//=================================================================================================
// Function name: UARTDeviceInit
// -----------------------------
// Description:
//
// Low leven UART initialization
//=================================================================================================
//
static void UARTDeviceInit(void)
{
//---------------------------------------------------------------------------------------------
// Initialize UART module 2 for sending and receiving
//---------------------------------------------------------------------------------------------
OpenUART2
( UART_EN &
UART_IDLE_CON &
UART_EN_WAKE &
UART_DIS_LOOPBACK &
UART_UEN_00 &
UART_DIS_ABAUD &
UART_NO_PAR_8BIT &
UART_1STOPBIT &
UART_IrDA_DISABLE &
UART_MODE_SIMPLEX &
UART_UXRX_IDLE_ONE &
UART_BRGH_FOUR
,
UART_INT_TX_BUF_EMPTY &
UART_IrDA_POL_INV_ZERO & // When no character, line is high!
UART_TX_ENABLE &
UART_INT_RX_CHAR &
UART_ADR_DETECT_DIS &
UART_RX_OVERRUN_CLEAR
,
((avix_DEVICE_CLOCKhz/(4L * 115200)) - 1));
SetPriorityIntU2TX(3);
DisableIntU2TX;
SetPriorityIntU2RX(2);
EnableIntU2RX;
}
void config_uart2(void){
CloseUART2();
unsigned int UMODEvalue, U2STAvalue, config;
UMODEvalue = UART_EN &
UART_DIS_WAKE &
UART_DIS_LOOPBACK &
UART_DIS_ABAUD &
UART_IDLE_CON &
UART_NO_PAR_8BIT &
UART_1STOPBIT;
U2STAvalue = UART_INT_TX &
UART_TX_PIN_NORMAL &
UART_TX_ENABLE &
UART_INT_RX_BUF_FUL &
UART_RX_OVERRUN_CLEAR &
UART_ADR_DETECT_DIS;
config = UART_TX_INT_DIS &
UART_RX_INT_EN &
UART_INT_RX_BUF_FUL &
UART_RX_INT_PR4;
__C30_UART = 2;
ConfigIntUART2(config);
OpenUART2(UMODEvalue, U2STAvalue, (int) ((double) ((FCY/16.)*1000/BAUD_RATE-1) + 0.5));
Serial.receiveddata = Serial.rbuf;
}
void setup_UART2 (unsigned int pb_clock) //UART associated with the PmodCLS
{
// OpenUART2( config1, config2, ubrg)
OpenUART2 (UART_EN | UART_IDLE_CON | UART_RX_TX | UART_DIS_WAKE | UART_DIS_LOOPBACK | UART_DIS_ABAUD | UART_NO_PAR_8BIT | UART_1STOPBIT | UART_IRDA_DIS |
UART_MODE_FLOWCTRL | UART_DIS_BCLK_CTS_RTS | UART_NORMAL_RX | UART_BRGH_SIXTEEN,
UART_TX_PIN_LOW | UART_RX_ENABLE | UART_TX_ENABLE | UART_INT_TX | UART_INT_RX_CHAR | UART_ADR_DETECT_DIS | UART_RX_OVERRUN_CLEAR,
mUARTBRG(pb_clock, DESIRED_BAUD_RATE));
UARTEnable(UART2, UART_DISABLE_FLAGS(UART_RX ));
}
void SetupUART2(void)
{
/// UART2 for RS-232 w/PC @ 230400, 8bit, No parity, 1 stop bit
unsigned int U2MODEvalue, U2STAvalue, U2BRGvalue;
U2MODEvalue = UART_EN & UART_IDLE_CON & UART_IrDA_DISABLE &
UART_MODE_FLOW & UART_UEN_10 & UART_DIS_WAKE &
UART_DIS_LOOPBACK & UART_DIS_ABAUD & UART_UXRX_IDLE_ONE &
UART_BRGH_FOUR & UART_NO_PAR_8BIT & UART_1STOPBIT;
U2STAvalue = UART_INT_TX & UART_INT_RX_CHAR &UART_SYNC_BREAK_DISABLED &
UART_TX_ENABLE & UART_ADR_DETECT_DIS &
UART_IrDA_POL_INV_ZERO; // If not, whole output inverted.
U2BRGvalue = 43; // (Fcy / ({16|4} * baudrate)) - 1
OpenUART2(U2MODEvalue, U2STAvalue, U2BRGvalue);
}
void UART2_Config(void){
OpenUART2((
UART_EN & //Enable UART Module
UART_IDLE_CON & //Work while idle
UART_IrDA_DISABLE & //Disable Infared decoder
UART_MODE_SIMPLEX & //UART Simplex mode (RTS pin)
UART_UEN_00 & //TX/RX pins configured all other latched
UART_DIS_WAKE & //Disable wake on Start bit
UART_DIS_LOOPBACK & //Disable loopback
UART_DIS_ABAUD & //Disable Auto Baud
UART_UXRX_IDLE_ONE & //Receive idle is 1
UART_BRGH_SIXTEEN & //16 clocks per bit period
UART_NO_PAR_8BIT & //No parity bit
UART_1STOPBIT //One stop bit
),
(
UART_INT_TX_LAST_CH & //Interrupt when last character shifted out
UART_IrDA_POL_INV_ZERO & //IrDA encoded, UxTX Idel state is '0'
UART_SYNC_BREAK_DISABLED & //Sync break transmission disabled or completed
UART_TX_ENABLE & //Transmit enable
UART_TX_BUF_NOT_FUL & //Transmit buffer is not full
UART_INT_RX_CHAR & //Interrupt on every char received
UART_ADR_DETECT_DIS & //address detect disable
UART_RX_OVERRUN_CLEAR //Rx buffer Over run status bit clear
),
(
__BAUDUART2_ //Baud rate
));
ConfigIntUART2(
UART_RX_INT_EN & //Receive interrupt enabled
UART_RX_INT_PR2 & //Priority RX interrupt 1
UART_TX_INT_DIS & //transmit interrupt disabled
UART_TX_INT_PR1 //Priority TX interrupt 1
);
#ifdef InvertU2RxTxBits
U2STAbits.UTXINV = 0;
U2MODEbits.URXINV = 0;
#endif
//Set the tristate and map pins for Uart
TRIS_U2TX;
TRIS_U2RX;
MAP_U2TX;
MAP_U2RX;
}
xComPortHandle xSerialPortInitMinimal( unsigned long ulWantedBaud, unsigned portBASE_TYPE uxQueueLength )
{
unsigned short usBRG;
/* Create the queues used by the com test task. */
xRxedChars = xQueueCreate( uxQueueLength, ( unsigned portBASE_TYPE ) sizeof( signed char ) );
xCharsForTx = xQueueCreate( uxQueueLength, ( unsigned portBASE_TYPE ) sizeof( signed char ) );
/* Configure the UART and interrupts. */
usBRG = (unsigned short)(( (float)configPERIPHERAL_CLOCK_HZ / ( (float)16 * (float)ulWantedBaud ) ) - (float)0.5);
OpenUART2( UART_EN, UART_RX_ENABLE | UART_TX_ENABLE | UART_INT_TX | UART_INT_RX_CHAR, usBRG );
ConfigIntUART2( ( configKERNEL_INTERRUPT_PRIORITY + 1 ) | UART_INT_SUB_PR0 | UART_TX_INT_EN | UART_RX_INT_EN );
xTxHasEnded = pdTRUE;
/* Only a single port is implemented so we don't need to return anything. */
return NULL;
}
// set the baud rate divider
// The baud is Floor[80000000/(4*(divider+1)].
void SetUARTClockDivider(uint16_t divider)
{
// define setup Configuration 1 for OpenUARTx
// Module Enable
// Work in IDLE mode
// Communication through usual pins
// Disable wake-up
// Loop back disabled
// Input to Capture module from ICx pin
// no parity 8 bit
// 1 stop bit
// IRDA encoder and decoder disabled
// CTS and RTS pins are disabled
// UxRX idle state is '1'
// 4x baud clock - high speed
#define config1 UART_EN | UART_IDLE_CON | UART_RX_TX | UART_DIS_WAKE | UART_DIS_LOOPBACK | UART_DIS_ABAUD | UART_NO_PAR_8BIT | UART_1STOPBIT | UART_IRDA_DIS | UART_DIS_BCLK_CTS_RTS| UART_NORMAL_RX | UART_BRGH_FOUR
// define setup Configuration 2 for OpenUARTx
// IrDA encoded UxTX idle state is '0'
// Enable UxRX pin
// Enable UxTX pin
// No interrupt on transfer of every character to TSR
// Interrupt on every char received
// Disable 9-bit address detect
// Rx Buffer Over run status bit clear
#define config2 UART_TX_PIN_LOW | UART_RX_ENABLE | UART_TX_ENABLE | /*UART_INT_TX | UART_INT_RX_CHAR | */ UART_ADR_DETECT_DIS | UART_RX_OVERRUN_CLEAR
#ifdef HC_UART1
// Open UART1 with config1 and config2
OpenUART1( config1, config2, divider);
// Configure UART RX Interrupt
//ConfigIntUART1(UART_INT_PR2 | UART_RX_INT_EN /* | UART_TX_INT_EN */ );
#else
// Open UART2 with config1 and config2
OpenUART2( config1, config2, divider);
// Configure UART RX Interrupt
//ConfigIntUART2(UART_INT_PR2 | UART_RX_INT_EN /* | UART_TX_INT_EN */ );
#endif
clockDivider = divider;
}
void serio_init(uckernel_task handler)
{
serio_set_rx_handler(handler);
new_queue(&tx_queue, tx_queue_data, QUEUE_SIZE, sizeof(uint8_t));
new_queue(&rx_queue, rx_queue_data, QUEUE_SIZE, sizeof(uint8_t));
iPPSInput(IN_FN_PPS_U2RX, IN_PIN_PPS_RP10);
iPPSInput(IN_FN_PPS_U2CTS, IN_PIN_PPS_RPI32);
iPPSOutput(OUT_PIN_PPS_RP17, OUT_FN_PPS_U2TX);
iPPSOutput(OUT_PIN_PPS_RP31, OUT_FN_PPS_U2RTS);
CloseUART2();
/*Enable UART intruupts*/
ConfigIntUART2(UART_RX_INT_EN | UART_RX_INT_PR6 | UART_TX_INT_EN | UART_TX_INT_PR6 | UART_INT_TX_BUF_EMPTY);
/*UART initialized to 9600 baudrate @BRGH=0, 8bit,no parity and 1 stopbit*/
OpenUART2(UART_EN | UART_BRGH_FOUR, UART_TX_ENABLE, 34);
serio_initialized = true;
}
void uartInit() {
/// UART2 for RS-232 w/PC @ 230400, 8bit, No parity, 1 stop bit
unsigned int U2MODEvalue, U2STAvalue, U2BRGvalue;
U2MODEvalue = UART_EN & UART_IDLE_CON & UART_IrDA_DISABLE &
UART_MODE_SIMPLEX & UART_UEN_00 & UART_DIS_WAKE &
UART_DIS_LOOPBACK & UART_DIS_ABAUD & UART_UXRX_IDLE_ONE &
UART_BRGH_FOUR & UART_NO_PAR_8BIT & UART_2STOPBITS;
U2STAvalue = UART_INT_RX_CHAR & UART_SYNC_BREAK_DISABLED &
UART_TX_ENABLE & UART_ADR_DETECT_DIS &
UART_IrDA_POL_INV_ZERO; // If not, whole output inverted.
U2BRGvalue = 10; // Approximately 830kBaud
OpenUART2(U2MODEvalue, U2STAvalue, U2BRGvalue);
in_pkt_ = &(pkt_buf_0_);
last_bldc_packet = &(pkt_buf_1_);
last_bldc_packet_is_new = 0;
ConfigIntUART2(UART_RX_INT_EN & UART_RX_INT_PR6);
}
void LS2_UART_Init (void)
{
CPU_INT08U config;
CPU_INT32U config1;
CPU_INT32U config2;
config1 = UART_EN // UART module enabled
| UART_IDLE_CON // UART works in IDLE mode
| UART_RX_TX // Communication is done through the normal pins
| UART_DIS_WAKE // Disable Wake-up on START bit detect during SLEEP
| UART_DIS_LOOPBACK // Disable loop back
| UART_DIS_ABAUD // Input to capture module from ICx pin
| UART_NO_PAR_8BIT // 8 bits no parity
| UART_1STOPBIT // 1 stop bit
| UART_IRDA_DIS // IrDA disabled
| UART_MODE_FLOWCTRL // UART pins in flow control mode
| UART_DIS_BCLK_CTS_RTS // Disable BCLK, CTS, and RTS pins
| UART_NORMAL_RX // UxRX idle stat is '1'
| UART_BRGH_SIXTEEN; // 16x baud clock
//
config2 = UART_TX_PIN_LOW // IrDA encoded UxTx idle stat is '0'
// | UART_RX_ENABLE // Enable UxRx pin
| UART_TX_ENABLE // Enable UxTx pin
// | UART_INT_TX // Interrupt on trasnfer of each character to TSR
// | UART_INT_RX_CHAR // Interrupt on every char received
| UART_ADR_DETECT_DIS // Disable 9-bit address detect
| UART_RX_OVERRUN_CLEAR; // Rx buffer overrun status bit clear
// config1 = UART_EN; // UART module enabled
// config2 = UART_TX_ENABLE; // Enable UxTx pin
OpenUART2(config1, config2, BSP_CLK_FREQ / (16 * UART2_BAUDRATE) - 1); // Configure the settings
// config = UART_INT_PR3
// | UART_INT_SUB_PR0
// | UART_RX_INT;
// ConfigIntUART2(config);
}
//Initialize UART module and query skinproc tactile grid size
void tactileInit() {
//unsigned char data[2] = {0};
//radioSendData(0x3001, 0, CMD_TACTILE, 2, data, 0);
if (TACTILEUART){
/// UART2 for SkinProc, 1e5 Baud, 8bit, No parity, 1 stop bit
unsigned int U2MODEvalue, U2STAvalue, U2BRGvalue;
U2MODEvalue = UART_EN & UART_IDLE_CON & UART_IrDA_DISABLE &
UART_MODE_SIMPLEX & UART_UEN_00 & UART_DIS_WAKE &
UART_DIS_LOOPBACK & UART_DIS_ABAUD & UART_UXRX_IDLE_ONE &
UART_BRGH_FOUR & UART_NO_PAR_8BIT & UART_1STOPBIT;
U2STAvalue = UART_INT_TX & UART_INT_RX_CHAR &UART_SYNC_BREAK_DISABLED &
UART_TX_ENABLE & UART_ADR_DETECT_DIS &
UART_IrDA_POL_INV_ZERO; // If not, whole output inverted.
U2BRGvalue = 86;//21; //9; // = (40e6 / (4 * 1e5)) - 1 so the baud rate = 100000
//this value matches SkinProc
// =3 for 2.5M Baud
//U2BRGvalue = 43; // =43 for 230500Baud (Fcy / ({16|4} * baudrate)) - 1
//U2BRGvalue = 86; // =86 for 115200 Baud
//U2BRGvalue = 1041; // =1041 for 9600 Baud
OpenUART2(U2MODEvalue, U2STAvalue, U2BRGvalue);
ConfigIntUART2(UART_TX_INT_EN & UART_TX_INT_PR4 & UART_RX_INT_EN & UART_RX_INT_PR4);
//EnableIntU2TX;
DisableIntU2TX;
EnableIntU2RX;
}
tx_idx = TACTILE_TX_IDLE;
rx_idx = TACTILE_RX_IDLE;
rx_count = 0;
TACTILE_ROWS = 0xFF;
TACTILE_COLS = 0xFF;
clearRXFlag();
//checkFrameSize();
max_buffer_length = LARGE_BUFFER;
}
/**************************************************************************************************
Title:
Delay Test
Version:
0.1
Filename:
delaytest-0.1.c
Author(s):
mkobit
Purpose of Program:
Test delay protocol for each of the DelayS, DelayMs, and DelayUs
How to build:
delay.c
Update History:
4/30/12: Having problems testing with the peripheral bus on the PCB, need to figure out what is going on
* Found out that core timer does not use peripheral bus, it uses system clock
**************************************************/
int main(void)
{
int nc;
unsigned int pbFreq;
long int delayed = 0;
char buffer[50] = "0";
pbFreq = SYSTEMConfigPerformance(SYSTEM_FREQUENCY);
//pbFreq = SYSTEM_FREQUENCY;
OpenUART2(UART_EN | UART_NO_PAR_8BIT | UART_1STOPBIT, UART_RX_ENABLE | UART_TX_ENABLE,
(pbFreq/16/BAUDRATE) - 1);
DelayInit(SYSTEM_FREQUENCY);
putsUART2(CLEAR_VT);
DelayMs(1500);
putsUART2("Beginning in 3...\r\n");
//printf("Hi\n");
DelayS(1);
putsUART2("Beginning in 2...\r\n");
DelayUs(50000);
DelayMs(995);
putsUART2("Beginning in 1...\n\r");
DelayS(1);
putsUART2("Start!\n\r");
while(1) {
DelayMs(770);
DelayS(2);
DelayUs(230000);
DelayMs(2000);
delayed += 5;
itoa(buffer, delayed, 10);
putsUART2(buffer);
putsUART2(" s\r\n");
}
//putsUART2(myHelloStr);
return nc;
}
/**
* Initialization function for the UART2 peripheral. Should be called in initialization code for the
* model. This function configures the UART for whatever baud rate is specified. It also configures
* two circular buffers for transmission and reception.
*
* This function can be called again to re-initialize the UART. This clears all relevant registers
* and reinitializes values to 0.
*/
void Uart2Init(uint16_t brgRegister)
{
// First initialize the necessary circular buffers.
CB_Init(&uart2RxBuffer, u2RxBuf, sizeof(u2RxBuf));
CB_Init(&uart2TxBuffer, u2TxBuf, sizeof(u2TxBuf));
// If the UART was already opened, close it first. This should also clear the transmit/receive
// buffers so we won't have left-over data around when we re-initialize, if we are.
CloseUART2();
// Configure and open the port.
OpenUART2(UART_EN & UART_IDLE_CON & UART_IrDA_DISABLE & UART_MODE_FLOW & UART_UEN_00 &
UART_EN_WAKE & UART_DIS_LOOPBACK & UART_DIS_ABAUD & UART_NO_PAR_8BIT & UART_UXRX_IDLE_ONE &
UART_BRGH_SIXTEEN & UART_1STOPBIT,
UART_INT_TX_LAST_CH & UART_IrDA_POL_INV_ZERO & UART_SYNC_BREAK_DISABLED & UART_TX_ENABLE &
UART_INT_RX_CHAR & UART_ADR_DETECT_DIS & UART_RX_OVERRUN_CLEAR,
brgRegister
);
// Setup interrupts for proper UART communication. Enable both TX and RX interrupts at
// priority level 6 (arbitrary).
ConfigIntUART2(UART_RX_INT_EN & UART_RX_INT_PR6 & UART_TX_INT_EN & UART_TX_INT_PR6);
}
void gpsSetup(void)
{
/* Configure Port Direction */
TRISBbits.TRISB8 = 0; // Turn RB8 into output for GPS EN
TRISBbits.TRISB9 = 1; // Turn RB9 into input for GPS FIX
TRISBbits.TRISB14 = 1; // Turn RB14 into input for GPS RX
TRISBbits.TRISB15 = 0; // Turn RB15 into output for GPS TX
TRISFbits.TRISF4 = 1; // Turn RF4 into input for GPS PPS
/* Configure PPS pins for GPS */
iPPSInput(IN_FN_PPS_U2RX,IN_PIN_PPS_RP14); // Assign U2RX to pin RP14
iPPSOutput(OUT_PIN_PPS_RP29,OUT_FN_PPS_U2TX); // Assign U2TX to pin RP29
/* Enable the GPS module */
PORTB |= 0x0100;
/* Close UART in case it's already open */
CloseUART2();
/*Enable UART Interface */
ConfigIntUART2(UART_RX_INT_DIS | UART_RX_INT_PR6 | UART_TX_INT_DIS | UART_TX_INT_PR6);
// Receive interrupt disabled
// Priority RX interrupt 6
// Transmit interrupt disabled
// Priority TX interrupt 6
OpenUART2(UART_EN, UART_TX_ENABLE, 25);
// Module enable
// Transmit enable
// 9600 baud rate (@ 4 MHz internal clock)
/* Initalize the Adafruit GPS libraries */
common_init();
}
void uartInit(packet_callback rx_cb) {
/// UART2 for RS-232 w/PC @ 230400, 8bit, No parity, 1 stop bit
unsigned int U2MODEvalue, U2STAvalue, U2BRGvalue;
U2MODEvalue = UART_EN & UART_IDLE_CON & UART_IrDA_DISABLE &
UART_MODE_SIMPLEX & UART_UEN_00 & UART_DIS_WAKE &
UART_DIS_LOOPBACK & UART_DIS_ABAUD & UART_UXRX_IDLE_ONE &
UART_BRGH_FOUR & UART_NO_PAR_8BIT & UART_1STOPBIT;
U2STAvalue = UART_INT_TX & UART_INT_RX_CHAR &UART_SYNC_BREAK_DISABLED &
UART_TX_ENABLE & UART_ADR_DETECT_DIS &
UART_IrDA_POL_INV_ZERO; // If not, whole output inverted.
U2BRGvalue = 9; // =3 for 2.5M Baud
//U2BRGvalue = 43; // =43 for 230500Baud (Fcy / ({16|4} * baudrate)) - 1
//U2BRGvalue = 86; // =86 for 115200 Baud
//U2BRGvalue = 1041; // =1041 for 9600 Baud
OpenUART2(U2MODEvalue, U2STAvalue, U2BRGvalue);
tx_idx = UART_TX_IDLE;
rx_idx = UART_RX_IDLE;
rx_callback = rx_cb;
ConfigIntUART2(UART_TX_INT_EN & UART_TX_INT_PR5 & UART_RX_INT_EN & UART_RX_INT_PR6);
}
int main()
{
// Configure UART2 for no interrupts at 9600 baud. Include a reset of
// the RX flag as required.
OpenUART2(UART_EN, UART_TX_ENABLE, BRGVAL);
IFS1bits.U2RXIF = 0;
// This variable is defined as 2 to specify that UART2 will be used for
// stdin/stdout.
__C30_UART = 2;
/******************************************************************************
* Your code goes in between this comment and the following one with asterisks.
*****************************************************************************/
LcdInit(); //initialize our lcd
InitButtons(); //initialize our buttons
InitMorseDecoder(); //initialize morse tree
printf("Type Morse With Buttons Above\n");
SetTopLine(greet);
while(1) {
if(ReceivedInput(temp)) { //check for user input
printf("Your input: %c\n", temp); //echo input
EncodeCharacter(temp, out); //encode the character then display
printf("In Morse: %c%c%c%c%c%c\n", out[0], out[1], out[2], out[3], out[4], out[5]);
}
char x = CheckButtonEvents(); //check for button event
if (x == 0x00) { // check if no Buttons were pressed
if(flag0 != 1) {
SetTopLine(greet);
}
flag0 = 1;
} else if (x & Button6DownEvent) { // check if Button 6 was pressed
if(flag1 != 1) {
toDecode[position] = dash; //save input to current slot
toDecode[position+1] = space;
position++; //increment to next slot
SetBottomLine(toDecode); //display total line array
}
flag1 = 1; //flag is on
} else if (x & Button6UpEvent) { // check if Button 6 was released
flag1 = 0; //clear flag
} else if (x & Button5DownEvent) { // check if Button 5 was pressed
if(flag2 != 1) {
toDecode = (char *)GetBottomLine(); //decode what ever is in bottom line
}
flag2 = 1;
} else if (x & Button5UpEvent) { // check if Button 5 was released
decodeChar[0] = DecodeCharacter(toDecode); // decode our input
topline[Pos] = decodeChar[0]; // add next decoded char
Pos++;
SetTopLine(topline);
SetBottomLine(empty); // clear bottom line on LCD
int i;
for(i = 0; i < 16; i++) {
toDecode[i] = ' '; // clear bottom line
}
position = 0; // start at new line of input
flag2 = 0;
} else if (x & Button4DownEvent) { // check if Button 4 was pressed
flag3 = 1; //flag is on
} else if (x & Button4UpEvent) { // check if Button 3 was released
topline[Pos] = ' '; // add space for next decodedc char
Pos++;
SetTopLine(topline);
SetBottomLine(empty);
int i;
for(i = 0; i < 16; i++) {
toDecode[i] = ' '; // clear bottom line
}
position = 0; // start at new line of input
flag3 = 0;
} else if (x & Button3DownEvent) { // check if Button 3 was pressed
if(flag4 != 1) {
toDecode[position] = dot;
toDecode[position + 1] = space;
position++;
SetBottomLine(toDecode);
}
flag4 = 1; //flag is on
} else if (x & Button3UpEvent) { // check if Button 3 was released
flag4 = 0; //clear flag
}
}
/******************************************************************************
* Your code goes in between this comment and the preceeding one with asterisks
*****************************************************************************/
while (1);
}
int32_t main(void)
{
#ifndef PIC32_STARTER_KIT
/*The JTAG is on by default on POR. A PIC32 Starter Kit uses the JTAG, but
for other debug tool use, like ICD 3 and Real ICE, the JTAG should be off
to free up the JTAG I/O */
DDPCONbits.JTAGEN = 0;
#endif
/*Refer to the C32 peripheral library documentation for more
information on the SYTEMConfig function.
This function sets the PB divider, the Flash Wait States, and the DRM
/wait states to the optimum value. It also enables the cacheability for
the K0 segment. It could has side effects of possibly alter the pre-fetch
buffer and cache. It sets the RAM wait states to 0. Other than
the SYS_FREQ, this takes these parameters. The top 3 may be '|'ed
together:
SYS_CFG_WAIT_STATES (configures flash wait states from system clock)
SYS_CFG_PB_BUS (configures the PB bus from the system clock)
SYS_CFG_PCACHE (configures the pCache if used)
SYS_CFG_ALL (configures the flash wait states, PB bus, and pCache)*/
/* TODO Add user clock/system configuration code if appropriate. */
SYSTEMConfig(SYS_FREQ, SYS_CFG_ALL);
/* Initialize I/O and Peripherals for application */
InitApp();
/*Configure Multivector Interrupt Mode. Using Single Vector Mode
is expensive from a timing perspective, so most applications
should probably not use a Single Vector Mode*/
// Configure UART2 RX Interrupt
INTEnable(INT_SOURCE_UART_RX(UART2), INT_ENABLED);
INTSetVectorPriority(INT_VECTOR_UART(UART2), INT_PRIORITY_LEVEL_2);
INTSetVectorSubPriority(INT_VECTOR_UART(UART2), INT_SUB_PRIORITY_LEVEL_0);
// configure for multi-vectored mode
INTConfigureSystem(INT_SYSTEM_CONFIG_MULT_VECTOR);
// enable interrupts
INTEnableInterrupts();
/* TODO <INSERT USER APPLICATION CODE HERE> */
//Open UART2
OpenUART2(UART_EN, UART_BRGH_FOUR|UART_RX_ENABLE | UART_TX_ENABLE, 21);
//Open SPI 1 channel
PORTBbits.RB11 = 1;
OpenSPI1( SPI_MODE8_ON | MASTER_ENABLE_ON | SEC_PRESCAL_1_1 | PRI_PRESCAL_1_1 | FRAME_ENABLE_OFF | CLK_POL_ACTIVE_HIGH | ENABLE_SDO_PIN , SPI_ENABLE );
SPI1BRG=39;
initRadio();
setTXAddress("UNIT2");
setRXAddress(0,"UNIT1");
char temp;
char text[6];
text[0]='H';
text[1]='e';
text[2]='l';
text[3]='l';
text[4]='o';
text[5]='!';
while(1)
{
setTransmitter();
PORTBbits.RB11 = 0;
DelayMs(20);
transmitData(&text[0],6);
printf("Hello world! \r\n");
PORTBbits.RB11 = 1;
DelayMs(20);
}
}
void InitApp()
{
_TRISA0 = 0; //led en sortie
_TRISA1 = 0;
led = 0;
led2 = 0;
//Sortie enable
_TRISB9 = 0;
_TRISB11 = 0;
_ODCB9 = 1; //Open drain RB9 (dir 1)
_ODCB11 = 1; //Open drain RB11 (dir 2)
_ODCB10 = 1; //open drain RB10 PWM1H3
//Le microswicth sur la pin RC5 (par exemple), on la met en entrée
_TRISC5 = 1; //bumper bas de pince
//Et on active la pullup qui va bien (registres CNPU1 et CNPU2)
_CN26PUE = 1;
_ODCC9 = 1; // Open drain sur la pin RC9 (pour les AX12)
_TRISA4 = 1;
_TRISA8 = 1;
_TRISA9 = 1;
_TRISB2 = 1; //RTS ?
_TRISB3 = 1; //FLush ?
_TRISA2 = 1; //CLK12 ?
_TRISB4 = 1; // Arret d'urgence
_CN1PUE = 1; // avec pullup
_TRISB12 = 1; // switch 1
_CN14PUE = 1; // avec pullup
_TRISB13 = 1; // switch 2
_CN13PUE = 1; // avec pullup
_TRISB14 = 1; // switch 3
_CN12PUE = 1; // avec pullup
_TRISB15 = 1; // Laisse
_CN11PUE = 1; // avec pullup
OpenUART2(UART_EN & UART_IDLE_CON & UART_IrDA_DISABLE & UART_MODE_FLOW
& UART_UEN_00 & UART_DIS_WAKE & UART_DIS_LOOPBACK
& UART_DIS_ABAUD & UART_UXRX_IDLE_ONE & UART_BRGH_SIXTEEN
& UART_NO_PAR_8BIT & UART_1STOPBIT,
UART_INT_TX_BUF_EMPTY & UART_IrDA_POL_INV_ZERO
& UART_SYNC_BREAK_DISABLED & UART_TX_ENABLE & UART_TX_BUF_NOT_FUL & UART_INT_RX_CHAR
& UART_ADR_DETECT_DIS & UART_RX_OVERRUN_CLEAR,
BRGVALAX12);
ConfigIntUART2(UART_RX_INT_PR4 & UART_RX_INT_EN
& UART_TX_INT_PR4 & UART_TX_INT_DIS);
OpenTimer2(T2_ON & T2_GATE_OFF & T2_PS_1_256 & T2_32BIT_MODE_OFF & T2_SOURCE_INT, 1500);
ConfigIntTimer2(T2_INT_PRIOR_3 & T2_INT_ON); //Interruption ON et priorite 3
OpenTimer5(T5_OFF & T5_GATE_OFF & T5_PS_1_1 & T5_SOURCE_INT, 40000);
ConfigIntTimer5(T5_INT_PRIOR_2 & T5_INT_ON);
OpenQEI1(QEI_DIR_SEL_QEB & QEI_INT_CLK & QEI_INDEX_RESET_DISABLE & QEI_CLK_PRESCALE_1
& QEI_NORMAL_IO & QEI_MODE_x4_MATCH & QEI_UP_COUNT,0);
// ConfigIntQEI1(QEI_INT_DISABLE);
// WriteQEI1(65535); //Valeur pour declencher l'interruption du module QEI
_QEA1R = 5; //Module QEI 1 phase A sur RB5
_QEB1R = 6; //Module QEI 1 phase B sur RB6
POS1CNT = 0; //valeur QEI
IFS2bits.SPI2IF = 0; // Flag SPI2 Event Interrupt Priority
IPC8bits.SPI2IP = 2; // Priority SPI2 Event Interrupt Priority
IEC2bits.SPI2IE = 1; //Enable SPI2 Event Interrupt Priority
// activation de la priorité des interruptions
_NSTDIS = 0;
}
