void fc_deinit()
{
fc_meas_timer.Stop();
if (fc.flight.state == FLIGHT_FLIGHT)
fc_landing();
eeprom_busy_wait();
//store altimeter settings
eeprom_update_float(&config_ee.altitude.QNH1, config.altitude.QNH1);
eeprom_update_float(&config_ee.altitude.QNH2, config.altitude.QNH2);
if (config.connectivity.use_bt)
bt_stop();
if (config.connectivity.use_gps)
gps_stop();
for (uint8_t i=0; i<NUMBER_OF_ALTIMETERS; i++)
{
eeprom_update_word((uint16_t *)&config_ee.altitude.altimeter[i].delta, config.altitude.altimeter[i].delta);
}
mems_power_off();
}
void reset ()
{
eeprom_update_float (TELEMETRY_EEPROM_MIN_CELL_VOLTAGE, BATTERY_MIN_CELL_VOLTAGE);
eeprom_update_float (TELEMETRY_EEPROM_NOM_CELL_VOLTAGE, BATTERY_NOM_CELL_VOLTAGE);
eeprom_update_float (TELEMETRY_EEPROM_MAX_CELL_VOLTAGE, BATTERY_MAX_CELL_VOLTAGE);
eeprom_update_float (TELEMETRY_EEPROM_LOW_VOLTAGE, BATTERY_LOW_CELL_VOLTAGE);
}
void reset ()
{
eeprom_update_byte (ADC_BATTERY_EEPROM_CURRENT_SENSOR, ADC_BATTERY_DEFAULT_CURRENT_SENSOR);
eeprom_update_float (ADC_BATTERY_EEPROM_VOLTAGE_MULTIPLIER, ADC_BATTERY_DEFAULT_VOLTAGE_MULTIPLIER);
eeprom_update_float (ADC_BATTERY_EEPROM_CURRENT_MULTIPLIER, ADC_BATTERY_DEFAULT_CURRENT_MULTIPLIER);
eeprom_update_word (ADC_BATTERY_EEPROM_UPDATE_INTERVAL, ADC_BATTERY_DEFAULT_UPDATE_INTERVAL);
eeprom_update_byte (ADC_BATTERY_EEPROM_VOLTAGE_CHANNEL, ADC_BATTERY_DEFAULT_VOLTAGE_CHANNEL);
eeprom_update_byte (ADC_BATTERY_EEPROM_CURRENT_CHANNEL, ADC_BATTERY_DEFAULT_CURRENT_CHANNEL);
}
/**
* Writes the PID variables to the EEPROM
*/
void pid_eeprom_write(void) {
#ifdef EEPROM_AVAILABLE
eeprom_update_float(&ee_pid_p, pid_p);
eeprom_update_float(&ee_pid_i, pid_i);
eeprom_update_float(&ee_pid_d, pid_d);
eeprom_update_float(&ee_pid_max_error_sum, pid_max_error_sum);
eeprom_update_float(&ee_pid_error_cap, pid_error_cap);
#endif /* EEPROM_AVAILABLE */
}
void fc_deinit()
{
eeprom_busy_wait();
//store altimeter info
eeprom_update_float(&config.altitude.QNH1, fc.QNH1);
eeprom_update_float(&config.altitude.QNH2, fc.QNH2);
for (uint8_t i=0; i<NUMBER_OF_ALTIMETERS; i++)
{
eeprom_update_word((uint16_t *)&config.altitude.altimeter[i].delta, fc.altimeter[i].delta);
}
MEMS_POWER_OFF;
I2C_POWER_OFF;
}
static void eepromUpdateFloatSafe(float *eepromVariable, float *shadowVariable, float newValue)
{
float readValue;
eeprom_busy_wait();
eeprom_update_float(eepromVariable, newValue);
printf("EEPROM written\n");
eeprom_busy_wait();
readValue = eeprom_read_float(eepromVariable);
if (readValue != newValue) {
eepromCorrupt();
} else {
*shadowVariable = newValue;
}
}
/**Calibrates the internal temperature sensor. This function assumes that the internal temperature sensor will be read in unipolar mode with the internal 1.17V reference.
*
* CurrentTemp The current temperature of the device. This value should be entered as 10000 times the temperature in C. EX: 25.4812C would be 254812.
*
* Note: NV_AD7794_INTERNAL_TEMP_CAL is the zero intercept of the temperature calibration. The slope is given in the datasheet.
*/
uint8_t AD7794InternalTempCal(uint32_t CurrentTemp)
{
uint8_t i;
uint8_t SendData[2];
uint32_t RunningSum = 0;
double cal;
double slope;
double intercept;
double TempInput;
char OutputString[15];
slope = 0.0001721912F; //Deg C/count
TempInput = (double)CurrentTemp/10000.0F;
cal = eeprom_read_float(&NV_AD7794_INTERNAL_TEMP_CAL);
dtostrf(cal, 9, 4, OutputString);
printf_P(PSTR("Current calibrated zero is: %s\n"), OutputString);
printf_P(PSTR("Taking 10 readings from internal temperature sensor...\n"));
//Measure internal temperature
SendData[1] = (AD7794_CRH_UNIPOLAR|AD7794_CRH_GAIN_1);
SendData[0] = (AD7794_CRL_REF_INT|AD7794_CRL_REF_DETECT|AD7794_CRL_BUFFER_ON|AD7794_CRL_CHANNEL_TEMP);
AD7794WriteReg(AD7794_CR_REG_CONFIG, SendData);
SendData[1] = AD7794_MRH_MODE_CONTINUOUS;
SendData[0] = (AD7794_MRL_CLK_INT_NOOUT | AD7794_MRL_UPDATE_RATE_10_HZ);
AD7794WriteReg(AD7794_CR_REG_MODE, SendData);
for(i=0;i<10;i++)
{
AD7794WaitReady();
RunningSum += AD7794GetData();
}
RunningSum = RunningSum/i;
printf_P(PSTR("Internal Temperature: %lu counts\n"), RunningSum);
intercept = TempInput - slope*(double)RunningSum;
dtostrf(intercept, 9, 4, OutputString);
printf_P(PSTR("New calibration is: %s\n"), OutputString);
//eeprom_update_block((const void *)&TempCalArray, (void *)NV_AD7794_INTERNAL_TEMP_CAL, 3);
eeprom_update_float(&NV_AD7794_INTERNAL_TEMP_CAL, intercept);
return 0;
}
void calibration_store(float nox, float noy, float noz, float nsx, float nsy, float nsz)
{
ox = nox;
eeprom_update_float(&nv_ox, ox);
oy = noy;
eeprom_update_float(&nv_oy, oy);
oz = noz;
eeprom_update_float(&nv_oz, oz);
sx = nsx;
eeprom_update_float(&nv_sx, sx);
sy = nsy;
eeprom_update_float(&nv_sy, sy);
sz = nsz;
eeprom_update_float(&nv_sz, sz);
eeprom_update_byte(&nv_cal_check, 'c');
}
void storeCap (float cap1, double cap2){
eeprom_busy_wait();
eeprom_update_float((float*)&eeCap1Mem, cap1);
eeprom_update_float((float*)&eeCap2Mem, cap2);
}
void reset ()
{
eeprom_update_byte (ADC_EEPROM_REF, ADC_DEFAULT_REF);
eeprom_update_float (ADC_EEPROM_REF_VOLTAGE, ADC_DEFAULT_REF_VOLTAGE);
}
void set_surface_reflection_ratio(double ratio)
{
surface_reflection_ratio = ratio;
eeprom_update_float((float*)&eep_surface_reflection_ratio, surface_reflection_ratio);
}
void set_robot_detected_angle_offset(double offset)
{
robot_detected_angle_offset = offset;
eeprom_update_float((float*)&eep_robot_detected_angle_offset, robot_detected_angle_offset);
}
