariable
MODE_RANGES = []; // empty the array as new data is coming in
var modeRangeCount = data.byteLength / 4; // 4 bytes per item.
for (i = 0; offset < data.byteLength && i < modeRangeCount; i++) {
var modeRange = {
id: data.getUint8(offset++),
auxChannelIndex: data.getUint8(offset++),
range: {
start: 900 + (data.getUint8(offset++) * 25),
end: 900 + (data.getUint8(offset++) * 25)
}
};
MODE_RANGES.push(modeRange);
}
break;
case MSPCodes.MSP_ADJUSTMENT_RANGES:
//noinspection JSUndeclaredVariable
ADJUSTMENT_RANGES = []; // empty the array as new data is coming in
var adjustmentRangeCount = data.byteLength / 6; // 6 bytes per item.
for (i = 0; offset < data.byteLength && i < adjustmentRangeCount; i++) {
var adjustmentRange = {
slotIndex: data.getUint8(offset++),
auxChannelIndex: data.getUint8(offset++),
range: {
start: 900 + (data.getUint8(offset++) * 25),
end: 900 + (data.getUint8(offset++) * 25)
},
adjustmentFunction: data.getUint8(offset++),
auxSwitchChannelIndex: data.getUint8(offset++)
};
ADJUSTMENT_RANGES.push(adjustmentRange);
}
break;
case MSPCodes.MSP_CHANNEL_FORWARDING:
for (i = 0; i < data.byteLength && i < SERVO_CONFIG.length; i++) {
var channelIndex = data.getUint8(i);
if (channelIndex < 255) {
SERVO_CONFIG[i].indexOfChannelToForward = channelIndex;
} else {
SERVO_CONFIG[i].indexOfChannelToForward = undefined;
}
}
break;
case MSPCodes.MSP_RX_CONFIG:
RX_CONFIG.serialrx_provider = data.getUint8(offset);
offset++;
RX_CONFIG.maxcheck = data.getUint16(offset, true);
offset += 2;
RX_CONFIG.midrc = data.getUint16(offset, true);
offset += 2;
RX_CONFIG.mincheck = data.getUint16(offset, true);
offset += 2;
RX_CONFIG.spektrum_sat_bind = data.getUint8(offset);
offset++;
RX_CONFIG.rx_min_usec = data.getUint16(offset, true);
offset += 2;
RX_CONFIG.rx_max_usec = data.getUint16(offset, true);
offset += 2;
offset += 4; // 4 null bytes for betaflight compatibility
RX_CONFIG.spirx_protocol = data.getUint8(offset);
offset++;
RX_CONFIG.spirx_id = data.getUint32(offset, true);
offset += 4;
RX_CONFIG.spirx_channel_count = data.getUint8(offset);
offset += 1;
// unused byte for fpvCamAngleDegrees, for compatiblity with betaflight
offset += 1;
RX_CONFIG.receiver_type = data.getUint8(offset);
offset += 1;
break;
case MSPCodes.MSP_FAILSAFE_CONFIG:
FAILSAFE_CONFIG.failsafe_delay = data.getUint8(offset);
offset++;
FAILSAFE_CONFIG.failsafe_off_delay = data.getUint8(offset);
offset++;
FAILSAFE_CONFIG.failsafe_throttle = data.getUint16(offset, true);
offset += 2;
FAILSAFE_CONFIG.failsafe_kill_switch = data.getUint8(offset);
offset++;
FAILSAFE_CONFIG.failsafe_throttle_low_delay = data.getUint16(offset, true);
offset += 2;
FAILSAFE_CONFIG.failsafe_procedure = data.getUint8(offset);
offset++;
FAILSAFE_CONFIG.failsafe_recovery_delay = data.getUint8(offset);
offset++;
FAILSAFE_CONFIG.failsafe_fw_roll_angle = data.getUint16(offset, true);
offset += 2;
FAILSAFE_CONFIG.failsafe_fw_pitch_angle = data.getUint16(offset, true);
offset += 2;
FAILSAFE_CONFIG.failsafe_fw_yaw_rate = data.getUint16(offset, true);
offset += 2;
FAILSAFE_CONFIG.failsafe_stick_motion_threshold = data.getUint16(offset, true);
offset += 2;
FAILSAFE_CONFIG.failsafe_min_distance = data.getUint16(offset, true);
offset += 2;
FAILSAFE_CONFIG.failsafe_min_distance_procedure = data.getUint8(offset);
offset++;
break;
case MSPCodes.MSP_RXFAIL_CONFIG:
//noinspection JSUndeclaredVariable
RXFAIL_CONFIG = []; // empty the array as new data is coming in
var channelCount = data.byteLength / 3;
for (i = 0; offset < data.byteLength && i < channelCount; i++, offset++) {
var rxfailChannel = {
mode: data.getUint8(offset++),
value: data.getUint16(offset++, true)
};
RXFAIL_CONFIG.push(rxfailChannel);
}
break;
case MSPCodes.MSP_LED_STRIP_CONFIG:
//noinspection JSUndeclaredVariable
LED_STRIP = [];
var ledCount = data.byteLength / 4;
var directionMask,
directions,
directionLetterIndex,
functions,
led;
for (i = 0; offset < data.byteLength && i < ledCount; i++) {
if (semver.lt(CONFIG.apiVersion, "1.20.0")) {
directionMask = data.getUint16(offset, true);
offset += 2;
directions = [];
for (directionLetterIndex = 0; directionLetterIndex < MSP.ledDirectionLetters.length; directionLetterIndex++) {
if (bit_check(directionMask, directionLetterIndex)) {
directions.push(MSP.ledDirectionLetters[directionLetterIndex]);
}
}
var functionMask = data.getUint16(offset, 1);
offset += 2;
functions = [];
for (var functionLetterIndex = 0; functionLetterIndex < MSP.ledFunctionLetters.length; functionLetterIndex++) {
if (bit_check(functionMask, functionLetterIndex)) {
functions.push(MSP.ledFunctionLetters[functionLetterIndex]);
}
}
led = {
directions: directions,
functions: functions,
x: data.getUint8(offset++),
y: data.getUint8(offset++),
color: data.getUint8(offset++)
};
LED_STRIP.push(led);
} else {
var mask = data.getUint32(offset, 1);
offset += 4;
var functionId = (mask >> 8) & 0xF;
functions = [];
for (var baseFunctionLetterIndex = 0; baseFunctionLetterIndex < MSP.ledBaseFunctionLetters.length; baseFunctionLetterIndex++) {
if (functionId == baseFunctionLetterIndex) {
functions.push(MSP.ledBaseFunctionLetters[baseFunctionLetterIndex]);
break;
}
}
var overlayMask = (mask >> 12) & 0x3F;
for (var overlayLetterIndex = 0; overlayLetterIndex < MSP.ledOverlayLetters.length; overlayLetterIndex++) {
if (bit_check(overlayMask, overlayLetterIndex)) {
functions.push(MSP.ledOverlayLetters[overlayLetterIndex]);
}
}
directionMask = (mask >> 22) & 0x3F;
directions = [];
for (directionLetterIndex = 0; directionLetterIndex < MSP.ledDirectionLetters.length; directionLetterIndex++) {
if (bit_check(directionMask, directionLetterIndex)) {
directions.push(MSP.ledDirectionLetters[directionLetterIndex]);
}
}
led = {
y: (mask) & 0xF,
x: (mask >> 4) & 0xF,
functions: functions,
color: (mask >> 18) & 0xF,
directions: directions,
parameters: (mask >> 28) & 0xF
};
LED_STRIP.push(led);
}
}
break;
case MSPCodes.MSP_SET_LED_STRIP_CONFIG:
console.log('Led strip config saved');
break;
case MSPCodes.MSP_LED_COLORS:
//noinspection JSUndeclaredVariable
LED_COLORS = [];
colorCount = data.byteLength / 4;
for (i = 0; offset < data.byteLength && i < colorCount; i++) {
var h = data.getUint16(offset, true);
var s = data.getUint8(offset + 2);
var v = data.getUint8(offset + 3);
offset += 4;
color = {
h: h,
s: s,
v: v
};
LED_COLORS.push(color);
}
break;
case MSPCodes.MSP_SET_LED_COLORS:
console.log('Led strip colors saved');
break;
case MSPCodes.MSP_LED_STRIP_MODECOLOR:
//noinspection JSUndeclaredVariable
LED_MODE_COLORS = [];
colorCount = data.byteLength / 3;
for (i = 0; offset < data.byteLength && i < colorCount; i++) {
var mode = data.getUint8(offset++);
var direction = data.getUint8(offset++);
color = data.getUint8(offset++);
LED_MODE_COLORS.push({
mode: mode,
direction: direction,
color: color
});
}
break;
case MSPCodes.MSP_SET_LED_STRIP_MODECOLOR:
console.log('Led strip mode colors saved');
break;
case MSPCodes.MSP_DATAFLASH_SUMMARY:
if (data.byteLength >= 13) {
flags = data.getUint8(0);
DATAFLASH.ready = (flags & 1) != 0;
DATAFLASH.supported = (flags & 2) != 0 || DATAFLASH.ready;
DATAFLASH.sectors = data.getUint32(1, 1);
DATAFLASH.totalSize = data.getUint32(5, 1);
DATAFLASH.usedSize = data.getUint32(9, 1);
} else {
// Firmware version too old to support MSP_DATAFLASH_SUMMARY
DATAFLASH.ready = false;
DATAFLASH.supported = false;
DATAFLASH.sectors = 0;
DATAFLASH.totalSize = 0;
DATAFLASH.usedSize = 0;
}
update_dataflash_global();
break;
case MSPCodes.MSP_DATAFLASH_READ:
// No-op, let callback handle it
break;
case MSPCodes.MSP_DATAFLASH_ERASE:
console.log("Data flash erase begun...");
break;
case MSPCodes.MSP_SDCARD_SUMMARY:
flags = data.getUint8(0);
SDCARD.supported = (flags & 0x01) != 0;
SDCARD.state = data.getUint8(1);
SDCARD.filesystemLastError = data.getUint8(2);
SDCARD.freeSizeKB = data.getUint32(3, true);
SDCARD.totalSizeKB = data.getUint32(7, true);
break;
case MSPCodes.MSP_BLACKBOX_CONFIG:
BLACKBOX.supported = (data.getUint8(0) & 1) != 0;
BLACKBOX.blackboxDevice = data.getUint8(1);
BLACKBOX.blackboxRateNum = data.getUint8(2);
BLACKBOX.blackboxRateDenom = data.getUint8(3);
break;
case MSPCodes.MSP_SET_BLACKBOX_CONFIG:
console.log("Blackbox config saved");
break;
case MSPCodes.MSP_VTX_CONFIG:
VTX_CONFIG.device_type = data.getUint8(offset++);
if (VTX_CONFIG.device_type != VTX.DEV_UNKNOWN) {
VTX_CONFIG.band = data.getUint8(offset++);
VTX_CONFIG.channel = data.getUint8(offset++);
VTX_CONFIG.power = data.getUint8(offset++);
VTX_CONFIG.pitmode = data.getUint8(offset++);
// Ignore wether the VTX is ready for now
offset++;
VTX_CONFIG.low_power_disarm = data.getUint8(offset++);
}
break;
case MSPCodes.MSP_ADVANCED_CONFIG:
ADVANCED_CONFIG.gyroSyncDenominator = data.getUint8(offset);
offset++;
ADVANCED_CONFIG.pidProcessDenom = data.getUint8(offset);
offset++;
ADVANCED_CONFIG.useUnsyncedPwm = data.getUint8(offset);
offset++;
ADVANCED_CONFIG.motorPwmProtocol = data.getUint8(offset);
offset++;
ADVANCED_CONFIG.motorPwmRate = data.getUint16(offset, true);
offset += 2;
ADVANCED_CONFIG.servoPwmRate = data.getUint16(offset, true);
offset += 2;
ADVANCED_CONFIG.gyroSync = data.getUint8(offset);
break;
case MSPCodes.MSP_SET_VTX_CONFIG:
console.log("VTX config saved");
break;
case MSPCodes.MSP_SET_ADVANCED_CONFIG:
console.log("Advanced config saved");
break;
case MSPCodes.MSP_FILTER_CONFIG:
FILTER_CONFIG.gyroSoftLpfHz = data.getUint8(0);
FILTER_CONFIG.dtermLpfHz = data.getUint16(1, true);
FILTER_CONFIG.yawLpfHz = data.getUint16(3, true);
FILTER_CONFIG.gyroNotchHz1 = data.getUint16(5, true);
FILTER_CONFIG.gyroNotchCutoff1 = data.getUint16(7, true);
FILTER_CONFIG.dtermNotchHz = data.getUint16(9, true);
FILTER_CONFIG.dtermNotchCutoff = data.getUint16(11, true);
FILTER_CONFIG.gyroNotchHz2 = data.getUint16(13, true);
FILTER_CONFIG.gyroNotchCutoff2 = data.getUint16(15, true);
FILTER_CONFIG.accNotchHz = data.getUint16(17, true);
FILTER_CONFIG.accNotchCutoff = data.getUint16(19, true);
FILTER_CONFIG.gyroStage2LowpassHz = data.getUint16(21, true);
break;
case MSPCodes.MSP_SET_FILTER_CONFIG:
console.log("Filter config saved");
break;
case MSPCodes.MSP_PID_ADVANCED:
PID_ADVANCED.rollPitchItermIgnoreRate = data.getUint16(0, true);
PID_ADVANCED.yawItermIgnoreRate = data.getUint16(2, true);
PID_ADVANCED.yawPLimit = data.getUint16(4, true);
PID_ADVANCED.dtermSetpointWeight = data.getUint8(9);
PID_ADVANCED.pidSumLimit = data.getUint16(10, true);
PID_ADVANCED.axisAccelerationLimitRollPitch = data.getUint16(13, true);
PID_ADVANCED.axisAccelerationLimitYaw = data.getUint16(15, true);
break;
case MSPCodes.MSP_SET_PID_ADVANCED:
console.log("PID advanced saved");
break;
case MSPCodes.MSP_SENSOR_CONFIG:
SENSOR_CONFIG.accelerometer = data.getUint8(0, true);
SENSOR_CONFIG.barometer = data.getUint8(1, true);
SENSOR_CONFIG.magnetometer = data.getUint8(2, true);
SENSOR_CONFIG.pitot = data.getUint8(3, true);
SENSOR_CONFIG.rangefinder = data.getUint8(4, true);
SENSOR_CONFIG.opflow = data.getUint8(5, true);
break;
case MSPCodes.MSP_SET_SENSOR_CONFIG:
console.log("Sensor config saved");
break;
case MSPCodes.MSP_INAV_PID:
INAV_PID_CONFIG.asynchronousMode = data.getUint8(0);
INAV_PID_CONFIG.accelerometerTaskFrequency = data.getUint16(1, true);
INAV_PID_CONFIG.attitudeTaskFrequency = data.getUint16(3, true);
INAV_PID_CONFIG.magHoldRateLimit = data.getUint8(5);
INAV_PID_CONFIG.magHoldErrorLpfFrequency = data.getUint8(6);
INAV_PID_CONFIG.yawJumpPreventionLimit = data.getUint16(7, true);
INAV_PID_CONFIG.gyroscopeLpf = data.getUint8(9);
INAV_PID_CONFIG.accSoftLpfHz = data.getUint8(10);
break;
case MSPCodes.MSP_SET_INAV_PID:
console.log("MSP_INAV_PID saved");
break;
case MSPCodes.MSP_NAV_POSHOLD:
NAV_POSHOLD.userControlMode = data.getUint8(0);
NAV_POSHOLD.maxSpeed = data.getUint16(1, true);
NAV_POSHOLD.maxClimbRate = data.getUint16(3, true);
NAV_POSHOLD.maxManualSpeed = data.getUint16(5, true);
NAV_POSHOLD.maxManualClimbRate = data.getUint16(7, true);
NAV_POSHOLD.maxBankAngle = data.getUint8(9);
NAV_POSHOLD.useThrottleMidForAlthold = data.getUint8(10);
NAV_POSHOLD.hoverThrottle = data.getUint16(11, true);
break;
case MSPCodes.MSP_SET_NAV_POSHOLD:
console.log('NAV_POSHOLD saved');
break;
case MSPCodes.MSP_CALIBRATION_DATA:
var callibrations = data.getUint8(0);
CALIBRATION_DATA.acc.Pos0 = (1 & (callibrations >> 0));
CALIBRATION_DATA.acc.Pos1 = (1 & (callibrations >> 1));
CALIBRATION_DATA.acc.Pos2 = (1 & (callibrations >> 2));
CALIBRATION_DATA.acc.Pos3 = (1 & (callibrations >> 3));
CALIBRATION_DATA.acc.Pos4 = (1 & (callibrations >> 4));
CALIBRATION_DATA.acc.Pos5 = (1 & (callibrations >> 5));
CALIBRATION_DATA.accZero.X = data.getInt16(1, true);
CALIBRATION_DATA.accZero.Y = data.getInt16(3, true);
CALIBRATION_DATA.accZero.Z = data.getInt16(5, true);
CALIBRATION_DATA.accGain.X = data.getInt16(7, true);
CALIBRATION_DATA.accGain.Y = data.getInt16(9, true);
CALIBRATION_DATA.accGain.Z = data.getInt16(11, true);
CALIBRATION_DATA.magZero.X = data.getInt16(13, true);
CALIBRATION_DATA.magZero.Y = data.getInt16(15, true);
CALIBRATION_DATA.magZero.Z = data.getInt16(17, true);
CALIBRATION_DATA.opflow.Scale = (data.getInt16(19, true) / 256.0);
CALIBRATION_DATA.magGain.X = data.getInt16(21, true);
CALIBRATION_DATA.magGain.Y = data.getInt16(23, true);
CALIBRATION_DATA.magGain.Z = data.getInt16(25, true);
break;
case MSPCodes.MSP_SET_CALIBRATION_DATA:
console.log('Calibration data saved');
break;
case MSPCodes.MSP_POSITION_ESTIMATION_CONFIG:
POSITION_ESTIMATOR.w_z_baro_p = data.getUint16(0, true) / 100;
POSITION_ESTIMATOR.w_z_gps_p = data.getUint16(2, true) / 100;
POSITION_ESTIMATOR.w_z_gps_v = data.getUint16(4, true) / 100;
POSITION_ESTIMATOR.w_xy_gps_p = data.getUint16(6, true) / 100;
POSITION_ESTIMATOR.w_xy_gps_v = data.getUint16(8, true) / 100;
POSITION_ESTIMATOR.gps_min_sats = data.getUint8(10);
POSITION_ESTIMATOR.use_gps_velned = data.getUint8(11);
break;
case MSPCodes.MSP_SET_POSITION_ESTIMATION_CONFIG:
console.log('POSITION_ESTIMATOR saved');
break;
case MSPCodes.MSP_RTH_AND_LAND_CONFIG:
RTH_AND_LAND_CONFIG.minRthDistance = data.getUint16(0, true);
RTH_AND_LAND_CONFIG.rthClimbFirst = data.getUint8(2);
RTH_AND_LAND_CONFIG.rthClimbIgnoreEmergency = data.getUint8(3);
RTH_AND_LAND_CONFIG.rthTailFirst = data.getUint8(4);
RTH_AND_LAND_CONFIG.rthAllowLanding = data.getUint8(5);
RTH_AND_LAND_CONFIG.rthAltControlMode = data.getUint8(6);
RTH_AND_LAND_CONFIG.rthAbortThreshold = data.getUint16(7, true);
RTH_AND_LAND_CONFIG.rthAltitude = data.getUint16(9, true);
RTH_AND_LAND_CONFIG.landMinAltVspd = data.getUint16(11, true);
RTH_AND_LAND_CONFIG.landMaxAltVspd = data.getUint16(13, true);
RTH_AND_LAND_CONFIG.landSlowdownMinAlt = data.getUint16(15, true);
RTH_AND_LAND_CONFIG.landSlowdownMaxAlt = data.getUint16(17, true);
RTH_AND_LAND_CONFIG.emergencyDescentRate = data.getUint16(19, true);
break;
case MSPCodes.MSP_SET_RTH_AND_LAND_CONFIG:
console.log('RTH_AND_LAND_CONFIG saved');
break;
case MSPCodes.MSP_FW_CONFIG:
FW_CONFIG.cruiseThrottle = data.getUint16(0, true);
FW_CONFIG.minThrottle = data.getUint16(2, true);
FW_CONFIG.maxThrottle = data.getUint16(4, true);
FW_CONFIG.maxBankAngle = data.getUint8(6);
FW_CONFIG.maxClimbAngle = data.getUint8(7);
FW_CONFIG.maxDiveAngle = data.getUint8(8);
FW_CONFIG.pitchToThrottle = data.getUint8(9);
FW_CONFIG.loiterRadius = data.getUint16(10, true);
break;
case MSPCodes.MSP_SET_FW_CONFIG:
console.log('FW_CONFIG saved');
break;
case MSPCodes.MSP_SET_MODE_RANGE:
console.log('Mode range saved');
break;
case MSPCodes.MSP_SET_ADJUSTMENT_RANGE:
console.log('Adjustment range saved');
break;
case MSPCodes.MSP_SET_LOOP_TIME:
console.log('Looptime saved');
break;
case MSPCodes.MSP_SET_ARMING_CONFIG:
console.log('Arming config saved');
break;
case MSPCodes.MSP_SET_RESET_CURR_PID:
console.log('Current PID profile reset');
break;
case MSPCodes.MSP_SET_3D:
console.log('3D settings saved');
break;
case MSPCodes.MSP_SET_RC_DEADBAND:
console.log('Rc controls settings saved');
break;
case MSPCodes.MSP_SET_SENSOR_ALIGNMENT:
console.log('Sensor alignment saved');
break;
case MSPCodes.MSP_SET_RX_CONFIG:
console.log('Rx config saved');
break;
case MSPCodes.MSP_SET_RXFAIL_CONFIG:
console.log('Rxfail config saved');
break;
case MSPCodes.MSP_SET_FAILSAFE_CONFIG:
console.log('Failsafe config saved');
break;
case MSPCodes.MSP_OSD_CONFIG:
break;
case MSPCodes.MSP_SET_OSD_CONFIG:
console.log('OSD config set');
break;
case MSPCodes.MSP_OSD_CHAR_READ:
break;
case MSPCodes.MSP_OSD_CHAR_WRITE:
console.log('OSD char uploaded');
break;
case MSPCodes.MSP_NAME:
CONFIG.name = '';
var char;
while ((char = data.readU8()) !== null) {
CONFIG.name += String.fromCharCode(char);
}
break;
case MSPCodes.MSP_SET_NAME:
console.log("Craft name set");
break;
case MSPCodes.MSPV2_SETTING:
break;
case MSPCodes.MSP2_COMMON_SETTING_INFO:
break;
case MSPCodes.MSPV2_SET_SETTING:
console.log("Setting set");
break;
case MSPCodes.MSP_WP_GETINFO:
// Reserved for waypoint capabilities data.getUint8(0);
MISSION_PLANNER.setMaxWaypoints(data.getUint8(1));
MISSION_PLANNER.setValidMission(data.getUint8(2));
MISSION_PLANNER.setCountBusyPoints(data.getUint8(3));
break;
case MSPCodes.MSP_SET_WP:
console.log('Point saved');
break;
case MSPCodes.MSP_WP_MISSION_SAVE:
// buffer.push(0);
console.log(data);
break;
case MSPCodes.MSP_WP_MISSION_LOAD:
console.log('Mission load');
break;
case MSPCodes.MSP2_INAV_MIXER:
MIXER_CONFIG.yawMotorDirection = data.getInt8(0);
MIXER_CONFIG.yawJumpPreventionLimit = data.getUint16(1, true);
MIXER_CONFIG.platformType = data.getInt8(3);
MIXER_CONFIG.hasFlaps = data.getInt8(4);
MIXER_CONFIG.appliedMixerPreset = data.getInt16(5, true);
MIXER_CONFIG.numberOfMotors = data.getInt8(7);
MIXER_CONFIG.numberOfServos = data.getInt8(8);
MOTOR_RULES.setMotorCount(MIXER_CONFIG.numberOfMotors);
SERVO_RULES.setServoCount(MIXER_CONFIG.numberOfServos);
break;
case MSPCodes.MSP2_INAV_SET_MIXER:
console.log('Mixer config saved');
case MSPCodes.MSP2_INAV_OSD_LAYOUTS:
break;
case MSPCodes.MSP2_INAV_OSD_SET_LAYOUT_ITEM:
console.log('OSD layout item saved');
break;
case MSPCodes.MSP2_INAV_OSD_ALARMS:
break;
case MSPCodes.MSP2_INAV_OSD_SET_ALARMS:
console.log('OSD alarms saved');
break;
case MSPCodes.MSP2_INAV_OSD_PREFERENCES:
break;
case MSPCodes.MSP2_INAV_OSD_SET_PREFERENCES:
console.log('OSD preferences saved');
break;
case MSPCodes.MSPV2_INAV_OUTPUT_MAPPING:
OUTPUT_MAPPING.flush();
for (i = 0; i < data.byteLength; ++i)
OUTPUT_MAPPING.put(data.getUint8(i));
break;
case MSPCodes.MSP2_INAV_MC_BRAKING:
try {
BRAKING_CONFIG.speedThreshold = data.getUint16(0, true);
BRAKING_CONFIG.disengageSpeed = data.getUint16(2, true);
BRAKING_CONFIG.timeout = data.getUint16(4, true);
BRAKING_CONFIG.boostFactor = data.getInt8(6);
BRAKING_CONFIG.boostTimeout = data.getUint16(7, true);
BRAKING_CONFIG.boostSpeedThreshold = data.getUint16(9, true);
BRAKING_CONFIG.boostDisengageSpeed = data.getUint16(11, true);
BRAKING_CONFIG.bankAngle = data.getInt8(13);
} catch (e) {
console.log("MC_BRAKING MODE is not supported by the hardware");
}
break;
case MSPCodes.MSP2_INAV_SET_MC_BRAKING:
console.log('Braking config saved');
break;
case MSPCodes.MSP2_BLACKBOX_CONFIG:
BLACKBOX.supported = (data.getUint8(0) & 1) != 0;
BLACKBOX.blackboxDevice = data.getUint8(1);
BLACKBOX.blackboxRateNum = data.getUint16(2);
BLACKBOX.blackboxRateDenom = data.getUint16(4);
BLACKBOX.blackboxIncludeFlags = data.getUint32(6,true);
break;
case MSPCodes.MSP2_SET_BLACKBOX_CONFIG:
console.log("Blackbox config saved");
break;
case MSPCodes.MSP2_INAV_TEMPERATURES:
for (i = 0; i < 8; ++i) {
temp_decidegrees = data.getInt16(i * 2, true);
SENSOR_DATA.temperature[i] = temp_decidegrees / 10; // °C
}
break;
case MSPCodes.MSP2_INAV_SAFEHOME:
SAFEHOMES.put(new Safehome(
data.getUint8(0),
data.getUint8(1),
data.getInt32(2, true),
data.getInt32(6, true)
));
break;
case MSPCodes.MSP2_INAV_SET_SAFEHOME:
console.log('Safehome points saved');
break;
default:
console.log('Unknown code detected: ' + dataHandler.code);
} else {
console.log('FC reports unsupported message error: ' + dataHandler.code);
}
// trigger callbacks, cleanup/remove callback after trigger
for (i = dataHandler.callbacks.length - 1; i >= 0; i--) { // iterating in reverse because we use .splice which modifies array length
if (i < dataHandler.callbacks.length) {
if (dataHandler.callbacks[i].code == dataHandler.code) {
// save callback reference
var callback = dataHandler.callbacks[i].onFinish;
// remove timeout
clearTimeout(dataHandler.callbacks[i].timer);
/*
* Compute roundtrip
*/
if (dataHandler.callbacks[i]) {
helper.mspQueue.putRoundtrip(new Date().getTime() - dataHandler.callbacks[i].createdOn);
helper.mspQueue.putHardwareRoundtrip(new Date().getTime() - dataHandler.callbacks[i].sentOn);
}
// remove object from array
dataHandler.callbacks.splice(i, 1);
// fire callback
if (callback) {
callback({ 'command': dataHandler.code, 'data': data, 'length': dataHandler.message_length_expected });
}
break;
}
}
}
};
self.crunch = function (code) {
var buffer = [],
i;
switch (code) {
case MSPCodes.MSP_SET_FEATURE:
buffer.push(specificByte(FEATURES, 0));
buffer.push(specificByte(FEATURES, 1));
buffer.push(specificByte(FEATURES, 2));
buffer.push(specificByte(FEATURES, 3));
break;
case MSPCodes.MSP_SET_BOARD_ALIGNMENT:
buffer.push(specificByte(BOARD_ALIGNMENT.roll, 0));
buffer.push(specificByte(BOARD_ALIGNMENT.roll, 1));
buffer.push(specificByte(BOARD_ALIGNMENT.pitch, 0));
buffer.push(specificByte(BOARD_ALIGNMENT.pitch, 1));
buffer.push(specificByte(BOARD_ALIGNMENT.yaw, 0));
buffer.push(specificByte(BOARD_ALIGNMENT.yaw, 1));
break;
case MSPCodes.MSP_SET_CURRENT_METER_CONFIG:
buffer.push(specificByte(CURRENT_METER_CONFIG.scale, 0));
buffer.push(specificByte(CURRENT_METER_CONFIG.scale, 1));
buffer.push(specificByte(CURRENT_METER_CONFIG.offset, 0));
buffer.push(specificByte(CURRENT_METER_CONFIG.offset, 1));
buffer.push(CURRENT_METER_CONFIG.type);
buffer.push(specificByte(CURRENT_METER_CONFIG.capacity, 0));
buffer.push(specificByte(CURRENT_METER_CONFIG.capacity, 1));
break;
case MSPCodes.MSP_SET_VTX_CONFIG:
if (VTX_CONFIG.band > 0) {
buffer.push16(((VTX_CONFIG.band - 1) * 8) + (VTX_CONFIG.channel - 1));
} else {
// This tells the firmware to ignore this value.
buffer.push16(VTX.MAX_FREQUENCY_MHZ + 1);
}
buffer.push(VTX_CONFIG.power);
// Don't enable PIT mode
buffer.push(0);
buffer.push(VTX_CONFIG.low_power_disarm);
break;
case MSPCodes.MSP2_SET_PID:
for (i = 0; i < PIDs.length; i++) {
buffer.push(parseInt(PIDs[i][0]));
buffer.push(parseInt(PIDs[i][1]));
buffer.push(parseInt(PIDs[i][2]));
buffer.push(parseInt(PIDs[i][3]));
}
break;
case MSPCodes.MSP_SET_RC_TUNING:
buffer.push(Math.round(RC_tuning.RC_RATE * 100));
buffer.push(Math.round(RC_tuning.RC_EXPO * 100));
buffer.push(Math.round(RC_tuning.roll_rate / 10));
buffer.push(Math.round(RC_tuning.pitch_rate / 10));
buffer.push(Math.round(RC_tuning.yaw_rate / 10));
buffer.push(RC_tuning.dynamic_THR_PID);
buffer.push(Math.round(RC_tuning.throttle_MID * 100));
buffer.push(Math.round(RC_tuning.throttle_EXPO * 100));
buffer.push(lowByte(RC_tuning.dynamic_THR_breakpoint));
buffer.push(highByte(RC_tuning.dynamic_THR_breakpoint));
buffer.push(Math.round(RC_tuning.RC_YAW_EXPO * 100));
break;
case MSPCodes.MSPV2_INAV_SET_RATE_PROFILE:
// throttle
buffer.push(Math.round(RC_tuning.throttle_MID * 100));
buffer.push(Math.round(RC_tuning.throttle_EXPO * 100));
buffer.push(RC_tuning.dynamic_THR_PID);
buffer.push(lowByte(RC_tuning.dynamic_THR_breakpoint));
buffer.push(highByte(RC_tuning.dynamic_THR_breakpoint));
// stabilized
buffer.push(Math.round(RC_tuning.RC_EXPO * 100));
buffer.push(Math.round(RC_tuning.RC_YAW_EXPO * 100));
buffer.push(Math.round(RC_tuning.roll_rate / 10));
buffer.push(Math.round(RC_tuning.pitch_rate / 10));
buffer.push(Math.round(RC_tuning.yaw_rate / 10));
// manual
buffer.push(Math.round(RC_tuning.manual_RC_EXPO * 100));
buffer.push(Math.round(RC_tuning.manual_RC_YAW_EXPO * 100));
buffer.push(RC_tuning.manual_roll_rate);
buffer.push(RC_tuning.manual_pitch_rate);
buffer.push(RC_tuning.manual_yaw_rate);
break;
case MSPCodes.MSP_SET_RX_MAP:
for (i = 0; i < RC_MAP.length; i++) {
buffer.push(RC_MAP[i]);
}
break;
case MSPCodes.MSP_SET_ACC_TRIM:
buffer.push(lowByte(CONFIG.accelerometerTrims[0]));
buffer.push(highByte(CONFIG.accelerometerTrims[0]));
buffer.push(lowByte(CONFIG.accelerometerTrims[1]));
buffer.push(highByte(CONFIG.accelerometerTrims[1]));
break;
case MSPCodes.MSP_SET_ARMING_CONFIG:
buffer.push(ARMING_CONFIG.auto_disarm_delay);
buffer.push(ARMING_CONFIG.disarm_kill_switch);
break;
case MSPCodes.MSP_SET_LOOP_TIME:
buffer.push(lowByte(FC_CONFIG.loopTime));
buffer.push(highByte(FC_CONFIG.loopTime));
break;
case MSPCodes.MSP_SET_MISC:
buffer.push(lowByte(MISC.midrc));
buffer.push(highByte(MISC.midrc));
buffer.push(lowByte(MISC.minthrottle));
buffer.push(highByte(MISC.minthrottle));
buffer.push(lowByte(MISC.maxthrottle));
buffer.push(highByte(MISC.maxthrottle));
buffer.push(lowByte(MISC.mincommand));
buffer.push(highByte(MISC.mincommand));
buffer.push(lowByte(MISC.failsafe_throttle));
buffer.push(highByte(MISC.failsafe_throttle));
buffer.push(MISC.gps_type);
buffer.push(MISC.sensors_baudrate);
buffer.push(MISC.gps_ubx_sbas);
buffer.push(MISC.multiwiicurrentoutput);
buffer.push(MISC.rssi_channel);
buffer.push(MISC.placeholder2);
buffer.push(lowByte(Math.round(MISC.mag_declination * 10)));
buffer.push(highByte(Math.round(MISC.mag_declination * 10)));
buffer.push(MISC.vbatscale);
buffer.push(Math.round(MISC.vbatmincellvoltage * 10));
buffer.push(Math.round(MISC.vbatmaxcellvoltage * 10));
buffer.push(Math.round(MISC.vbatwarningcellvoltage * 10));
break;
case MSPCodes.MSPV2_INAV_SET_MISC:
buffer.push(lowByte(MISC.midrc));
buffer.push(highByte(MISC.midrc));
buffer.push(lowByte(MISC.minthrottle));
buffer.push(highByte(MISC.minthrottle));
buffer.push(lowByte(MISC.maxthrottle));
buffer.push(highByte(MISC.maxthrottle));
buffer.push(lowByte(MISC.mincommand));
buffer.push(highByte(MISC.mincommand));
buffer.push(lowByte(MISC.failsafe_throttle));
buffer.push(highByte(MISC.failsafe_throttle));
buffer.push(MISC.gps_type);
buffer.push(MISC.sensors_baudrate);
buffer.push(MISC.gps_ubx_sbas);
buffer.push(MISC.rssi_channel);
buffer.push(lowByte(Math.round(MISC.mag_declination * 10)));
buffer.push(highByte(Math.round(MISC.mag_declination * 10)));
buffer.push(lowByte(MISC.vbatscale));
buffer.push(highByte(MISC.vbatscale));
buffer.push(MISC.voltage_source);
buffer.push(MISC.battery_cells);
buffer.push(lowByte(Math.round(MISC.vbatdetectcellvoltage * 100)));
buffer.push(highByte(Math.round(MISC.vbatdetectcellvoltage * 100)));
buffer.push(lowByte(Math.round(MISC.vbatmincellvoltage * 100)));
buffer.push(highByte(Math.round(MISC.vbatmincellvoltage * 100)));
buffer.push(lowByte(Math.round(MISC.vbatmaxcellvoltage * 100)));
buffer.push(highByte(Math.round(MISC.vbatmaxcellvoltage * 100)));
buffer.push(lowByte(Math.round(MISC.vbatwarningcellvoltage * 100)));
buffer.push(highByte(Math.round(MISC.vbatwarningcellvoltage * 100)));
for (byte_index = 0; byte_index < 4; ++byte_index)
buffer.push(specificByte(MISC.battery_capacity, byte_index));
for (byte_index = 0; byte_index < 4; ++byte_index)
buffer.push(specificByte(MISC.battery_capacity_warning, byte_index));
for (byte_index = 0; byte_index < 4; ++byte_index)
buffer.push(specificByte(MISC.battery_capacity_critical, byte_index));
buffer.push((MISC.battery_capacity_unit == 'mAh') ? 0 : 1);
break;
case MSPCodes.MSPV2_INAV_SET_BATTERY_CONFIG:
buffer.push(lowByte(BATTERY_CONFIG.vbatscale));
buffer.push(highByte(BATTERY_CONFIG.vbatscale));
buffer.push(BATTERY_CONFIG.voltage_source);
buffer.push(BATTERY_CONFIG.battery_cells);
buffer.push(lowByte(Math.round(BATTERY_CONFIG.vbatdetectcellvoltage * 100)));
buffer.push(highByte(Math.round(BATTERY_CONFIG.vbatdetectcellvoltage * 100)));
buffer.push(lowByte(Math.round(BATTERY_CONFIG.vbatmincellvoltage * 100)));
buffer.push(highByte(Math.round(BATTERY_CONFIG.vbatmincellvoltage * 100)));
buffer.push(lowByte(Math.round(BATTERY_CONFIG.vbatmaxcellvoltage * 100)));
buffer.push(highByte(Math.round(BATTERY_CONFIG.vbatmaxcellvoltage * 100)));
buffer.push(lowByte(Math.round(BATTERY_CONFIG.vbatwarningcellvoltage * 100)));
buffer.push(highByte(Math.round(BATTERY_CONFIG.vbatwarningcellvoltage * 100)));
buffer.push(lowByte(BATTERY_CONFIG.current_offset));
buffer.push(highByte(BATTERY_CONFIG.current_offset));
buffer.push(lowByte(BATTERY_CONFIG.current_scale));
buffer.push(highByte(BATTERY_CONFIG.current_scale));
for (byte_index = 0; byte_index < 4; ++byte_index)
buffer.push(specificByte(BATTERY_CONFIG.capacity, byte_index));
for (byte_index = 0; byte_index < 4; ++byte_index)
buffer.push(specificByte(BATTERY_CONFIG.capacity_warning, byte_index));
for (byte_index = 0; byte_index < 4; ++byte_index)
buffer.push(specificByte(BATTERY_CONFIG.capacity_critical, byte_index));
buffer.push(BATTERY_CONFIG.capacity_unit);
break;
case MSPCodes.MSP_SET_RX_CONFIG:
buffer.push(RX_CONFIG.serialrx_provider);
buffer.push(lowByte(RX_CONFIG.maxcheck));
buffer.push(highByte(RX_CONFIG.maxcheck));
buffer.push(lowByte(RX_CONFIG.midrc));
buffer.push(highByte(RX_CONFIG.midrc));
buffer.push(lowByte(RX_CONFIG.mincheck));
buffer.push(highByte(RX_CONFIG.mincheck));
buffer.push(RX_CONFIG.spektrum_sat_bind);
buffer.push(lowByte(RX_CONFIG.rx_min_usec));
buffer.push(highByte(RX_CONFIG.rx_min_usec));
buffer.push(lowByte(RX_CONFIG.rx_max_usec));
buffer.push(highByte(RX_CONFIG.rx_max_usec));
buffer.push(0); // 4 null bytes for betaflight compatibility
buffer.push(0);
buffer.push(0);
buffer.push(0);
buffer.push(RX_CONFIG.spirx_protocol);
// spirx_id - 4 bytes
buffer.push32(RX_CONFIG.spirx_id);
buffer.push(RX_CONFIG.spirx_channel_count);
// unused byte for fpvCamAngleDegrees, for compatiblity with betaflight
buffer.push(0);
// receiver type in RX_CONFIG rather than in BF_CONFIG.features
buffer.push(RX_CONFIG.receiver_type);
break;
case MSPCodes.MSP_SET_FAILSAFE_CONFIG:
buffer.push(FAILSAFE_CONFIG.failsafe_delay);
buffer.push(FAILSAFE_CONFIG.failsafe_off_delay);
buffer.push(lowByte(FAILSAFE_CONFIG.failsafe_throttle));
buffer.push(highByte(FAILSAFE_CONFIG.failsafe_throttle));
buffer.push(FAILSAFE_CONFIG.failsafe_kill_switch);
buffer.push(lowByte(FAILSAFE_CONFIG.failsafe_throttle_low_delay));
buffer.push(highByte(FAILSAFE_CONFIG.failsafe_throttle_low_delay));
buffer.push(FAILSAFE_CONFIG.failsafe_procedure);
buffer.push(FAILSAFE_CONFIG.failsafe_recovery_delay);
buffer.push(lowByte(FAILSAFE_CONFIG.failsafe_fw_roll_angle));
buffer.push(highByte(FAILSAFE_CONFIG.failsafe_fw_roll_angle));
buffer.push(lowByte(FAILSAFE_CONFIG.failsafe_fw_pitch_angle));
buffer.push(highByte(FAILSAFE_CONFIG.failsafe_fw_pitch_angle));
buffer.push(lowByte(FAILSAFE_CONFIG.failsafe_fw_yaw_rate));
buffer.push(highByte(FAILSAFE_CONFIG.failsafe_fw_yaw_rate));
buffer.push(lowByte(FAILSAFE_CONFIG.failsafe_stick_motion_threshold));
buffer.push(highByte(FAILSAFE_CONFIG.failsafe_stick_motion_threshold));
buffer.push(lowByte(FAILSAFE_CONFIG.failsafe_min_distance));
buffer.push(highByte(FAILSAFE_CONFIG.failsafe_min_distance));
buffer.push(FAILSAFE_CONFIG.failsafe_min_distance_procedure);
break;
case MSPCodes.MSP_SET_CHANNEL_FORWARDING:
for (i = 0; i < SERVO_CONFIG.length; i++) {
var out = SERVO_CONFIG[i].indexOfChannelToForward;
if (out == undefined) {
out = 255; // Cleanflight defines "CHANNEL_FORWARDING_DISABLED" as "(uint8_t)0xFF"
}
buffer.push(out);
}
break;
case MSPCodes.MSP2_SET_CF_SERIAL_CONFIG:
for (i = 0; i < SERIAL_CONFIG.ports.length; i++) {
var serialPort = SERIAL_CONFIG.ports[i];
buffer.push(serialPort.identifier);
var functionMask = mspHelper.SERIAL_PORT_FUNCTIONSToMask(serialPort.functions);
buffer.push(specificByte(functionMask, 0));
buffer.push(specificByte(functionMask, 1));
buffer.push(specificByte(functionMask, 2));
buffer.push(specificByte(functionMask, 3));
var BAUD_RATES = mspHelper.BAUD_RATES_post1_6_3;
buffer.push(BAUD_RATES.indexOf(serialPort.msp_baudrate));
buffer.push(BAUD_RATES.indexOf(serialPort.sensors_baudrate));
buffer.push(BAUD_RATES.indexOf(serialPort.telemetry_baudrate));
buffer.push(BAUD_RATES.indexOf(serialPort.blackbox_baudrate));
}
break;
case MSPCodes.MSP_SET_3D:
buffer.push(lowByte(REVERSIBLE_MOTORS.deadband_low));
buffer.push(highByte(REVERSIBLE_MOTORS.deadband_low));
buffer.push(lowByte(REVERSIBLE_MOTORS.deadband_high));
buffer.push(highByte(REVERSIBLE_MOTORS.deadband_high));
buffer.push(lowByte(REVERSIBLE_MOTORS.neutral));
buffer.push(highByte(REVERSIBLE_MOTORS.neutral));
break;
case MSPCodes.MSP_SET_RC_DEADBAND:
buffer.push(RC_deadband.deadband);
buffer.push(RC_deadband.yaw_deadband);
buffer.push(RC_deadband.alt_hold_deadband);
buffer.push(lowByte(REVERSIBLE_MOTORS.deadband_throttle));
buffer.push(highByte(REVERSIBLE_MOTORS.deadband_throttle));
break;
case MSPCodes.MSP_SET_SENSOR_ALIGNMENT:
buffer.push(SENSOR_ALIGNMENT.align_gyro);
buffer.push(SENSOR_ALIGNMENT.align_acc);
buffer.push(SENSOR_ALIGNMENT.align_mag);
buffer.push(SENSOR_ALIGNMENT.align_opflow);
break;
case MSPCodes.MSP_SET_ADVANCED_CONFIG:
buffer.push(ADVANCED_CONFIG.gyroSyncDenominator);
buffer.push(ADVANCED_CONFIG.pidProcessDenom);
buffer.push(ADVANCED_CONFIG.useUnsyncedPwm);
buffer.push(ADVANCED_CONFIG.motorPwmProtocol);
buffer.push(lowByte(ADVANCED_CONFIG.motorPwmRate));
buffer.push(highByte(ADVANCED_CONFIG.motorPwmRate));
buffer.push(lowByte(ADVANCED_CONFIG.servoPwmRate));
buffer.push(highByte(ADVANCED_CONFIG.servoPwmRate));
buffer.push(ADVANCED_CONFIG.gyroSync);
break;
case MSPCodes.MSP_SET_INAV_PID:
buffer.push(INAV_PID_CONFIG.asynchronousMode);
buffer.push(lowByte(INAV_PID_CONFIG.accelerometerTaskFrequency));
buffer.push(highByte(INAV_PID_CONFIG.accelerometerTaskFrequency));
buffer.push(lowByte(INAV_PID_CONFIG.attitudeTaskFrequency));
buffer.push(highByte(INAV_PID_CONFIG.attitudeTaskFrequency));
buffer.push(INAV_PID_CONFIG.magHoldRateLimit);
buffer.push(INAV_PID_CONFIG.magHoldErrorLpfFrequency);
buffer.push(lowByte(INAV_PID_CONFIG.yawJumpPreventionLimit));
buffer.push(highByte(INAV_PID_CONFIG.yawJumpPreventionLimit));
buffer.push(INAV_PID_CONFIG.gyroscopeLpf);
buffer.push(INAV_PID_CONFIG.accSoftLpfHz);
buffer.push(0); //reserved
buffer.push(0); //reserved
buffer.push(0); //reserved
buffer.push(0); //reserved
break;
case MSPCodes.MSP_SET_NAV_POSHOLD:
buffer.push(NAV_POSHOLD.userControlMode);
buffer.push(lowByte(NAV_POSHOLD.maxSpeed));
buffer.push(highByte(NAV_POSHOLD.maxSpeed));
buffer.push(lowByte(NAV_POSHOLD.maxClimbRate));
buffer.push(highByte(NAV_POSHOLD.maxClimbRate));
buffer.push(lowByte(NAV_POSHOLD.maxManualSpeed));
buffer.push(highByte(NAV_POSHOLD.maxManualSpeed));
buffer.push(lowByte(NAV_POSHOLD.maxManualClimbRate));
buffer.push(highByte(NAV_POSHOLD.maxManualClimbRate));
buffer.push(NAV_POSHOLD.maxBankAngle);
buffer.push(NAV_POSHOLD.useThrottleMidForAlthold);
buffer.push(lowByte(NAV_POSHOLD.hoverThrottle));
buffer.push(highByte(NAV_POSHOLD.hoverThrottle));
break;
case MSPCodes.MSP_SET_CALIBRATION_DATA:
buffer.push(lowByte(CALIBRATION_DATA.accZero.X));
buffer.push(highByte(CALIBRATION_DATA.accZero.X));
buffer.push(lowByte(CALIBRATION_DATA.accZero.Y));
buffer.push(highByte(CALIBRATION_DATA.accZero.Y));
buffer.push(lowByte(CALIBRATION_DATA.accZero.Z));
buffer.push(highByte(CALIBRATION_DATA.accZero.Z));
buffer.push(lowByte(CALIBRATION_DATA.accGain.X));
buffer.push(highByte(CALIBRATION_DATA.accGain.X));
buffer.push(lowByte(CALIBRATION_DATA.accGain.Y));
buffer.push(highByte(CALIBRATION_DATA.accGain.Y));
buffer.push(lowByte(CALIBRATION_DATA.accGain.Z));
buffer.push(highByte(CALIBRATION_DATA.accGain.Z));
buffer.push(lowByte(CALIBRATION_DATA.magZero.X));
buffer.push(highByte(CALIBRATION_DATA.magZero.X));
buffer.push(lowByte(CALIBRATION_DATA.magZero.Y));
buffer.push(highByte(CALIBRATION_DATA.magZero.Y));
buffer.push(lowByte(CALIBRATION_DATA.magZero.Z));
buffer.push(highByte(CALIBRATION_DATA.magZero.Z));
buffer.push(lowByte(Math.round(CALIBRATION_DATA.opflow.Scale * 256)));
buffer.push(highByte(Math.round(CALIBRATION_DATA.opflow.Scale * 256)));
buffer.push(lowByte(CALIBRATION_DATA.magGain.X));
buffer.push(highByte(CALIBRATION_DATA.magGain.X));
buffer.push(lowByte(CALIBRATION_DATA.magGain.Y));
buffer.push(highByte(CALIBRATION_DATA.magGain.Y));
buffer.push(lowByte(CALIBRATION_DATA.magGain.Z));
buffer.push(highByte(CALIBRATION_DATA.magGain.Z));
break;
case MSPCodes.MSP_SET_POSITION_ESTIMATION_CONFIG:
buffer.push(lowByte(POSITION_ESTIMATOR.w_z_baro_p * 100));
buffer.push(highByte(POSITION_ESTIMATOR.w_z_baro_p * 100));
buffer.push(lowByte(POSITION_ESTIMATOR.w_z_gps_p * 100));
buffer.push(highByte(POSITION_ESTIMATOR.w_z_gps_p * 100));
buffer.push(lowByte(POSITION_ESTIMATOR.w_z_gps_v * 100));
buffer.push(highByte(POSITION_ESTIMATOR.w_z_gps_v * 100));
buffer.push(lowByte(POSITION_ESTIMATOR.w_xy_gps_p * 100));
buffer.push(highByte(POSITION_ESTIMATOR.w_xy_gps_p * 100));
buffer.push(lowByte(POSITION_ESTIMATOR.w_xy_gps_v * 100));
buffer.push(highByte(POSITION_ESTIMATOR.w_xy_gps_v * 100));
buffer.push(POSITION_ESTIMATOR.gps_min_sats);
buffer.push(POSITION_ESTIMATOR.use_gps_velned);
break;
case MSPCodes.MSP_SET_RTH_AND_LAND_CONFIG:
buffer.push(lowByte(RTH_AND_LAND_CONFIG.minRthDistance));
buffer.push(highByte(RTH_AND_LAND_CONFIG.minRthDistance));
buffer.push(RTH_AND_LAND_CONFIG.rthClimbFirst);
buffer.push(RTH_AND_LAND_CONFIG.rthClimbIgnoreEmergency);
buffer.push(RTH_AND_LAND_CONFIG.rthTailFirst);
buffer.push(RTH_AND_LAND_CONFIG.rthAllowLanding);
buffer.push(RTH_AND_LAND_CONFIG.rthAltControlMode);
buffer.push(lowByte(RTH_AND_LAND_CONFIG.rthAbortThreshold));
buffer.push(highByte(RTH_AND_LAND_CONFIG.rthAbortThreshold));
buffer.push(lowByte(RTH_AND_LAND_CONFIG.rthAltitude));
buffer.push(highByte(RTH_AND_LAND_CONFIG.rthAltitude));
buffer.push(lowByte(RTH_AND_LAND_CONFIG.landMinAltVspd));
buffer.push(highByte(RTH_AND_LAND_CONFIG.landMinAltVspd));
buffer.push(lowByte(RTH_AND_LAND_CONFIG.landMaxAltVspd));
buffer.push(highByte(RTH_AND_LAND_CONFIG.landMaxAltVspd));
buffer.push(lowByte(RTH_AND_LAND_CONFIG.landSlowdownMinAlt));
buffer.push(highByte(RTH_AND_LAND_CONFIG.landSlowdownMinAlt));
buffer.push(lowByte(RTH_AND_LAND_CONFIG.landSlowdownMaxAlt));
buffer.push(highByte(RTH_AND_LAND_CONFIG.landSlowdownMaxAlt));
buffer.push(lowByte(RTH_AND_LAND_CONFIG.emergencyDescentRate));
buffer.push(highByte(RTH_AND_LAND_CONFIG.emergencyDescentRate));
break;
case MSPCodes.MSP_SET_FW_CONFIG:
buffer.push(lowByte(FW_CONFIG.cruiseThrottle));
buffer.push(highByte(FW_CONFIG.cruiseThrottle));
buffer.push(lowByte(FW_CONFIG.minThrottle));
buffer.push(highByte(FW_CONFIG.minThrottle));
buffer.push(lowByte(FW_CONFIG.maxThrottle));
buffer.push(highByte(FW_CONFIG.maxThrottle));
buffer.push(FW_CONFIG.maxBankAngle);
buffer.push(FW_CONFIG.maxClimbAngle);
buffer.push(FW_CONFIG.maxDiveAngle);
buffer.push(FW_CONFIG.pitchToThrottle);
buffer.push(lowByte(FW_CONFIG.loiterRadius));
buffer.push(highByte(FW_CONFIG.loiterRadius));
break;
case MSPCodes.MSP_SET_FILTER_CONFIG:
buffer.push(FILTER_CONFIG.gyroSoftLpfHz);
buffer.push(lowByte(FILTER_CONFIG.dtermLpfHz));
buffer.push(highByte(FILTER_CONFIG.dtermLpfHz));
buffer.push(lowByte(FILTER_CONFIG.yawLpfHz));
buffer.push(highByte(FILTER_CONFIG.yawLpfHz));
buffer.push(lowByte(FILTER_CONFIG.gyroNotchHz1));
buffer.push(highByte(FILTER_CONFIG.gyroNotchHz1));
buffer.push(lowByte(FILTER_CONFIG.gyroNotchCutoff1));
buffer.push(highByte(FILTER_CONFIG.gyroNotchCutoff1));
buffer.push(lowByte(FILTER_CONFIG.dtermNotchHz));
buffer.push(highByte(FILTER_CONFIG.dtermNotchHz));
buffer.push(lowByte(FILTER_CONFIG.dtermNotchCutoff));
buffer.push(highByte(FILTER_CONFIG.dtermNotchCutoff));
buffer.push(lowByte(FILTER_CONFIG.gyroNotchHz2));
buffer.push(highByte(FILTER_CONFIG.gyroNotchHz2));
buffer.push(lowByte(FILTER_CONFIG.gyroNotchCutoff2));
buffer.push(highByte(FILTER_CONFIG.gyroNotchCutoff2));
buffer.push(lowByte(FILTER_CONFIG.accNotchHz));
buffer.push(highByte(FILTER_CONFIG.accNotchHz));
buffer.push(lowByte(FILTER_CONFIG.accNotchCutoff));
buffer.push(highByte(FILTER_CONFIG.accNotchCutoff));
buffer.push(lowByte(FILTER_CONFIG.gyroStage2LowpassHz));
buffer.push(highByte(FILTER_CONFIG.gyroStage2LowpassHz));
break;
case MSPCodes.MSP_SET_PID_ADVANCED:
buffer.push(lowByte(PID_ADVANCED.rollPitchItermIgnoreRate));
buffer.push(highByte(PID_ADVANCED.rollPitchItermIgnoreRate));
buffer.push(lowByte(PID_ADVANCED.yawItermIgnoreRate));
buffer.push(highByte(PID_ADVANCED.yawItermIgnoreRate));
buffer.push(lowByte(PID_ADVANCED.yawPLimit));
buffer.push(highByte(PID_ADVANCED.yawPLimit));
buffer.push(0); //BF: currentProfile->pidProfile.deltaMethod
buffer.push(0); //BF: currentProfile->pidProfile.vbatPidCompensation
buffer.push(0); //BF: currentProfile->pidProfile.setpointRelaxRatio
buffer.push(PID_ADVANCED.dtermSetpointWeight);
buffer.push(lowByte(PID_ADVANCED.pidSumLimit));
buffer.push(highByte(PID_ADVANCED.pidSumLimit));
buffer.push(0); //BF: currentProfile->pidProfile.itermThrottleGain
buffer.push(lowByte(PID_ADVANCED.axisAccelerationLimitRollPitch));
buffer.push(highByte(PID_ADVANCED.axisAccelerationLimitRollPitch));
buffer.push(lowByte(PID_ADVANCED.axisAccelerationLimitYaw));
buffer.push(highByte(PID_ADVANCED.axisAccelerationLimitYaw));
break;
case MSPCodes.MSP_SET_SENSOR_CONFIG:
buffer.push(SENSOR_CONFIG.accelerometer);
buffer.push(SENSOR_CONFIG.barometer);
buffer.push(SENSOR_CONFIG.magnetometer);
buffer.push(SENSOR_CONFIG.pitot);
buffer.push(SENSOR_CONFIG.rangefinder);
buffer.push(SENSOR_CONFIG.opflow);
break;
case MSPCodes.MSP_WP_MISSION_SAVE:
buffer.push(0);
break;
case MSPCodes.MSP_WP_MISSION_LOAD:
buffer.push(0);
break;
case MSPCodes.MSP2_INAV_SET_MIXER:
buffer.push(MIXER_CONFIG.yawMotorDirection);
buffer.push(lowByte(MIXER_CONFIG.yawJumpPreventionLimit));
buffer.push(highByte(MIXER_CONFIG.yawJumpPreventionLimit));
buffer.push(MIXER_CONFIG.platformType);
buffer.push(MIXER_CONFIG.hasFlaps);
buffer.push(lowByte(MIXER_CONFIG.appliedMixerPreset));
buffer.push(highByte(MIXER_CONFIG.appliedMixerPreset));
buffer.push(0); //Filler byte to match expect payload length
buffer.push(0); //Filler byte to match expect payload length
break;
case MSPCodes.MSP2_INAV_SET_MC_BRAKING:
buffer.push(lowByte(BRAKING_CONFIG.speedThreshold));
buffer.push(highByte(BRAKING_CONFIG.speedThreshold));
buffer.push(lowByte(BRAKING_CONFIG.disengageSpeed));
buffer.push(highByte(BRAKING_CONFIG.disengageSpeed));
buffer.push(lowByte(BRAKING_CONFIG.timeout));
buffer.push(highByte(BRAKING_CONFIG.timeout));
buffer.push(BRAKING_CONFIG.boostFactor);
buffer.push(lowByte(BRAKING_CONFIG.boostTimeout));
buffer.push(highByte(BRAKING_CONFIG.boostTimeout));
buffer.push(lowByte(BRAKING_CONFIG.boostSpeedThreshold));
buffer.push(highByte(BRAKING_CONFIG.boostSpeedThreshold));
buffer.push(lowByte(BRAKING_CONFIG.boostDisengageSpeed));
buffer.push(highByte(BRAKING_CONFIG.boostDisengageSpeed));
buffer.push(BRAKING_CONFIG.bankAngle);
break;
default:
return false;
}
return buffer;
};
/**
* Set raw Rx values over MSP protocol.
*
* Channels is an array of 16-bit unsigned integer channel values to be sent. 8 channels is probably the maximum.
*/
self.setRawRx = function (channels) {
var buffer = [];
for (var i = 0; i < channels.length; i++) {
buffer.push(specificByte(channels[i], 0));
buffer.push(specificByte(channels[i], 1));
}
MSP.send_message(MSPCodes.MSP_SET_RAW_RC, buffer, false);
};
self.sendBlackboxConfiguration = function (onDataCallback) {
var buffer = [];
var messageId = MSPCodes.MSP_SET_BLACKBOX_CONFIG;
buffer.push(BLACKBOX.blackboxDevice & 0xFF);
messageId = MSPCodes.MSP2_SET_BLACKBOX_CONFIG;
buffer.push(lowByte(BLACKBOX.blackboxRateNum));
buffer.push(highByte(BLACKBOX.blackboxRateNum));
buffer.push(lowByte(BLACKBOX.blackboxRateDenom));
buffer.push(highByte(BLACKBOX.blackboxRateDenom));
buffer.push32(BLACKBOX.blackboxIncludeFlags);
//noinspection JSUnusedLocalSymbols
MSP.send_message(messageId, buffer, false, function (response) {
onDataCallback();
});
};
self.sendServoConfigurations = function (onCompleteCallback) {
var nextFunction = send_next_servo_configuration;
var servoIndex = 0;
if (SERVO_CONFIG.length == 0) {
onCompleteCallback();
} else {
nextFunction();
}
function send_next_servo_configuration() {
var buffer = [];
// send one at a time, with index
var servoConfiguration = SERVO_CONFIG[servoIndex];
buffer.push(servoIndex);
buffer.push(lowByte(servoConfiguration.min));
buffer.push(highByte(servoConfiguration.min));
buffer.push(lowByte(servoConfiguration.max));
buffer.push(highByte(servoConfiguration.max));
buffer.push(lowByte(servoConfiguration.middle));
buffer.push(highByte(servoConfiguration.middle));
buffer.push(lowByte(servoConfiguration.rate));
buffer.push(0);
buffer.push(0);
var out = servoConfiguration.indexOfChannelToForward;
if (out == undefined) {
out = 255; // Cleanflight defines "CHANNEL_FORWARDING_DISABLED" as "(uint8_t)0xFF"
}
buffer.push(out);
//Mock 4 bytes of servoConfiguration.reversedInputSources
buffer.push(0);
buffer.push(0);
buffer.push(0);
buffer.push(0);
// prepare for next iteration
servoIndex++;
if (servoIndex == SERVO_CONFIG.length) {
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP_SET_SERVO_CONFIGURATION, buffer, false, nextFunction);
}
};
self.sendServoMixer = function (onCompleteCallback) {
var nextFunction = sendMixer,
servoIndex = 0;
if (SERVO_RULES.length == 0) {
onCompleteCallback();
} else {
nextFunction();
}
function sendMixer() {
var buffer = [];
// send one at a time, with index
var servoRule = SERVO_RULES.get()[servoIndex];
//INAV 2.2 uses different MSP frame
buffer.push(servoIndex);
buffer.push(servoRule.getTarget());
buffer.push(servoRule.getInput());
buffer.push(lowByte(servoRule.getRate()));
buffer.push(highByte(servoRule.getRate()));
buffer.push(servoRule.getSpeed());
buffer.push(servoRule.getConditionId());
// prepare for next iteration
servoIndex++;
if (servoIndex == SERVO_RULES.getServoRulesCount()) { //This is the last rule. Not pretty, but we have to send all rules
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP2_INAV_SET_SERVO_MIXER, buffer, false, nextFunction);
}
};
self.sendMotorMixer = function (onCompleteCallback) {
var nextFunction = sendMixer,
servoIndex = 0;
if (MOTOR_RULES.length === 0) {
onCompleteCallback();
} else {
nextFunction();
}
function sendMixer() {
var buffer = [];
// send one at a time, with index
var rule = MOTOR_RULES.get()[servoIndex];
if (rule) {
buffer.push(servoIndex);
buffer.push(lowByte(rule.getThrottleForMsp()));
buffer.push(highByte(rule.getThrottleForMsp()));
buffer.push(lowByte(rule.getRollForMsp()));
buffer.push(highByte(rule.getRollForMsp()));
buffer.push(lowByte(rule.getPitchForMsp()));
buffer.push(highByte(rule.getPitchForMsp()));
buffer.push(lowByte(rule.getYawForMsp()));
buffer.push(highByte(rule.getYawForMsp()));
// prepare for next iteration
servoIndex++;
if (servoIndex == MOTOR_RULES.getMotorCount()) { //This is the last rule. Not pretty, but we have to send all rules
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP2_COMMON_SET_MOTOR_MIXER, buffer, false, nextFunction);
} else {
onCompleteCallback();
}
}
};
self.loadLogicConditions = function (callback) {
if (semver.gte(CONFIG.flightControllerVersion, "5.0.0")) {
LOGIC_CONDITIONS.flush();
let idx = 0;
MSP.send_message(MSPCodes.MSP2_INAV_LOGIC_CONDITIONS_SINGLE, [idx], false, nextLogicCondition);
function nextLogicCondition() {
idx++;
if (idx < LOGIC_CONDITIONS.getMaxLogicConditionCount() - 1) {
MSP.send_message(MSPCodes.MSP2_INAV_LOGIC_CONDITIONS_SINGLE, [idx], false, nextLogicCondition);
} else {
MSP.send_message(MSPCodes.MSP2_INAV_LOGIC_CONDITIONS_SINGLE, [idx], false, callback);
}
}
} else {
MSP.send_message(MSPCodes.MSP2_INAV_LOGIC_CONDITIONS, false, false, callback);
}
}
self.sendLogicConditions = function (onCompleteCallback) {
let nextFunction = sendCondition,
conditionIndex = 0;
if (LOGIC_CONDITIONS.getCount() == 0) {
onCompleteCallback();
} else {
nextFunction();
}
function sendCondition() {
let buffer = [];
// send one at a time, with index, 14 bytes per one condition
let condition = LOGIC_CONDITIONS.get()[conditionIndex];
buffer.push(conditionIndex);
buffer.push(condition.getEnabled());
buffer.push(condition.getActivatorId());
buffer.push(condition.getOperation());
buffer.push(condition.getOperandAType());
buffer.push(specificByte(condition.getOperandAValue(), 0));
buffer.push(specificByte(condition.getOperandAValue(), 1));
buffer.push(specificByte(condition.getOperandAValue(), 2));
buffer.push(specificByte(condition.getOperandAValue(), 3));
buffer.push(condition.getOperandBType());
buffer.push(specificByte(condition.getOperandBValue(), 0));
buffer.push(specificByte(condition.getOperandBValue(), 1));
buffer.push(specificByte(condition.getOperandBValue(), 2));
buffer.push(specificByte(condition.getOperandBValue(), 3));
buffer.push(condition.getFlags());
// prepare for next iteration
conditionIndex++;
if (conditionIndex == LOGIC_CONDITIONS.getCount()) { //This is the last rule. Not pretty, but we have to send all rules
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP2_INAV_SET_LOGIC_CONDITIONS, buffer, false, nextFunction);
}
};
self.loadProgrammingPid = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_PROGRAMMING_PID, false, false, callback);
}
self.sendProgrammingPid = function (onCompleteCallback) {
let nextFunction = sendPid,
pidIndex = 0;
if (PROGRAMMING_PID.getCount() == 0) {
onCompleteCallback();
} else {
nextFunction();
}
function sendPid() {
let buffer = [];
// send one at a time, with index, 20 bytes per one condition
let pid = PROGRAMMING_PID.get()[pidIndex];
buffer.push(pidIndex);
buffer.push(pid.getEnabled());
buffer.push(pid.getSetpointType());
buffer.push(specificByte(pid.getSetpointValue(), 0));
buffer.push(specificByte(pid.getSetpointValue(), 1));
buffer.push(specificByte(pid.getSetpointValue(), 2));
buffer.push(specificByte(pid.getSetpointValue(), 3));
buffer.push(pid.getMeasurementType());
buffer.push(specificByte(pid.getMeasurementValue(), 0));
buffer.push(specificByte(pid.getMeasurementValue(), 1));
buffer.push(specificByte(pid.getMeasurementValue(), 2));
buffer.push(specificByte(pid.getMeasurementValue(), 3));
buffer.push(specificByte(pid.getGainP(), 0));
buffer.push(specificByte(pid.getGainP(), 1));
buffer.push(specificByte(pid.getGainI(), 0));
buffer.push(specificByte(pid.getGainI(), 1));
buffer.push(specificByte(pid.getGainD(), 0));
buffer.push(specificByte(pid.getGainD(), 1));
buffer.push(specificByte(pid.getGainFF(), 0));
buffer.push(specificByte(pid.getGainFF(), 1));
// prepare for next iteration
pidIndex++;
if (pidIndex == PROGRAMMING_PID.getCount()) { //This is the last rule. Not pretty, but we have to send all rules
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP2_INAV_SET_PROGRAMMING_PID, buffer, false, nextFunction);
}
};
self.sendModeRanges = function (onCompleteCallback) {
var nextFunction = send_next_mode_range;
var modeRangeIndex = 0;
if (MODE_RANGES.length == 0) {
onCompleteCallback();
} else {
send_next_mode_range();
}
function send_next_mode_range() {
var modeRange = MODE_RANGES[modeRangeIndex];
var buffer = [];
buffer.push(modeRangeIndex);
buffer.push(modeRange.id);
buffer.push(modeRange.auxChannelIndex);
buffer.push((modeRange.range.start - 900) / 25);
buffer.push((modeRange.range.end - 900) / 25);
// prepare for next iteration
modeRangeIndex++;
if (modeRangeIndex == MODE_RANGES.length) {
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP_SET_MODE_RANGE, buffer, false, nextFunction);
}
};
/**
* Send a request to read a block of data from the dataflash at the given address and pass that address and a ArrayBuffer
* of the returned data to the given callback (or null for the data if an error occured).
*/
self.dataflashRead = function (address, onDataCallback) {
var buffer = [];
buffer.push(address & 0xFF);
buffer.push((address >> 8) & 0xFF);
buffer.push((address >> 16) & 0xFF);
buffer.push((address >> 24) & 0xFF);
// For API > 2.0.0 we support requesting payload size - request 4KiB and let firmware decide what actual size to send
if (CONFIG.apiVersion && semver.gte(CONFIG.apiVersion, "2.0.0")) {
buffer.push(lowByte(4096));
buffer.push(highByte(4096));
}
MSP.send_message(MSPCodes.MSP_DATAFLASH_READ, buffer, false, function (response) {
var chunkAddress = response.data.getUint32(0, 1);
// Verify that the address of the memory returned matches what the caller asked for
if (chunkAddress == address) {
/* Strip that address off the front of the reply and deliver it separately so the caller doesn't have to
* figure out the reply format:
*/
onDataCallback(address, response.data.buffer.slice(4));
} else {
// Report error
onDataCallback(address, null);
}
});
};
self.sendRxFailConfig = function (onCompleteCallback) {
var nextFunction = send_next_rxfail_config;
var rxFailIndex = 0;
if (RXFAIL_CONFIG.length == 0) {
onCompleteCallback();
} else {
send_next_rxfail_config();
}
function send_next_rxfail_config() {
var rxFail = RXFAIL_CONFIG[rxFailIndex];
var buffer = [];
buffer.push(rxFailIndex);
buffer.push(rxFail.mode);
buffer.push(lowByte(rxFail.value));
buffer.push(highByte(rxFail.value));
// prepare for next iteration
rxFailIndex++;
if (rxFailIndex == RXFAIL_CONFIG.length) {
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP_SET_RXFAIL_CONFIG, buffer, false, nextFunction);
}
};
/**
* @return {number}
*/
self.SERIAL_PORT_FUNCTIONSToMask = function (functions) {
var mask = 0;
for (var index = 0; index < functions.length; index++) {
var key = functions[index];
var bitIndex = mspHelper.SERIAL_PORT_FUNCTIONS[key];
if (bitIndex >= 0) {
mask = bit_set(mask, bitIndex);
}
}
return mask;
};
self.serialPortFunctionMaskToFunctions = function (functionMask) {
var functions = [];
var keys = Object.keys(mspHelper.SERIAL_PORT_FUNCTIONS);
for (var index = 0; index < keys.length; index++) {
var key = keys[index];
var bit = mspHelper.SERIAL_PORT_FUNCTIONS[key];
if (bit_check(functionMask, bit)) {
functions.push(key);
}
}
return functions;
};
self.sendServoMixRules = function (onCompleteCallback) {
// TODO implement
onCompleteCallback();
};
self.sendAdjustmentRanges = function (onCompleteCallback) {
var nextFunction = send_next_adjustment_range;
var adjustmentRangeIndex = 0;
if (ADJUSTMENT_RANGES.length == 0) {
onCompleteCallback();
} else {
send_next_adjustment_range();
}
function send_next_adjustment_range() {
var adjustmentRange = ADJUSTMENT_RANGES[adjustmentRangeIndex];
var buffer = [];
buffer.push(adjustmentRangeIndex);
buffer.push(adjustmentRange.slotIndex);
buffer.push(adjustmentRange.auxChannelIndex);
buffer.push((adjustmentRange.range.start - 900) / 25);
buffer.push((adjustmentRange.range.end - 900) / 25);
buffer.push(adjustmentRange.adjustmentFunction);
buffer.push(adjustmentRange.auxSwitchChannelIndex);
// prepare for next iteration
adjustmentRangeIndex++;
if (adjustmentRangeIndex == ADJUSTMENT_RANGES.length) {
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP_SET_ADJUSTMENT_RANGE, buffer, false, nextFunction);
}
};
self.sendLedStripColors = function (onCompleteCallback) {
if (LED_COLORS.length == 0) {
onCompleteCallback();
} else {
var buffer = [];
for (var colorIndex = 0; colorIndex < LED_COLORS.length; colorIndex++) {
var color = LED_COLORS[colorIndex];
buffer.push(specificByte(color.h, 0));
buffer.push(specificByte(color.h, 1));
buffer.push(color.s);
buffer.push(color.v);
}
MSP.send_message(MSPCodes.MSP_SET_LED_COLORS, buffer, false, onCompleteCallback);
}
};
self.sendLedStripConfig = function (onCompleteCallback) {
var nextFunction = send_next_led_strip_config;
var ledIndex = 0;
if (LED_STRIP.length == 0) {
onCompleteCallback();
} else {
send_next_led_strip_config();
}
function send_next_led_strip_config() {
var led = LED_STRIP[ledIndex];
/*
var led = {
directions: directions,
functions: functions,
x: data.getUint8(offset++, 1),
y: data.getUint8(offset++, 1),
color: data.getUint8(offset++, 1)
};
*/
var buffer = [],
directionLetterIndex,
functionLetterIndex,
bitIndex;
buffer.push(ledIndex);
var mask = 0;
/*
ledDirectionLetters: ['n', 'e', 's', 'w', 'u', 'd'], // in LSB bit order
ledFunctionLetters: ['i', 'w', 'f', 'a', 't', 'r', 'c', 'g', 's', 'b', 'l'], // in LSB bit order
ledBaseFunctionLetters: ['c', 'f', 'a', 'l', 's', 'g', 'r', 'h'], // in LSB bit
ledOverlayLetters: ['t', 'o', 'b', 'n', 'i', 'w'], // in LSB bit
*/
mask |= (led.y << 0);
mask |= (led.x << 4);
for (functionLetterIndex = 0; functionLetterIndex < led.functions.length; functionLetterIndex++) {
var fnIndex = MSP.ledBaseFunctionLetters.indexOf(led.functions[functionLetterIndex]);
if (fnIndex >= 0) {
mask |= (fnIndex << 8);
break;
}
}
for (var overlayLetterIndex = 0; overlayLetterIndex < led.functions.length; overlayLetterIndex++) {
bitIndex = MSP.ledOverlayLetters.indexOf(led.functions[overlayLetterIndex]);
if (bitIndex >= 0) {
mask |= bit_set(mask, bitIndex + 12);
}
}
mask |= (led.color << 18);
for (directionLetterIndex = 0; directionLetterIndex < led.directions.length; directionLetterIndex++) {
bitIndex = MSP.ledDirectionLetters.indexOf(led.directions[directionLetterIndex]);
if (bitIndex >= 0) {
mask |= bit_set(mask, bitIndex + 22);
}
}
mask |= (0 << 28); // parameters
buffer.push(specificByte(mask, 0));
buffer.push(specificByte(mask, 1));
buffer.push(specificByte(mask, 2));
buffer.push(specificByte(mask, 3));
// prepare for next iteration
ledIndex++;
if (ledIndex == LED_STRIP.length) {
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP_SET_LED_STRIP_CONFIG, buffer, false, nextFunction);
}
};
self.sendLedStripModeColors = function (onCompleteCallback) {
var nextFunction = send_next_led_strip_mode_color;
var index = 0;
if (LED_MODE_COLORS.length == 0) {
onCompleteCallback();
} else {
send_next_led_strip_mode_color();
}
function send_next_led_strip_mode_color() {
var buffer = [];
var mode_color = LED_MODE_COLORS[index];
buffer.push(mode_color.mode);
buffer.push(mode_color.direction);
buffer.push(mode_color.color);
// prepare for next iteration
index++;
if (index == LED_MODE_COLORS.length) {
nextFunction = onCompleteCallback;
}
MSP.send_message(MSPCodes.MSP_SET_LED_STRIP_MODECOLOR, buffer, false, nextFunction);
}
};
/*
* Basic sending methods used for chaining purposes
*/
self.loadINAVPidConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_INAV_PID, false, false, callback);
};
self.loadAdvancedConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_ADVANCED_CONFIG, false, false, callback);
};
self.loadFilterConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_FILTER_CONFIG, false, false, callback);
};
self.loadPidAdvanced = function (callback) {
MSP.send_message(MSPCodes.MSP_PID_ADVANCED, false, false, callback);
};
self.loadRcTuningData = function (callback) {
MSP.send_message(MSPCodes.MSP_RC_TUNING, false, false, callback);
};
self.loadRateProfileData = function (callback) {
MSP.send_message(MSPCodes.MSPV2_INAV_RATE_PROFILE, false, false, callback);
};
self.loadPidData = function (callback) {
MSP.send_message(MSPCodes.MSP2_PID, false, false, callback);
};
self.loadPidNames = function (callback) {
MSP.send_message(MSPCodes.MSP_PIDNAMES, false, false, callback);
};
self.loadFeatures = function (callback) {
MSP.send_message(MSPCodes.MSP_FEATURE, false, false, callback);
};
self.loadBoardAlignment = function (callback) {
MSP.send_message(MSPCodes.MSP_BOARD_ALIGNMENT, false, false, callback);
};
self.loadCurrentMeterConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_CURRENT_METER_CONFIG, false, false, callback);
};
self.queryFcStatus = function (callback) {
MSP.send_message(MSPCodes.MSPV2_INAV_STATUS, false, false, callback);
};
self.loadMisc = function (callback) {
MSP.send_message(MSPCodes.MSP_MISC, false, false, callback);
};
self.loadMiscV2 = function (callback) {
MSP.send_message(MSPCodes.MSPV2_INAV_MISC, false, false, callback);
};
self.loadOutputMapping = function (callback) {
MSP.send_message(MSPCodes.MSPV2_INAV_OUTPUT_MAPPING, false, false, callback);
};
self.loadBatteryConfig = function (callback) {
MSP.send_message(MSPCodes.MSPV2_BATTERY_CONFIG, false, false, callback);
};
self.loadArmingConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_ARMING_CONFIG, false, false, callback);
};
self.loadRxConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_RX_CONFIG, false, false, callback);
};
self.load3dConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_3D, false, false, callback);
};
self.loadSensorAlignment = function (callback) {
MSP.send_message(MSPCodes.MSP_SENSOR_ALIGNMENT, false, false, callback);
};
self.loadSensorConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SENSOR_CONFIG, false, false, callback);
};
self.loadSensorStatus = function (callback) {
MSP.send_message(MSPCodes.MSP_SENSOR_STATUS, false, false, callback);
};
self.loadRcDeadband = function (callback) {
MSP.send_message(MSPCodes.MSP_RC_DEADBAND, false, false, callback);
};
self.loadRcMap = function (callback) {
MSP.send_message(MSPCodes.MSP_RX_MAP, false, false, callback);
};
self.loadRcData = function (callback) {
MSP.send_message(MSPCodes.MSP_RC, false, false, callback);
};
self.loadAccTrim = function (callback) {
MSP.send_message(MSPCodes.MSP_ACC_TRIM, false, false, callback);
};
self.loadAnalog = function (callback) {
MSP.send_message(MSPCodes.MSP_ANALOG, false, false, callback);
};
self.saveToEeprom = function saveToEeprom(callback) {
MSP.send_message(MSPCodes.MSP_EEPROM_WRITE, false, false, callback);
};
self.saveINAVPidConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_INAV_PID, mspHelper.crunch(MSPCodes.MSP_SET_INAV_PID), false, callback);
};
self.saveAdvancedConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_ADVANCED_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_ADVANCED_CONFIG), false, callback);
};
self.saveFilterConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_FILTER_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_FILTER_CONFIG), false, callback);
};
self.savePidData = function (callback) {
MSP.send_message(MSPCodes.MSP2_SET_PID, mspHelper.crunch(MSPCodes.MSP2_SET_PID), false, callback);
};
self.saveRcTuningData = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_RC_TUNING, mspHelper.crunch(MSPCodes.MSP_SET_RC_TUNING), false, callback);
};
self.saveRateProfileData = function (callback) {
MSP.send_message(MSPCodes.MSPV2_INAV_SET_RATE_PROFILE, mspHelper.crunch(MSPCodes.MSPV2_INAV_SET_RATE_PROFILE), false, callback);
};
self.savePidAdvanced = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_PID_ADVANCED, mspHelper.crunch(MSPCodes.MSP_SET_PID_ADVANCED), false, callback);
};
self.saveFeatures = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_FEATURE, mspHelper.crunch(MSPCodes.MSP_SET_FEATURE), false, callback);
};
self.saveCurrentMeterConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_CURRENT_METER_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_CURRENT_METER_CONFIG), false, callback);
};
self.saveBoardAlignment = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_BOARD_ALIGNMENT, mspHelper.crunch(MSPCodes.MSP_SET_BOARD_ALIGNMENT), false, callback);
};
self.saveMisc = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_MISC, mspHelper.crunch(MSPCodes.MSP_SET_MISC), false, callback);
};
self.saveMiscV2 = function (callback) {
MSP.send_message(MSPCodes.MSPV2_INAV_SET_MISC, mspHelper.crunch(MSPCodes.MSPV2_INAV_SET_MISC), false, callback);
};
self.saveBatteryConfig = function (callback) {
MSP.send_message(MSPCodes.MSPV2_SET_BATTERY_CONFIG, mspHelper.crunch(MSPCodes.MSPV2_SET_BATTERY_CONFIG), false, callback);
};
self.save3dConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_3D, mspHelper.crunch(MSPCodes.MSP_SET_3D), false, callback);
};
self.saveSensorAlignment = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_SENSOR_ALIGNMENT, mspHelper.crunch(MSPCodes.MSP_SET_SENSOR_ALIGNMENT), false, callback);
};
self.saveAccTrim = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_ACC_TRIM, mspHelper.crunch(MSPCodes.MSP_SET_ACC_TRIM), false, callback);
};
self.saveArmingConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_ARMING_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_ARMING_CONFIG), false, callback);
};
self.saveRxConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_RX_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_RX_CONFIG), false, callback);
};
self.saveSensorConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_SENSOR_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_SENSOR_CONFIG), false, callback);
};
self.loadNavPosholdConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_NAV_POSHOLD, false, false, callback);
};
self.saveNavPosholdConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_NAV_POSHOLD, mspHelper.crunch(MSPCodes.MSP_SET_NAV_POSHOLD), false, callback);
};
self.loadPositionEstimationConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_POSITION_ESTIMATION_CONFIG, false, false, callback);
};
self.savePositionEstimationConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_POSITION_ESTIMATION_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_POSITION_ESTIMATION_CONFIG), false, callback);
};
self.loadCalibrationData = function (callback) {
MSP.send_message(MSPCodes.MSP_CALIBRATION_DATA, false, false, callback);
};
self.saveCalibrationData = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_CALIBRATION_DATA, mspHelper.crunch(MSPCodes.MSP_SET_CALIBRATION_DATA), false, callback);
};
self.loadRthAndLandConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_RTH_AND_LAND_CONFIG, false, false, callback);
};
self.saveRthAndLandConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_RTH_AND_LAND_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_RTH_AND_LAND_CONFIG), false, callback);
};
self.loadFwConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_FW_CONFIG, false, false, callback);
};
self.saveFwConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_FW_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_FW_CONFIG), false, callback);
};
self.getMissionInfo = function (callback) {
MSP.send_message(MSPCodes.MSP_WP_GETINFO, false, false, callback);
};
self.loadWaypoints = function (callback) {
MISSION_PLANNER.reinit();
let waypointId = 0;
let startTime = new Date().getTime();
MSP.send_message(MSPCodes.MSP_WP_GETINFO, false, false, loadWaypoint);
function loadWaypoint() {
waypointId++;
if (waypointId < MISSION_PLANNER.getCountBusyPoints()) {
MSP.send_message(MSPCodes.MSP_WP, [waypointId], false, loadWaypoint);
} else {
GUI.log('Receive time: ' + (new Date().getTime() - startTime) + 'ms');
MSP.send_message(MSPCodes.MSP_WP, [waypointId], false, callback);
}
};
};
self.saveWaypoints = function (callback) {
let waypointId = 0;
let startTime = new Date().getTime();
sendWaypoint();
function sendWaypoint() {
waypointId++;
if (waypointId < MISSION_PLANNER.get().length) {
MSP.send_message(MSPCodes.MSP_SET_WP, MISSION_PLANNER.extractBuffer(waypointId), false, sendWaypoint);
}
else {
MSP.send_message(MSPCodes.MSP_SET_WP, MISSION_PLANNER.extractBuffer(waypointId), false, endMission);
}
};
function endMission() {
GUI.log('Send time: ' + (new Date().getTime() - startTime) + 'ms');
MSP.send_message(MSPCodes.MSP_WP_GETINFO, false, false, callback);
}
};
self.loadSafehomes = function (callback) {
SAFEHOMES.flush();
let safehomeId = 0;
MSP.send_message(MSPCodes.MSP2_INAV_SAFEHOME, [safehomeId], false, nextSafehome);
function nextSafehome() {
safehomeId++;
if (safehomeId < SAFEHOMES.getMaxSafehomeCount() - 1) {
MSP.send_message(MSPCodes.MSP2_INAV_SAFEHOME, [safehomeId], false, nextSafehome);
}
else {
MSP.send_message(MSPCodes.MSP2_INAV_SAFEHOME, [safehomeId], false, callback);
}
};
};
self.saveSafehomes = function (callback) {
let safehomeId = 0;
MSP.send_message(MSPCodes.MSP2_INAV_SET_SAFEHOME, SAFEHOMES.extractBuffer(safehomeId), false, nextSendSafehome);
function nextSendSafehome() {
safehomeId++;
if (safehomeId < SAFEHOMES.getMaxSafehomeCount() - 1) {
MSP.send_message(MSPCodes.MSP2_INAV_SET_SAFEHOME, SAFEHOMES.extractBuffer(safehomeId), false, nextSendSafehome);
}
else {
MSP.send_message(MSPCodes.MSP2_INAV_SET_SAFEHOME, SAFEHOMES.extractBuffer(safehomeId), false, callback);
}
};
};
self._getSetting = function (name) {
if (SETTINGS[name]) {
return Promise.resolve(SETTINGS[name]);
}
var data = [];
self._encodeSettingReference(name, null, data);
return MSP.promise(MSPCodes.MSP2_COMMON_SETTING_INFO, data).then(function (result) {
const MODE_LOOKUP = 1 << 6;
var settingTypes = {
0: "uint8_t",
1: "int8_t",
2: "uint16_t",
3: "int16_t",
4: "uint32_t",
5: "float",
6: "string",
};
var setting = {};
// Discard setting name
result.data.readString();
// Discard PG ID
result.data.readU16();
var type = result.data.readU8();
setting.type = settingTypes[type];
if (!setting.type) {
console.log("Unknown setting type " + type + " for setting '" + name + "'");
return null;
}
// Discard section
result.data.readU8();
setting.mode = result.data.readU8();
setting.min = result.data.read32();
setting.max = result.data.readU32();
setting.index = result.data.readU16();
// Discard profile info
result.data.readU8();
result.data.readU8();
if (setting.mode == MODE_LOOKUP) {
var values = [];
for (var ii = setting.min; ii <= setting.max; ii++) {
values.push(result.data.readString());
}
setting.table = { values: values };
}
SETTINGS[name] = setting;
return setting;
});
}
self._encodeSettingReference = function (name, index, data) {
if (Number.isInteger(index)) {
data.push8(0);
data.push16(index);
} else {
for (var ii = 0; ii < name.length; ii++) {
data.push(name.charCodeAt(ii));
}
data.push(0);
}
};
self.getSetting = function (name) {
var $this = this;
return this._getSetting(name).then(function (setting) {
if (!setting) {
// Setting not available in the FC
return null;
}
var data = [];
$this._encodeSettingReference(name, setting.index, data);
return MSP.promise(MSPCodes.MSPV2_SETTING, data).then(function (resp) {
var value;
switch (setting.type) {
case "uint8_t":
value = resp.data.getUint8(0);
break;
case "int8_t":
value = resp.data.getInt8(0);
break;
case "uint16_t":
value = resp.data.getUint16(0, true);
break;
case "int16_t":
value = resp.data.getInt16(0, true);
break;
case "uint32_t":
value = resp.data.getUint32(0, true);
break;
case "float":
var fi32 = resp.data.getUint32(0, true);
var buf = new ArrayBuffer(4);
(new Uint32Array(buf))[0] = fi32;
value = (new Float32Array(buf))[0];
break;
case "string":
value = resp.data.readString();
break;
default:
throw "Unknown setting type " + setting.type;
}
return { setting: setting, value: value };
});
});
};
self.encodeSetting = function (name, value) {
return this._getSetting(name).then(function (setting) {
if (setting.table && !Number.isInteger(value)) {
var found = false;
for (var ii = 0; ii < setting.table.values.length; ii++) {
if (setting.table.values[ii] == value) {
value = ii;
found = true;
break;
}
}
if (!found) {
throw 'Invalid value "' + value + '" for setting ' + name;
}
}
var data = [];
self._encodeSettingReference(name, setting.index, data);
switch (setting.type) {
case "uint8_t":
case "int8_t":
data.push8(value);
break;
case "uint16_t":
case "int16_t":
data.push16(value);
break;
case "uint32_t":
data.push32(value);
break;
case "float":
var buf = new ArrayBuffer(4);
(new Float32Array(buf))[0] = value;
var if32 = (new Uint32Array(buf))[0];
data.push32(if32);
break;
case "string":
for (var ii = 0; ii < value.length; ii++) {
data.push(value.charCodeAt(ii));
}
break;
default:
throw "Unknown setting type " + setting.type;
}
return data;
});
};
self.setSetting = function (name, value, callback) {
this.encodeSetting(name, value).then(function (data) {
return MSP.promise(MSPCodes.MSPV2_SET_SETTING, data).then(callback);
});
};
self.getRTC = function (callback) {
MSP.send_message(MSPCodes.MSP_RTC, false, false, function (resp) {
var seconds = resp.data.read32();
var millis = resp.data.readU16();
if (callback) {
callback(seconds, millis);
}
});
};
self.setRTC = function (callback) {
var now = Date.now();
var secs = now / 1000;
var millis = now % 1000;
var data = [];
data.push32(secs);
data.push16(millis);
MSP.send_message(MSPCodes.MSP_SET_RTC, data, false, callback);
};
self.loadServoConfiguration = function (callback) {
MSP.send_message(MSPCodes.MSP_SERVO_CONFIGURATIONS, false, false, callback);
};
self.loadServoMixRules = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_SERVO_MIXER, false, false, callback);
};
self.loadMotorMixRules = function (callback) {
MSP.send_message(MSPCodes.MSP2_COMMON_MOTOR_MIXER, false, false, callback);
};
self.loadMotors = function (callback) {
MSP.send_message(MSPCodes.MSP_MOTOR, false, false, callback);
};
self.getCraftName = function (callback) {
MSP.send_message(MSPCodes.MSP_NAME, false, false, function (resp) {
var name = resp.data.readString();
if (callback) {
callback(name);
}
});
};
self.setCraftName = function (name, callback) {
var data = [];
name = name || "";
for (var ii = 0; ii < name.length; ii++) {
data.push(name.charCodeAt(ii));
}
MSP.send_message(MSPCodes.MSP_SET_NAME, data, false, callback);
};
self.loadMixerConfig = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_MIXER, false, false, callback);
};
self.saveMixerConfig = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_SET_MIXER, mspHelper.crunch(MSPCodes.MSP2_INAV_SET_MIXER), false, callback);
};
self.loadVTXConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_VTX_CONFIG, false, false, callback);
};
self.saveVTXConfig = function (callback) {
MSP.send_message(MSPCodes.MSP_SET_VTX_CONFIG, mspHelper.crunch(MSPCodes.MSP_SET_VTX_CONFIG), false, callback);
};
self.loadBrakingConfig = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_MC_BRAKING, false, false, callback);
}
self.saveBrakingConfig = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_SET_MC_BRAKING, mspHelper.crunch(MSPCodes.MSP2_INAV_SET_MC_BRAKING), false, callback);
};
self.loadParameterGroups = function (callback) {
MSP.send_message(MSPCodes.MSP2_COMMON_PG_LIST, false, false, function (resp) {
var groups = [];
while (resp.data.offset < resp.data.byteLength) {
var id = resp.data.readU16();
var start = resp.data.readU16();
var end = resp.data.readU16();
groups.push({ id: id, start: start, end: end });
}
if (callback) {
callback(groups);
}
});
};
self.loadBrakingConfig = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_MC_BRAKING, false, false, callback);
}
self.loadLogicConditionsStatus = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_LOGIC_CONDITIONS_STATUS, false, false, callback);
};
self.loadGlobalVariablesStatus = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_GVAR_STATUS, false, false, callback);
};
self.loadProgrammingPidStatus = function (callback) {
MSP.send_message(MSPCodes.MSP2_INAV_PROGRAMMING_PID_STATUS, false, false, callback);
};
return self;
})(GUI);