change back to HAL_Delay
This commit is contained in:
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2e28a807ea
commit
f302ff8041
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@ -89,7 +89,7 @@
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#define START_FRAME 0xAAAA // [-] Start frame definition for serial commands
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#define SERIAL_TIMEOUT 160 // [-] Serial timeout duration for the received data. 160 ~= 0.8 sec. Calculation: 0.8 sec / 0.005 sec
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#define USART2_BAUD 38400 // UART2 baud rate (long wired cable, soldered next to buzzer)
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#define USART2_BAUD 38400 // UART2 baud rate (long wired cable, soldered next to buzzer)
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#define USART2_WORDLENGTH UART_WORDLENGTH_8B // UART_WORDLENGTH_8B or UART_WORDLENGTH_9B
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#define CONTROL_SERIAL_USART2 // left sensor board cable, disable if ADC or PPM is used! For Arduino control check the hoverSerial.ino
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#define FEEDBACK_SERIAL_USART2 // left sensor board cable, disable if ADC or PPM is used!
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423
Src/main.c
423
Src/main.c
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@ -284,239 +284,234 @@ int main(void) {
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int16_t board_temp_adcFilt = adc_buffer.temp;
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int16_t board_temp_deg_c;
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uint32_t timePrev=0; //for loop timing
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while(1) {
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//HAL_Delay(DELAY_IN_MAIN_LOOP); //delay in ms
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if ((HAL_GetTick()-timePrev) > DELAY_IN_MAIN_LOOP) { // try with DELAY_IN_MAIN_LOOP = 5 ms and then with DELAY_IN_MAIN_LOOP = 10 ms
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HAL_Delay(DELAY_IN_MAIN_LOOP); //delay in ms
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#ifdef CONTROL_NUNCHUCK
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Nunchuck_Read();
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cmd1 = CLAMP((nunchuck_data[0] - 127) * 8, -1000, 1000); // x - axis. Nunchuck joystick readings range 30 - 230
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cmd2 = CLAMP((nunchuck_data[1] - 128) * 8, -1000, 1000); // y - axis
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#ifdef CONTROL_NUNCHUCK
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Nunchuck_Read();
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cmd1 = CLAMP((nunchuck_data[0] - 127) * 8, -1000, 1000); // x - axis. Nunchuck joystick readings range 30 - 230
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cmd2 = CLAMP((nunchuck_data[1] - 128) * 8, -1000, 1000); // y - axis
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button1 = (uint8_t)nunchuck_data[5] & 1;
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button2 = (uint8_t)(nunchuck_data[5] >> 1) & 1;
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button1 = (uint8_t)nunchuck_data[5] & 1;
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button2 = (uint8_t)(nunchuck_data[5] >> 1) & 1;
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#endif
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#ifdef CONTROL_PPM
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cmd1 = CLAMP((ppm_captured_value[0] - 500) * 2, -1000, 1000);
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cmd2 = CLAMP((ppm_captured_value[1] - 500) * 2, -1000, 1000);
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button1 = ppm_captured_value[5] > 500;
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float scale = ppm_captured_value[2] / 1000.0f;
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#endif
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#ifdef CONTROL_ADC
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// ADC values range: 0-4095, see ADC-calibration in config.h
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#ifdef ADC1_MID_POT
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cmd1 = CLAMP((adc_buffer.l_tx2 - ADC1_MID) * 1000 / (ADC1_MAX - ADC1_MID), 0, 1000)
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-CLAMP((ADC1_MID - adc_buffer.l_tx2) * 1000 / (ADC1_MID - ADC1_MIN), 0, 1000); // ADC1
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#else
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cmd1 = CLAMP((adc_buffer.l_tx2 - ADC1_MIN) * 1000 / (ADC1_MAX - ADC1_MIN), 0, 1000); // ADC1
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#endif
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#ifdef CONTROL_PPM
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cmd1 = CLAMP((ppm_captured_value[0] - 500) * 2, -1000, 1000);
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cmd2 = CLAMP((ppm_captured_value[1] - 500) * 2, -1000, 1000);
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button1 = ppm_captured_value[5] > 500;
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float scale = ppm_captured_value[2] / 1000.0f;
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#ifdef ADC2_MID_POT
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cmd2 = CLAMP((adc_buffer.l_rx2 - ADC2_MID) * 1000 / (ADC2_MAX - ADC2_MID), 0, 1000)
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-CLAMP((ADC2_MID - adc_buffer.l_rx2) * 1000 / (ADC2_MID - ADC2_MIN), 0, 1000); // ADC2
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#else
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cmd2 = CLAMP((adc_buffer.l_rx2 - ADC2_MIN) * 1000 / (ADC2_MAX - ADC2_MIN), 0, 1000); // ADC2
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#endif
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#ifdef CONTROL_ADC
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// ADC values range: 0-4095, see ADC-calibration in config.h
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#ifdef ADC1_MID_POT
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cmd1 = CLAMP((adc_buffer.l_tx2 - ADC1_MID) * 1000 / (ADC1_MAX - ADC1_MID), 0, 1000)
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-CLAMP((ADC1_MID - adc_buffer.l_tx2) * 1000 / (ADC1_MID - ADC1_MIN), 0, 1000); // ADC1
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#else
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cmd1 = CLAMP((adc_buffer.l_tx2 - ADC1_MIN) * 1000 / (ADC1_MAX - ADC1_MIN), 0, 1000); // ADC1
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#endif
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// use ADCs as button inputs:
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button1 = (uint8_t)(adc_buffer.l_tx2 > 2000); // ADC1
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button2 = (uint8_t)(adc_buffer.l_rx2 > 2000); // ADC2
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#ifdef ADC2_MID_POT
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cmd2 = CLAMP((adc_buffer.l_rx2 - ADC2_MID) * 1000 / (ADC2_MAX - ADC2_MID), 0, 1000)
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-CLAMP((ADC2_MID - adc_buffer.l_rx2) * 1000 / (ADC2_MID - ADC2_MIN), 0, 1000); // ADC2
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#else
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cmd2 = CLAMP((adc_buffer.l_rx2 - ADC2_MIN) * 1000 / (ADC2_MAX - ADC2_MIN), 0, 1000); // ADC2
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#endif
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timeout = 0;
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#endif
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// use ADCs as button inputs:
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button1 = (uint8_t)(adc_buffer.l_tx2 > 2000); // ADC1
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button2 = (uint8_t)(adc_buffer.l_rx2 > 2000); // ADC2
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timeout = 0;
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#endif
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#if defined CONTROL_SERIAL_USART2 || defined CONTROL_SERIAL_USART3
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// Handle received data validity, timeout and fix out-of-sync if necessary
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if (command.start == START_FRAME && command.checksum == (uint16_t)(command.start ^ command.speedLeft ^ command.speedRight)) {
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if (timeoutFlag) { // Check for previous timeout flag
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if (timeoutCnt-- <= 0) // Timeout de-qualification
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timeoutFlag = 0; // Timeout flag cleared
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} else {
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//cmd1 = CLAMP((int16_t)command.steer, -1000, 1000);
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cmd1 = CLAMP((int16_t)command.speedLeft, -1000, 1000);
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//cmd2 = CLAMP((int16_t)command.speed, -1000, 1000);
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cmd2 = CLAMP((int16_t)command.speedRight, -1000, 1000);
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command.start = 0xFFFF; // Change the Start Frame for timeout detection in the next cycle
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timeoutCnt = 0; // Reset the timeout counter
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}
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// ####### MOTOR ENABLING: Only if the initial input is very small (for SAFETY) #######
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if (enable == 0 && (cmd1 > -50 && cmd1 < 50) && (cmd2 > -50 && cmd2 < 50)){
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buzzerPattern = 0;
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buzzerFreq = 6; HAL_Delay(100); // make 2 beeps indicating the motor enable
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buzzerFreq = 4; HAL_Delay(200);
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buzzerFreq = 0;
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enable = 1; // enable motors
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consoleLog("-- Motors enabled --\r\n");
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}
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#if defined CONTROL_SERIAL_USART2 || defined CONTROL_SERIAL_USART3
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// Handle received data validity, timeout and fix out-of-sync if necessary
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if (command.start == START_FRAME && command.checksum == (uint16_t)(command.start ^ command.speedLeft ^ command.speedRight)) {
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if (timeoutFlag) { // Check for previous timeout flag
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if (timeoutCnt-- <= 0) // Timeout de-qualification
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timeoutFlag = 0; // Timeout flag cleared
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} else {
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if (timeoutCnt++ >= SERIAL_TIMEOUT) { // Timeout qualification
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timeoutFlag = 1; // Timeout detected
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timeoutCnt = SERIAL_TIMEOUT; // Limit timout counter value
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}
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// Check the received Start Frame. If it is NOT OK, most probably we are out-of-sync.
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// Try to re-sync by reseting the DMA
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if (command.start != START_FRAME && command.start != 0xFFFF) {
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HAL_UART_DMAStop(&huart);
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HAL_UART_Receive_DMA(&huart, (uint8_t *)&command, sizeof(command));
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}
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//cmd1 = CLAMP((int16_t)command.steer, -1000, 1000);
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cmd1 = CLAMP((int16_t)command.speedLeft, -1000, 1000);
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//cmd2 = CLAMP((int16_t)command.speed, -1000, 1000);
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cmd2 = CLAMP((int16_t)command.speedRight, -1000, 1000);
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command.start = 0xFFFF; // Change the Start Frame for timeout detection in the next cycle
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timeoutCnt = 0; // Reset the timeout counter
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}
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if (timeoutFlag) { // In case of timeout bring the system to a Safe State
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ctrlModReq = 0; // OPEN_MODE request. This will bring the motor power to 0 in a controlled way
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cmd1 = 0;
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cmd2 = 0;
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} else {
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ctrlModReq = ctrlModReqRaw; // Follow the Mode request
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// ####### MOTOR ENABLING: Only if the initial input is very small (for SAFETY) #######
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if (enable == 0 && (cmd1 > -50 && cmd1 < 50) && (cmd2 > -50 && cmd2 < 50)){
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buzzerPattern = 0;
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buzzerFreq = 6; HAL_Delay(100); // make 2 beeps indicating the motor enable
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buzzerFreq = 4; HAL_Delay(200);
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buzzerFreq = 0;
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enable = 1; // enable motors
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consoleLog("-- Motors enabled --\r\n");
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}
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timeout = 0;
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#endif
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// ####### LOW-PASS FILTER #######
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/*
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rateLimiter16(cmd1, RATE, &steerRateFixdt);
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rateLimiter16(cmd2, RATE, &speedRateFixdt);
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filtLowPass16(steerRateFixdt >> 4, FILTER, &steerFixdt);
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filtLowPass16(speedRateFixdt >> 4, FILTER, &speedFixdt);
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steer = steerFixdt >> 4; // convert fixed-point to integer
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speed = speedFixdt >> 4; // convert fixed-point to integer
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*/
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rateLimiter16(cmd1, RATE, &speedLeftRateFixdt);
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rateLimiter16(cmd2, RATE, &speedRightRateFixdt);
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filtLowPass16(speedLeftRateFixdt >> 4, FILTER, &speedLeftFixdt);
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filtLowPass16(speedRightRateFixdt >> 4, FILTER, &speedRightFixdt);
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speedL = speedLeftFixdt >> 4; // convert fixed-point to integer
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speedR = speedRightFixdt >> 4; // convert fixed-point to integer
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speed = (speedL+speedR)/2;
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// ####### MIXER #######
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// speedR = CLAMP((int)(speed * SPEED_COEFFICIENT - steer * STEER_COEFFICIENT), -1000, 1000);
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// speedL = CLAMP((int)(speed * SPEED_COEFFICIENT + steer * STEER_COEFFICIENT), -1000, 1000);
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//mixerFcn(speedFixdt, steerFixdt, &speedR, &speedL); // This function implements the equations above
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// ####### SET OUTPUTS (if the target change is less than +/- 50) #######
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if ((speedL > lastSpeedL-50 && speedL < lastSpeedL+50) && (speedR > lastSpeedR-50 && speedR < lastSpeedR+50) && timeout < TIMEOUT) {
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#ifdef INVERT_R_DIRECTION
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pwmr = speedR;
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#else
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pwmr = -speedR;
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#endif
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#ifdef INVERT_L_DIRECTION
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pwml = -speedL;
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#else
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pwml = speedL;
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#endif
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}
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lastSpeedL = speedL;
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lastSpeedR = speedR;
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// ####### CALC BOARD TEMPERATURE #######
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filtLowPass16(adc_buffer.temp, TEMP_FILT_COEF, &board_temp_adcFixdt);
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board_temp_adcFilt = board_temp_adcFixdt >> 4; // convert fixed-point to integer
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board_temp_deg_c = (TEMP_CAL_HIGH_DEG_C - TEMP_CAL_LOW_DEG_C) * (board_temp_adcFilt - TEMP_CAL_LOW_ADC) / (TEMP_CAL_HIGH_ADC - TEMP_CAL_LOW_ADC) + TEMP_CAL_LOW_DEG_C;
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serialSendCounter++; // Increment the counter
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if (serialSendCounter > 20) { // Send data every 100 ms = 20 * 5 ms, where 5 ms is approximately the main loop duration
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serialSendCounter = 0; // Reset the counter
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// ####### DEBUG SERIAL OUT #######
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#if defined(DEBUG_SERIAL_USART2) || defined(DEBUG_SERIAL_USART3)
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#ifdef CONTROL_ADC
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setScopeChannel(0, (int16_t)adc_buffer.l_tx2); // 1: ADC1
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setScopeChannel(1, (int16_t)adc_buffer.l_rx2); // 2: ADC2
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#endif
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setScopeChannel(2, (int16_t)speedR); // 1: output command: [-1000, 1000]
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setScopeChannel(3, (int16_t)speedL); // 2: output command: [-1000, 1000]
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setScopeChannel(4, (int16_t)adc_buffer.batt1); // 5: for battery voltage calibration
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setScopeChannel(5, (int16_t)(batVoltage * BAT_CALIB_REAL_VOLTAGE / BAT_CALIB_ADC)); // 6: for verifying battery voltage calibration
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setScopeChannel(6, (int16_t)board_temp_adcFilt); // 7: for board temperature calibration
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setScopeChannel(7, (int16_t)board_temp_deg_c); // 8: for verifying board temperature calibration
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consoleScope();
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// ####### FEEDBACK SERIAL OUT #######
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#elif defined(FEEDBACK_SERIAL_USART2) || defined(FEEDBACK_SERIAL_USART3)
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if(UART_DMA_CHANNEL->CNDTR == 0) {
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Feedback.start = (uint16_t)START_FRAME;
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Feedback.cmd1 = (int16_t)cmd1;
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Feedback.cmd2 = (int16_t)cmd2;
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Feedback.speedR = (int16_t)speedR;
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Feedback.speedL = (int16_t)speedL;
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Feedback.speedR_meas = (int16_t)rtY_Left.n_mot;
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Feedback.speedL_meas = (int16_t)rtY_Right.n_mot;
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Feedback.batVoltage = (int16_t)(batVoltage * BAT_CALIB_REAL_VOLTAGE / BAT_CALIB_ADC);
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Feedback.boardTemp = (int16_t)board_temp_deg_c;
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Feedback.checksum = (uint16_t)(Feedback.start ^ Feedback.cmd1 ^ Feedback.cmd2 ^ Feedback.speedR ^ Feedback.speedL
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^ Feedback.speedR_meas ^ Feedback.speedL_meas ^ Feedback.batVoltage ^ Feedback.boardTemp);
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UART_DMA_CHANNEL->CCR &= ~DMA_CCR_EN;
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UART_DMA_CHANNEL->CNDTR = sizeof(Feedback);
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UART_DMA_CHANNEL->CMAR = (uint32_t)&Feedback;
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UART_DMA_CHANNEL->CCR |= DMA_CCR_EN;
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}
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#endif
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}
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HAL_GPIO_TogglePin(LED_PORT, LED_PIN);
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// ####### POWEROFF BY POWER-BUTTON #######
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if (HAL_GPIO_ReadPin(BUTTON_PORT, BUTTON_PIN)) {
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enable = 0; // disable motors
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while (HAL_GPIO_ReadPin(BUTTON_PORT, BUTTON_PIN)) {} // wait until button is released
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if(__HAL_RCC_GET_FLAG(RCC_FLAG_SFTRST)) { // do not power off after software reset (from a programmer/debugger)
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__HAL_RCC_CLEAR_RESET_FLAGS(); // clear reset flags
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} else {
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poweroff(); // release power-latch
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}
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}
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// ####### BEEP AND EMERGENCY POWEROFF #######
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if ((TEMP_POWEROFF_ENABLE && board_temp_deg_c >= TEMP_POWEROFF && abs(speed) < 20) || (batVoltage < BAT_LOW_DEAD && abs(speed) < 20)) { // poweroff before mainboard burns OR low bat 3
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poweroff();
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} else if (TEMP_WARNING_ENABLE && board_temp_deg_c >= TEMP_WARNING) { // beep if mainboard gets hot
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buzzerFreq = 4;
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buzzerPattern = 1;
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} else if (batVoltage < BAT_LOW_LVL1 && batVoltage >= BAT_LOW_LVL2 && BAT_LOW_LVL1_ENABLE) { // low bat 1: slow beep
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buzzerFreq = 5;
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buzzerPattern = 42;
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} else if (batVoltage < BAT_LOW_LVL2 && batVoltage >= BAT_LOW_DEAD && BAT_LOW_LVL2_ENABLE) { // low bat 2: fast beep
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buzzerFreq = 5;
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buzzerPattern = 6;
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} else if (errCode_Left || errCode_Right || timeoutFlag) { // beep in case of Motor error or serial timeout - fast beep
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buzzerFreq = 12;
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buzzerPattern = 1;
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} else if (BEEPS_BACKWARD && speed < -50) { // backward beep
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buzzerFreq = 5;
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buzzerPattern = 1;
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} else { // do not beep
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buzzerFreq = 0;
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buzzerPattern = 0;
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}
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// ####### INACTIVITY TIMEOUT #######
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if (abs(speedL) > 50 || abs(speedR) > 50) {
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inactivity_timeout_counter = 0;
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} else {
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inactivity_timeout_counter ++;
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if (timeoutCnt++ >= SERIAL_TIMEOUT) { // Timeout qualification
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timeoutFlag = 1; // Timeout detected
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timeoutCnt = SERIAL_TIMEOUT; // Limit timout counter value
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}
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// Check the received Start Frame. If it is NOT OK, most probably we are out-of-sync.
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// Try to re-sync by reseting the DMA
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if (command.start != START_FRAME && command.start != 0xFFFF) {
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HAL_UART_DMAStop(&huart);
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HAL_UART_Receive_DMA(&huart, (uint8_t *)&command, sizeof(command));
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}
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}
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if (inactivity_timeout_counter > (INACTIVITY_TIMEOUT * 60 * 1000) / (DELAY_IN_MAIN_LOOP + 1)) { // rest of main loop needs maybe 1ms
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poweroff();
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if (timeoutFlag) { // In case of timeout bring the system to a Safe State
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ctrlModReq = 0; // OPEN_MODE request. This will bring the motor power to 0 in a controlled way
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cmd1 = 0;
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cmd2 = 0;
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} else {
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ctrlModReq = ctrlModReqRaw; // Follow the Mode request
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}
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timeout = 0;
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#endif
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// ####### LOW-PASS FILTER #######
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/*
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rateLimiter16(cmd1, RATE, &steerRateFixdt);
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rateLimiter16(cmd2, RATE, &speedRateFixdt);
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filtLowPass16(steerRateFixdt >> 4, FILTER, &steerFixdt);
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filtLowPass16(speedRateFixdt >> 4, FILTER, &speedFixdt);
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steer = steerFixdt >> 4; // convert fixed-point to integer
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speed = speedFixdt >> 4; // convert fixed-point to integer
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*/
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rateLimiter16(cmd1, RATE, &speedLeftRateFixdt);
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rateLimiter16(cmd2, RATE, &speedRightRateFixdt);
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filtLowPass16(speedLeftRateFixdt >> 4, FILTER, &speedLeftFixdt);
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filtLowPass16(speedRightRateFixdt >> 4, FILTER, &speedRightFixdt);
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speedL = speedLeftFixdt >> 4; // convert fixed-point to integer
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speedR = speedRightFixdt >> 4; // convert fixed-point to integer
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speed = (speedL+speedR)/2;
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// ####### MIXER #######
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// speedR = CLAMP((int)(speed * SPEED_COEFFICIENT - steer * STEER_COEFFICIENT), -1000, 1000);
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// speedL = CLAMP((int)(speed * SPEED_COEFFICIENT + steer * STEER_COEFFICIENT), -1000, 1000);
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//mixerFcn(speedFixdt, steerFixdt, &speedR, &speedL); // This function implements the equations above
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// ####### SET OUTPUTS (if the target change is less than +/- 50) #######
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if ((speedL > lastSpeedL-50 && speedL < lastSpeedL+50) && (speedR > lastSpeedR-50 && speedR < lastSpeedR+50) && timeout < TIMEOUT) {
|
||||
#ifdef INVERT_R_DIRECTION
|
||||
pwmr = speedR;
|
||||
#else
|
||||
pwmr = -speedR;
|
||||
#endif
|
||||
#ifdef INVERT_L_DIRECTION
|
||||
pwml = -speedL;
|
||||
#else
|
||||
pwml = speedL;
|
||||
#endif
|
||||
}
|
||||
|
||||
lastSpeedL = speedL;
|
||||
lastSpeedR = speedR;
|
||||
|
||||
|
||||
// ####### CALC BOARD TEMPERATURE #######
|
||||
filtLowPass16(adc_buffer.temp, TEMP_FILT_COEF, &board_temp_adcFixdt);
|
||||
board_temp_adcFilt = board_temp_adcFixdt >> 4; // convert fixed-point to integer
|
||||
board_temp_deg_c = (TEMP_CAL_HIGH_DEG_C - TEMP_CAL_LOW_DEG_C) * (board_temp_adcFilt - TEMP_CAL_LOW_ADC) / (TEMP_CAL_HIGH_ADC - TEMP_CAL_LOW_ADC) + TEMP_CAL_LOW_DEG_C;
|
||||
|
||||
serialSendCounter++; // Increment the counter
|
||||
if (serialSendCounter > 20) { // Send data every 100 ms = 20 * 5 ms, where 5 ms is approximately the main loop duration
|
||||
serialSendCounter = 0; // Reset the counter
|
||||
|
||||
// ####### DEBUG SERIAL OUT #######
|
||||
#if defined(DEBUG_SERIAL_USART2) || defined(DEBUG_SERIAL_USART3)
|
||||
#ifdef CONTROL_ADC
|
||||
setScopeChannel(0, (int16_t)adc_buffer.l_tx2); // 1: ADC1
|
||||
setScopeChannel(1, (int16_t)adc_buffer.l_rx2); // 2: ADC2
|
||||
#endif
|
||||
setScopeChannel(2, (int16_t)speedR); // 1: output command: [-1000, 1000]
|
||||
setScopeChannel(3, (int16_t)speedL); // 2: output command: [-1000, 1000]
|
||||
setScopeChannel(4, (int16_t)adc_buffer.batt1); // 5: for battery voltage calibration
|
||||
setScopeChannel(5, (int16_t)(batVoltage * BAT_CALIB_REAL_VOLTAGE / BAT_CALIB_ADC)); // 6: for verifying battery voltage calibration
|
||||
setScopeChannel(6, (int16_t)board_temp_adcFilt); // 7: for board temperature calibration
|
||||
setScopeChannel(7, (int16_t)board_temp_deg_c); // 8: for verifying board temperature calibration
|
||||
consoleScope();
|
||||
|
||||
// ####### FEEDBACK SERIAL OUT #######
|
||||
#elif defined(FEEDBACK_SERIAL_USART2) || defined(FEEDBACK_SERIAL_USART3)
|
||||
if(UART_DMA_CHANNEL->CNDTR == 0) {
|
||||
Feedback.start = (uint16_t)START_FRAME;
|
||||
Feedback.cmd1 = (int16_t)cmd1;
|
||||
Feedback.cmd2 = (int16_t)cmd2;
|
||||
Feedback.speedR = (int16_t)speedR;
|
||||
Feedback.speedL = (int16_t)speedL;
|
||||
Feedback.speedR_meas = (int16_t)rtY_Left.n_mot;
|
||||
Feedback.speedL_meas = (int16_t)rtY_Right.n_mot;
|
||||
Feedback.batVoltage = (int16_t)(batVoltage * BAT_CALIB_REAL_VOLTAGE / BAT_CALIB_ADC);
|
||||
Feedback.boardTemp = (int16_t)board_temp_deg_c;
|
||||
Feedback.checksum = (uint16_t)(Feedback.start ^ Feedback.cmd1 ^ Feedback.cmd2 ^ Feedback.speedR ^ Feedback.speedL
|
||||
^ Feedback.speedR_meas ^ Feedback.speedL_meas ^ Feedback.batVoltage ^ Feedback.boardTemp);
|
||||
|
||||
UART_DMA_CHANNEL->CCR &= ~DMA_CCR_EN;
|
||||
UART_DMA_CHANNEL->CNDTR = sizeof(Feedback);
|
||||
UART_DMA_CHANNEL->CMAR = (uint32_t)&Feedback;
|
||||
UART_DMA_CHANNEL->CCR |= DMA_CCR_EN;
|
||||
}
|
||||
#endif
|
||||
}
|
||||
|
||||
HAL_GPIO_TogglePin(LED_PORT, LED_PIN);
|
||||
// ####### POWEROFF BY POWER-BUTTON #######
|
||||
if (HAL_GPIO_ReadPin(BUTTON_PORT, BUTTON_PIN)) {
|
||||
enable = 0; // disable motors
|
||||
while (HAL_GPIO_ReadPin(BUTTON_PORT, BUTTON_PIN)) {} // wait until button is released
|
||||
if(__HAL_RCC_GET_FLAG(RCC_FLAG_SFTRST)) { // do not power off after software reset (from a programmer/debugger)
|
||||
__HAL_RCC_CLEAR_RESET_FLAGS(); // clear reset flags
|
||||
} else {
|
||||
poweroff(); // release power-latch
|
||||
}
|
||||
}
|
||||
timePrev = HAL_GetTick();
|
||||
|
||||
|
||||
// ####### BEEP AND EMERGENCY POWEROFF #######
|
||||
if ((TEMP_POWEROFF_ENABLE && board_temp_deg_c >= TEMP_POWEROFF && abs(speed) < 20) || (batVoltage < BAT_LOW_DEAD && abs(speed) < 20)) { // poweroff before mainboard burns OR low bat 3
|
||||
poweroff();
|
||||
} else if (TEMP_WARNING_ENABLE && board_temp_deg_c >= TEMP_WARNING) { // beep if mainboard gets hot
|
||||
buzzerFreq = 4;
|
||||
buzzerPattern = 1;
|
||||
} else if (batVoltage < BAT_LOW_LVL1 && batVoltage >= BAT_LOW_LVL2 && BAT_LOW_LVL1_ENABLE) { // low bat 1: slow beep
|
||||
buzzerFreq = 5;
|
||||
buzzerPattern = 42;
|
||||
} else if (batVoltage < BAT_LOW_LVL2 && batVoltage >= BAT_LOW_DEAD && BAT_LOW_LVL2_ENABLE) { // low bat 2: fast beep
|
||||
buzzerFreq = 5;
|
||||
buzzerPattern = 6;
|
||||
} else if (errCode_Left || errCode_Right || timeoutFlag) { // beep in case of Motor error or serial timeout - fast beep
|
||||
buzzerFreq = 12;
|
||||
buzzerPattern = 1;
|
||||
} else if (BEEPS_BACKWARD && speed < -50) { // backward beep
|
||||
buzzerFreq = 5;
|
||||
buzzerPattern = 1;
|
||||
} else { // do not beep
|
||||
buzzerFreq = 0;
|
||||
buzzerPattern = 0;
|
||||
}
|
||||
|
||||
|
||||
// ####### INACTIVITY TIMEOUT #######
|
||||
if (abs(speedL) > 50 || abs(speedR) > 50) {
|
||||
inactivity_timeout_counter = 0;
|
||||
} else {
|
||||
inactivity_timeout_counter ++;
|
||||
}
|
||||
if (inactivity_timeout_counter > (INACTIVITY_TIMEOUT * 60 * 1000) / (DELAY_IN_MAIN_LOOP + 1)) { // rest of main loop needs maybe 1ms
|
||||
poweroff();
|
||||
}
|
||||
}
|
||||
}
|
||||
|
||||
|
|
|
|||
Loading…
Reference in New Issue