void UART3_IRQHandler(void)
{
g_u3char_available=0;
g_u3char = 0;
unsigned int id = UART_GetIntId((LPC_UART_TypeDef *)FPGA_UART3_PORT);
unsigned int temp = 0;
switch(id) {
case 6:
// RX Line Status / Error
temp = FPGA_UART3_PORT->LSR;
break;
case 4:
g_u3char = UART_ReceiveByte((LPC_UART_TypeDef *)FPGA_UART3_PORT);
g_u3char_available=1;
break;
case 0xc:
// Character Time-out indication
temp = FPGA_UART3_PORT->RBR;
break;
case 2:
// THRE
temp = FPGA_UART3_PORT->IIR;
break;
default:
break;
}
return;
}
void UART1_IRQHandler(void)
{
char newData = (char)UART_ReceiveByte(UARTx);
//TMP_BUFF[new++]=newData;
if( (newData=='\r') & (iter!=0) )
{
GSM_RxBuff[iter] = '\r';
getAtvResponse();
}
else if( (newData=='\n') & (iter!=0) )
{
GSM_RxBuff[iter]='\0';
getServerResponse();
}
else if ( (newData=='>') & (iter == 0) )
{
promptReceived = 1;
}
else if( (newData != '\0') & (newData!='\360') & (newData!='\n') & (newData!='\r'))
{
GSM_RxBuff[iter++] = newData;
}
NVIC_ClearPendingIRQ(UART1_IRQn);
}
/**
* @brief This functions recovers a response from RFTRANS_95HF device over UART bus
* @param *pData : pointer on data received from RFTRANS_95HF device
* @retval None
*/
static void drv95HF_ReceiveUARTResponse(uint8_t *pData)
{
/* Recover the "Command" byte */
pData[RFTRANS_95HF_COMMAND_OFFSET] = UART_ReceiveByte(RFTRANS_95HF_UART);
if(pData[RFTRANS_95HF_COMMAND_OFFSET] == ECHO)
pData[RFTRANS_95HF_LENGTH_OFFSET] = 0x00;
else
{
/* Recover the "Length" byte */
pData[RFTRANS_95HF_LENGTH_OFFSET] = UART_ReceiveByte(RFTRANS_95HF_UART);
/* Recover data */
if(pData[RFTRANS_95HF_LENGTH_OFFSET] != 0)
UART_ReceiveBuffer(RFTRANS_95HF_UART, &pData[RFTRANS_95HF_DATA_OFFSET], pData[RFTRANS_95HF_LENGTH_OFFSET]);
}
}
BOOL xMBMasterPortSerialGetByte(RS485_NUM RS485_X,CHAR * pucByte)
{
switch(RS485_X)
{
case RS485_1:
*pucByte=UART_ReceiveByte(LPC_UART0);
break;
case RS485_2:
*pucByte=UART_ReceiveByte(LPC_UART2);
break;
case RS485_3:
*pucByte=UART_ReceiveByte(LPC_UART3);
break;
case RS485_4:
*pucByte=UART_ReceiveByte((LPC_UART_TypeDef *)LPC_UART4);
break;
default:
return FALSE;
}
return TRUE;
}
/*********************************************************************//**
* @brief Receive a block of data via UART peripheral
* @param[in] UARTx Selected UART peripheral used to send data,
* should be:
* - LPC_UART0: UART0 peripheral
* - LPC_UART1: UART1 peripheral
* - LPC_UART2: UART2 peripheral
* - LPC_UART3: UART3 peripheral
* @param[out] rxbuf Pointer to Received buffer
* @param[in] buflen Length of Received buffer
* @param[in] flag Flag mode, should be NONE_BLOCKING or BLOCKING
* @return Number of bytes received
*
* Note: when using UART in BLOCKING mode, a time-out condition is used
* via defined symbol UART_BLOCKING_TIMEOUT.
**********************************************************************/
uint32_t UART_Receive(LPC_UART_TypeDef *UARTx, uint8_t *rxbuf, \
uint32_t buflen, TRANSFER_BLOCK_Type flag)
{
uint32_t bToRecv, bRecv, timeOut = 100000000;
uint8_t *pChar = rxbuf;
bToRecv = buflen;
// Blocking mode
if (flag == BLOCKING) {
bRecv = 0;
while (bToRecv){
timeOut = UART_BLOCKING_TIMEOUT;
while (!(UARTx->LSR & UART_LSR_RDR)){
if (timeOut == 0) break;
timeOut--;
}
// Time out!
if(timeOut == 0) break;
// Get data from the buffer
(*pChar++) = UART_ReceiveByte(UARTx);
bToRecv--;
bRecv++;
}
}
// None blocking mode
else {
bRecv = 0;
while (bToRecv) {
if (!(UARTx->LSR & UART_LSR_RDR)) {
break;
} else {
(*pChar++) = UART_ReceiveByte(UARTx);
bRecv++;
bToRecv--;
}
}
}
return bRecv;
}
char hal_uart_receive(int uart_num)
{
tUartControl *pControl;
// LPC_UART_TypeDef *pUart;
pControl = _get_uart_control (uart_num);
if (pControl == NULL)
return 0;
// pUart = pControl->uart_def_p;
#ifdef USE_INTERRUPT
if (str_buf_is_empty (&pControl->rx_buffer))
return 0;
else
return str_buf_getc (&pControl->rx_buffer);
#else
return UART_ReceiveByte(pUart);
#endif
}
static char *getsAfterHistory(char *buffer, int length)
{
u8 ucByte;
while(1)
{
if (UART_ReceiveByte(UART_DEBUG, &ucByte))
{
UART_WriteToHost( UART_DEBUG, &ucByte, 1 );
if((ucByte == '\n') || (ucByte == '\r'))
{
//
// "carriage return" received, finished getting the string, put '\0' and return
//
buffer[length] = '\0';
ucByte = '\n';
UART_WriteToHost( UART_DEBUG, &ucByte, 1 );
return buffer;
}
if(ucByte == '\b' && length > 0)
{
//
// Backspace character
//
length--;
ucByte = ' ';
UART_WriteToHost( UART_DEBUG, &ucByte, 1 );
ucByte = '\b';
UART_WriteToHost( UART_DEBUG, &ucByte, 1 );
}
else
{
buffer[length] = ucByte;
length ++;
}
}
OS_Sleep(1);
}
return NULL; // We never ging to be here
}
/*----------------------------------------------------------------------------
Line Editor
*----------------------------------------------------------------------------*/
void getline (char *line, int n) {
int cnt = 0;
char c;
do {
if ((c = UART_ReceiveByte(LPC_UART0)) == CR) c = LF; /* read character */
if (c == BACKSPACE || c == DEL) { /* process backspace */
if (cnt != 0) {
cnt--; /* decrement count */
line--; /* and line pointer */
putchar (BACKSPACE); /* echo backspace */
putchar (' ');
putchar (BACKSPACE);
}
}
else if (c != CNTLQ && c != CNTLS) { /* ignore Control S/Q */
putchar (*line = c); /* echo and store character */
line++; /* increment line pointer */
cnt++; /* and count */
}
} while (cnt < n - 1 && c != LF); /* check limit and line feed */
*(line - 1) = 0; /* mark end of string */
}
static void uart3_isr(void)
{
rt_ubase_t level, iir;
struct dev_uart* uart = &s_dev_uart;
/* read IIR and clear it */
iir = UART_GetIntId(LPC_DEV_UART);
iir &= UART_IIR_INTID_MASK;
if ((iir == UART_IIR_INTID_RDA) || (iir == UART_IIR_INTID_CTI))
{
/* Receive Data Available */
while (LPC_DEV_UART->LSR & UART_LSR_RDR)
{
uart->rx_buffer[uart->save_index] = UART_ReceiveByte(LPC_DEV_UART);
level = rt_hw_interrupt_disable();
uart->save_index ++;
if (uart->save_index >= RT_UART_RX_BUFFER_SIZE)
uart->save_index = 0;
rt_hw_interrupt_enable(level);
}
/* invoke callback */
if(uart->parent.rx_indicate != RT_NULL)
{
rt_size_t length;
if (uart->read_index > uart->save_index)
length = RT_UART_RX_BUFFER_SIZE - uart->read_index + uart->save_index;
else
length = uart->save_index - uart->read_index;
uart->parent.rx_indicate(&uart->parent, length);
}
}
}
/*-------------------------MAIN FUNCTION------------------------------
**********************************************************************/
int c_entry(void)
{
InitIR2110(); // Use for Driver PWM IC IR2110
// EnableIR2110();
DisableIR2110();
flag_soft_start = 1;
#ifdef RUN_OK
Delayms(3000);
#endif
// InitDAC();
// Initialize debug via UART0
// – 9600bps
// – 8 data bit
// – No parity
// – 1 stop bit
// – No flow control
debug_frmwrk_init();
SetOutputDTR();
ClearDTR(); //data receive
InitLedAlarmBattery();
InitLedAlarmOverload();
InitPWM(PWM_FREQUENCY,DEADTIME);
SetDutyPWM(0,0);
InitADC(ADC_FREQUENCY);
InitTimerADCRead();
InitTimerProcessSinwave();
InitTimerProcessSensorRMSValue();
InitTimerMainProcess();
InitBuzzer(10000);
#ifdef RUN_OK
while(fist_startup)
{
if(f_Vin_RMS > VOLTAGE_MIN/*Vol*/)
{
flag_voltage_low = 0;
flag_current_high = 0;
fist_startup = 0;
}
}
#endif
while (1)
{
if ((LPC_UART1->LSR & UART_LSR_RDR))
{
buff[0] = UART_ReceiveByte((LPC_UART_TypeDef *)LPC_UART1);
if(buff[0] == 'I')
{
Delayms(100);
SetDTR(); //data transmission
printf_dbg("I,%d,\r",(uint32_t)(f_Vin_RMS*f_Iin_RMS));
Delayms(10);
ClearDTR(); //data receive
buff[0] = 0;
}
}
}
return 1;
}
char uart_receive(void)
{
return (UART_ReceiveByte((LPC_UART_TypeDef *)LPC_UART0));
}
/* Main function */
int main(void)
{
sc_time_t my_timer;
P5OUT = CAN_CS;
dint();
WDTCTL = WDTCTL_INIT; //Init watchdog timer
init_ports();
init_clock();
sc_init_timer();
UART_Init();
scandal_init();
eint();
/* Set the tyremaster to use 4800 baud */
UART_baud_rate(2400, CLOCK_SPEED);
my_timer = sc_get_timer();
while(1) {
handle_scandal();
if(UART_is_received()) {
uint8_t preamble, tyre_id, air_temp, batt_voltage, chksum, chksum_data, tyre_pressure_0, tyre_pressure_1;
uint16_t tyre_pressure;
preamble = UART_ReceiveByte();
if(preamble == 0xAA) {
tyre_id = UART_ReceiveByte(); // the tyre
tyre_pressure_0 = UART_ReceiveByte(); // pressure low byte
tyre_pressure_1 = UART_ReceiveByte(); // pressure hi byte
air_temp = UART_ReceiveByte(); // air temp
batt_voltage = UART_ReceiveByte(); // batt voltage
chksum = UART_ReceiveByte(); // chksum
chksum_data = tyre_id + air_temp + tyre_pressure_0 + tyre_pressure_1 + batt_voltage;
if(chksum == chksum_data) {
tyre_pressure = (tyre_pressure_1 << 8) | tyre_pressure_0;
toggle_red_led();
scandal_send_channel(TELEM_LOW, tyre_id + TYREMASTER_PRESSURE,
((uint32_t)tyre_pressure)*2970);
scandal_send_channel(TELEM_LOW, tyre_id + TYREMASTER_AIR_TEMP,
((uint32_t)(air_temp-50))*1000);
scandal_send_channel(TELEM_LOW, tyre_id + TYREMASTER_BATT_VOLTAGE,
((double)batt_voltage)*18.4+1730);
} else {
scandal_send_channel(TELEM_LOW, tyre_id + 4,
(int)chksum);
scandal_send_channel(TELEM_LOW, tyre_id + 5,
(int)chksum_data);
}
}
}
if(sc_get_timer() >= my_timer + 1000) {
my_timer = sc_get_timer();
toggle_yellow_led();
}
}
}
void UART0_IRQHandler(void)
{
static char *line = &cmdbuf[0];
static uint16_t frequency=1;
float results[2];
uint32_t temp;
uint32_t U0IIR = 0;
uint32_t baudrate;
uint32_t result[2];
extern uint8_t CorrectIndexesOverride;
extern uint8_t CorrectIndexesBrute;
extern uint8_t EqualIndexes;
extern uint16_t FirstOverrideIndex;
extern uint16_t SecondOverrideIndex;
char *EndFromStrtoul;
U0IIR=UART_GetIntId(LPC_UART0);
if ((U0IIR & 0xE) == 0x4)
{
c = UART_ReceiveByte(LPC_UART0);
if (c == CR) c = LF; /* read character */
if (c != LF)
{
if (c == BACKSPACE || c == DEL) { /* process backspace */
if (uart_rcv_len_cnt != 0) {
uart_rcv_len_cnt--; /* decrement count */
line--; /* and line pointer */
putchar (BACKSPACE); /* echo backspace */
putchar (' ');
putchar (BACKSPACE);
}
}
else if (c != CNTLQ && c != CNTLS) { /* ignore Control S/Q */
putchar (*line = c); /* echo and store character */
line++; /* increment line pointer */
uart_rcv_len_cnt++; /* and count */
}
if (uart_rcv_len_cnt == sizeof(cmdbuf))
{
printf("\nError.");
printf("\nBuffer full.");
}
}
else
{
line = &cmdbuf[0];
UART_pressed_enter = 1;
if (command == none)
{
if ( (strcmp(cmdbuf, "cal") == 0) && uart_rcv_len_cnt == 3)
{
command = Calibrate;
printf("\n Entered into calibrating state. Type calibrating command.\n>");
UART_pressed_enter = 0;
}
else if ( (strcmp(cmdbuf, "m") == 0) && uart_rcv_len_cnt == 1)
{
wait(1);
Measure(results, frequency);
printf("\n Magnitude of impedance is: ");
printf("%.1f Ohm.", results[0]);
printf("\n Phase of impedance is: ");
printf("%.2f graduses.", results[1]*57.295779513);
printf("\nType next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "f ", 2) == 0)
{
frequency = atoi(&(cmdbuf[2]));
AD9833_SetFreq(frequency*1000);
AD9833_Start();
printf("\n New DDS frequency is %u kHz. ", frequency);
printf("\n Type next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "fmin ", 5) == 0)
{
f_min = atoi(&(cmdbuf[5]));
printf("\n f_min are %u kHz.", f_min);
printf("\n Type next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "fmax ", 5) == 0)
{
f_max = atoi(&(cmdbuf[5]));
printf("\n f_max are %u kHz.", f_max);
printf("\n Type next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "nf ", 3) == 0)
{
n_F = atoi(&(cmdbuf[3]));
printf("\n n_F are %u.", n_F);
printf("\n Type next command.\n>");
UART_pressed_enter = 0;
}
else if ((strncmp(cmdbuf, "bg", 2) == 0) && uart_rcv_len_cnt == 2)
{
bg_flag = 1;
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "r ", 2) == 0)
{
temp = atoi(&(cmdbuf[2]));
AD7793_SetRate(temp);
printf("\n AD7793 rate field = are %u.", temp);
printf("\n Type next command.\n>");
UART_pressed_enter = 0;
}
else if ( uart_rcv_len_cnt == 0)
{
StartADC=1;
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "g", 1) == 0)
{
ADC_RUN(result);
printf("\n Magnitude are %u.", result[0]);
printf("\n Phase are %u.", result[1]);
printf("\n Type next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "d ", 2) == 0)
{
debug_mode = atoi(&(cmdbuf[2]));
if (debug_mode == 0)
{
printf("\n Debug mode disabled.");
}
else
{
printf("\n Debug mode enabled.");
}
printf("\nType next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "raw ", 4) == 0)
{
raw_data_mode = atoi(&(cmdbuf[4]));
if (raw_data_mode == 0)
{
printf("\n Raw data mode disabled.");
}
else
{
printf("\n Raw data mode enabled.");
}
printf("\nType next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "UartFifo ", 9) == 0)
{
UartWithFifo = atoi(&(cmdbuf[9]));
if (UartWithFifo == 0)
{
printf("\n Software UART FIFO disabled.");
}
else
{
printf("\n Software UART FIFO enabled.");
}
printf("\nType next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "UART ", 5) == 0)
{
baudrate = atoi(&(cmdbuf[5]));
SER_Init(baudrate);
printf("\n UART baudrate are %u bps.", baudrate);
printf("\nType next command.\n>");
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "CIO ", 4) == 0)
{
CorrectIndexesOverride = atoi(&(cmdbuf[4]));
if (CorrectIndexesOverride == 1)
{
printf("\nEnter correct override indexes:\n>");
command = CorrectIndexesPutting;
}
else
{
printf("\n Index overriding disabled.");
printf("\nType next command.\n>");
}
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "CIB ", 4) == 0)
{
CorrectIndexesBrute = atoi(&(cmdbuf[4]));
if (CorrectIndexesBrute == 1)
{
printf("\n Correct calibrating curves brute forcing enabled.");
printf("\nType next command.\n>");
}
else
{
printf("\n Correct calibrating curves brute force disabled.");
printf("\nType next command.\n>");
}
UART_pressed_enter = 0;
}
else if (strncmp(cmdbuf, "EI ", 3) == 0)
{
EqualIndexes = atoi(&(cmdbuf[3]));
if (EqualIndexes == 1)
{
printf("\n Equal calibrating indexes for mag and phase enabled.");
printf("\nType next command.\n>");
}
else
{
printf("\n Equal calibrating indexes for mag and phase disabled.");
printf("\nType next command.\n>");
}
UART_pressed_enter = 0;
}
else
{
printf("\nWrong command. Please type right command.\n");
UART_pressed_enter = 0;
}
memset(cmdbuf,0,15);
uart_rcv_len_cnt=0;
}
else if (command == CorrectIndexesPutting)
{
FirstOverrideIndex = strtoul(cmdbuf, &EndFromStrtoul, 10);
SecondOverrideIndex = atoi(EndFromStrtoul);
printf("\n FirstCorrectIndex = %u", FirstOverrideIndex);
printf("\n SecondCorrectIndex = %u", SecondOverrideIndex);
printf("\nType next command.\n>");
UART_pressed_enter = 0;
command = none;
memset(cmdbuf,0,15);
uart_rcv_len_cnt=0;
}
}
}
else if ((U0IIR & 0xE) == 0x2)
{
if (SW_UART_FIFO_STRUCT.count!=0)
{
LPC_UART0->THR = SW_UART_pop();
}
else
UART_IntConfig(LPC_UART0,UART_INTCFG_THRE,DISABLE); //Disable UART0 THRE Interrupt
}
}
char uart_receive(void)
{
return (UART_ReceiveByte(DBG_UART));
}
uint8_t USB_readByte()
{
return(UART_ReceiveByte((LPC_UART_TypeDef *)LPC_UART0));
}
