int main (void)
{
XGpio dip, push;
int i, psb_check, dip_check;
xil_printf("-- Start of the Program --\r\n");
XGpio_Initialize(&dip, XPAR_SW_4BIT_DEVICE_ID); // Modify this
XGpio_SetDataDirection(&dip, 1, 0xffffffff);
XGpio_Initialize(&push, XPAR_BTNS_4BIT_DEVICE_ID); // Modify this
XGpio_SetDataDirection(&push, 1, 0xffffffff);
while (1)
{
psb_check = XGpio_DiscreteRead(&push, 1);
xil_printf("Push Buttons Status %x\r\n", psb_check);
dip_check = XGpio_DiscreteRead(&dip, 1);
xil_printf("DIP Switch Status %x\r\n", dip_check);
// output dip switches value on LED_ip device
LED_IP_mWriteReg(XPAR_LED_IP_0_S_AXI_BASEADDR,0,dip_check);
for (i=0; i<9999999; i++);
}
}
int main (void)
{
XGpio dip, push;
int i, psb_check, dip_check;
xil_printf("-- Start of the Program --\r\n");
XGpio_Initialize(&dip, XPAR_SW_4BIT_DEVICE_ID);
XGpio_SetDataDirection(&dip, 1, 0xffffffff);
XGpio_Initialize(&push, XPAR_BTNS_4BIT_DEVICE_ID);
XGpio_SetDataDirection(&push, 1, 0xffffffff);
while (1)
{
psb_check = XGpio_DiscreteRead(&push, 1);
xil_printf("Push Buttons Status %x\r\n", psb_check);
dip_check = XGpio_DiscreteRead(&dip, 1);
xil_printf("DIP Switch Status %x\r\n", dip_check);
for (i=0; i<9999999; i++);
}
}
/*
* Read GPIO Status
*/
int qthRwStat() {
u32 qthStatus;
u32 errStatus = XST_SUCCESS;
int i;
qthStatus = XGpio_DiscreteRead(&gpioRO0_status, 1);
if(qthStatus != 0x01) {
xil_printf("qth: Transceiver Initialization Failed\r\n");
return XST_FAILURE;
}
for(i = 0; i < 8; i++) {
qthStatus = XGpio_DiscreteRead(&gpioROs[i], 1);
if(qthStatus != 0x00) {
xil_printf("qth-Channel%d: Error Count %4d (0x%02x)\r\n", i, qthStatus, qthStatus);
errStatus = XST_FAILURE;
}
}
if(errStatus == XST_SUCCESS) {
xil_printf("qth: Test Passed with no Errors\r\n");
}
return errStatus;
}
u64 get_usec_timestamp(){
u32 timestamp_high_u32;
u32 timestamp_low_u32;
u64 timestamp_u64;
timestamp_high_u32 = XGpio_DiscreteRead(&GPIO_timestamp,TIMESTAMP_GPIO_MSB_CHAN);
timestamp_low_u32 = XGpio_DiscreteRead(&GPIO_timestamp,TIMESTAMP_GPIO_LSB_CHAN);
timestamp_u64 = (((u64)timestamp_high_u32)<<32) + ((u64)timestamp_low_u32);
return timestamp_u64;
}
void OledUpdate()
{
int gpioReg = 0;
int ipag;
uint8_t * pb;
pb = rgbOledBmp;
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
for (ipag = 0; ipag < cpagOledMax; ipag++)
{
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg & ( RESET_MASK | VDD_CTRL_MASK | VBAT_CTRL_MASK ));
/* Set the page address
*/
Spi2PutByte(0x22); //Set page command
Spi2PutByte(ipag); //page number
/* Start at the left column
*/
Spi2PutByte(0x00); //set low nybble of column
Spi2PutByte(0x10); //set high nybble of column
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg | DATA_CMD_MASK);
/* Copy this memory page of display data.
*/
OledPutBuffer(ccolOledMax, pb);
pb += ccolOledMax;
}
}
/***************************************************************************//**
* @brief gpio_set_value
*******************************************************************************/
int32_t gpio_set_value(uint8_t pin, uint8_t data)
{
#ifdef _XPARAMETERS_PS_H_
XGpioPs_WritePin(&gpio_instance, pin, data);
#else
uint32_t channel = 1;
uint32_t config = 0;
/* We assume that pin 32 is the first pin from channel 2 */
if (pin >= 32) {
channel = 2;
pin -= 32;
}
config = XGpio_DiscreteRead(&gpio_instance, channel);
if(data) {
config |= (1 << pin);
} else {
config &= ~(1 << pin);
}
XGpio_DiscreteWrite(&gpio_instance, channel, config);
#endif
return 0;
}
void OledDisplayOff()
{
int gpioReg = 0;
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg & ( RESET_MASK | VDD_CTRL_MASK | VBAT_CTRL_MASK ));
Spi2PutByte(cmdOledDisplayOff);
}
/**
*
* This function performs a test on the GPIO driver/device with the GPIO
* configured as INPUT
*
* @param DeviceId is the XPAR_<GPIO_instance>_DEVICE_ID value from
* xparameters.h
* @param DataRead is the pointer where the data read from GPIO Input is
* returned
*
* @return XST_SUCCESS if the Test is successful, otherwise XST_FAILURE
*
* @note None.
*
******************************************************************************/
int GpioInputExample(u16 DeviceId, u32 *DataRead)
{
int Status;
/*
* Initialize the GPIO driver so that it's ready to use,
* specify the device ID that is generated in xparameters.h
*/
Status = XGpio_Initialize(&GpioInput, DeviceId);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
/*
* Set the direction for all signals to be inputs
*/
XGpio_SetDataDirection(&GpioInput, LED_CHANNEL, 0xFFFFFFFF);
/*
* Read the state of the data so that it can be verified
*/
*DataRead = XGpio_DiscreteRead(&GpioInput, LED_CHANNEL);
return XST_SUCCESS;
}
void ledToggle() {// toggle led
led = XGpio_DiscreteRead(&outGpio,1);
if (led & 0x8)
XGpio_DiscreteWrite(&outGpio,1,led & 0x7);
else
XGpio_DiscreteWrite(&outGpio,1,led | 0x8);
};
int main(void){
int status;
int delay = 100000;
int temp=148;
//INITILIZE THE GPIO
status = XGpio_Initialize(&SwitchInst, SWITCH_DEVICE_ID);
if(status != XST_SUCCESS) return XST_FAILURE;
status = XGpio_Initialize(&DutycycleInst, DUTYCYCLE_DEVICE_ID);
if(status != XST_SUCCESS) return XST_FAILURE;
//SET GPIO DATA DIRECTIONS
XGpio_SetDataDirection(&SwitchInst, 1, 0xFF);
XGpio_SetDataDirection(&DutycycleInst, 1, 0x00);
//DO SOMETHING HERE IN MAIN **EDIT**
while(1){
switch_value = XGpio_DiscreteRead(&SwitchInst, 1);
//for(int i = 0; i < delay; i++);
temp = (100+(switch_value*5.625));
XGpio_DiscreteWrite(&DutycycleInst, 1, temp);
}
return 0;
}
void GpioIsr(void *InstancePtr)
{
XGpio *GpioPtr = (XGpio *)InstancePtr;
Xuint32 Led;
Xuint32 LedState;
Xuint32 Buttons;
Xuint32 ButtonFound;
Xuint32 ButtonsChanged = 0;
static Xuint32 PreviousButtons;
/***************************************************************
* There should not be any other interrupts occurring other than
* the button changes.
***************************************************************/
if((XGpio_InterruptGetStatus(GpioPtr) & BUTTON_INTERRUPT) != BUTTON_INTERRUPT)
return;
/***************************************************************
* Read state of push buttons and determine which ones changed
* states from the previous interrupt. Save a copy of the buttons
* for the next interrupt.
****************************************************************/
Buttons = XGpio_DiscreteRead(GpioPtr, BUTTON_CHANNEL);
// Clear the interrupt such that it is no longer pending in the GPIO
(void) XGpio_InterruptClear(GpioPtr, BUTTON_INTERRUPT);
// Do we need to clear the interrupt at the INTC?
Yield();
}
/*
* Read GPIO Status
*/
int ddr3RwTest() {
u32 ddr3Status;
ddr3Status = XGpio_DiscreteRead(&gpioInstance, 1);
if(ddr3Status != 0x01) {
u32 delay = 0;
for (delay = 0; delay < 40000000; delay++) {
asm("nop");
}
ddr3Status = XGpio_DiscreteRead(&gpioInstance, 1);
}
if(ddr3Status != 0x01) {
return XST_FAILURE;
}
return XST_SUCCESS;
}
int DebouncButton( void )
{
int btn;
static int hitZero=0;
static int btnIntegrator=0;
btn = XGpio_DiscreteRead(&gpio_btn, 1);
// decrement and keep track if we've touched zero
if ( btn==0 )
{
if (btnIntegrator > 0)
btnIntegrator -= 1;
if (btnIntegrator == 0)
hitZero = 1;
return 0;
}
if (btnIntegrator < 1000)
btnIntegrator += 1;
if (btnIntegrator < 1000)
return 0;
if (hitZero == 0)
return 0;
// we've hit 1000 so now we know we need to hit zero again
hitZero = 0;
return 1;
}
int main(void)
{
u32 Data;
u32 InData;
int Status;
volatile int Delay;
char test_vect_idx =0;
char charidx = 0;
u8 DataWrittenDone = 0;
char curchar;
init_platform();
/*
* Initialize the GPIO driver
*/
Status = XGpio_Initialize(&Gpio, GPIO_EXAMPLE_DEVICE_ID);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
for (test_vect_idx=0;test_vect_idx<num_test_vectors;test_vect_idx++)
{
for (charidx=0;charidx<64;charidx++)
{
curchar = testvector[test_vect_idx][charidx]; //Read the current character
Data = createDataPacket(curchar,charidx,test_vect_idx); //Send the 'A' character to byte 3 of testvector 1
print("Sending character \n");
XGpio_DiscreteWrite(&Gpio, OUPTPUT_CHANNEL, Data); //Write into the PL
//Double check by reading from the PL
for (Delay = 0; Delay < LED_DELAY; Delay++); //Wait for a while
//Read back the data from the PL side to see its status
do
{
InData = XGpio_DiscreteRead(&Gpio, INPUT_CHANNEL);
for (Delay = 0; Delay < LED_DELAY; Delay++); //Wait for a while before recheck
}
while (InData&(1<<31));
if ((InData&0xFF)==(Data&0xFF))
{
print("Correct\n");
}
else
{
print("Incorrect\n");
}
XGpio_DiscreteWrite(&Gpio, OUPTPUT_CHANNEL, 0x00000000); //Release the bus immediately
for (Delay = 0; Delay < LED_DELAY; Delay++); //Wait for a while
}
}
print("Done sending. Please press the center button to begin...");
cleanup_platform();
return XST_SUCCESS;
}
int testSwitchesAndLEDs()
{
init_platform();
initGPIO();
unsigned int switch_val = XGpio_DiscreteRead(&xgpio_switches, 1);
xil_printf("Switch val: %x \n\r", switch_val);
while(1)
{
switch_val = XGpio_DiscreteRead(&xgpio_switches, 1);
XGpio_DiscreteWrite(&xgpio_LEDs, 1, switch_val);
}
cleanup_platform();
return 0;
}
void respondToGPIOInput()
{
const int PUSH_BUTTONS_CENTER = 0x01;
const int PUSH_BUTTONS_RIGHT = 0x02;
const int PUSH_BUTTONS_LEFT = 0x08;
const int PUSH_BUTTONS_UP = 0x10;
const int PUSH_BUTTONS_DOWN = 0x04;
int buttonState = XGpio_DiscreteRead(&gpPB, 1);
if (buttonState & PUSH_BUTTONS_LEFT)
tank_moveTankLeft();
else if (buttonState & PUSH_BUTTONS_RIGHT)
tank_moveTankRight();
if (buttonState & PUSH_BUTTONS_UP)
tank_fireBullet();
if (buttonState & PUSH_BUTTONS_CENTER)
sound_volumeUp();
else if (buttonState & PUSH_BUTTONS_DOWN)
sound_volumeDown();
int x = mouse_getXMovement();
tank_moveTank(x / TANK_MOUSE_DIVIDER);
if(mouse_getMouseButtons() == MOUSE_LEFT_BUTTON)
tank_fireBullet();
// switches
const int SWITCH_LD6 = 0x40;
const int SWITCH_LD5 = 0x20;
int oldSwitchState = switchState;
switchState = XGpio_DiscreteRead(&gpswitches, 1);
if ((switchState & SWITCH_LD5) != (oldSwitchState & SWITCH_LD5)) { // switch changed position
if (switchState & SWITCH_LD5)
displayScreenCapture();
else
displayGame();
}
if ((switchState & SWITCH_LD6) && !(oldSwitchState & SWITCH_LD6)) { // switch flipped up
captureScreen();
}
}
// After 50ms of button stability the buttons are
// considered debounced and this timer is disabled
void debounceButtons_tick() {
if (debounceTimerEnable) {
debounceTimer++;
if (debounceTimer == 5) { // 50 ms
debounceTimerEnable = false;
displayTime_setButtonsVal(XGpio_DiscreteRead(&gpPB, 1));
}
}
}
/*
* Read GPIO Status
*/
int qdrRwTest() {
u32 qdrStatus;
qdrStatus = XGpio_DiscreteRead(&gpioInstance, 1);
if(qdrStatus != 0x01) {
return XST_FAILURE;
}
return XST_SUCCESS;
}
void PushBtnHandler(void * CallBackRef)
{
state1 = XGpio_DiscreteRead(&Btns, 1);
pshBtn = 1;
XGpio_InterruptDisable(&Btns, 1);
Delay_50ms();
XGpio_InterruptClear(&Btns, 1);
XGpio_InterruptEnable(&Btns, 1);
}
/*** PushBtnHandler
**
** Parameters:
** CallBackRef - Pointer to the push button struct (pshBtns) initialized
** in main.
**
** Return Value:
** None
**
** Errors:
** None
**
** Description:
** This function is connected to the interrupt handler such that it is
** called whenever an interrupt is triggered by the push buttons. It
** responds to button presses by either stopping/starting the input
** feed, printing a test pattern, inverting the framebuffer, or outputting
** the input frame dimensions over UART.
*/
void PushBtnHandler(void *CallBackRef) {
XGpio *pPushBtn = (XGpio *)CallBackRef;
u32 lBtnStateNew = XGpio_DiscreteRead(pPushBtn, lBtnChannel);
u32 lBtnChanges = lBtnStateNew ^ lBtnStateOld;
lBtnStateOld = lBtnStateNew;
if ((lBtnChanges & BUTTON_UP) && (lBtnStateNew & BUTTON_UP))
{
// Up button pressed
delay++;
xil_printf("Delay: %2d\r\n", delay);
ghPlayer_SetControl(XPAR_GH_PLAYER_0_BASEADDR, 0, TILT, strumValue, delay, type, playerEnable);
}
if ((lBtnChanges & BUTTON_DOWN) && (lBtnStateNew & BUTTON_DOWN))
{
// Down button pressed
delay--;
xil_printf("Delay: %2d\r\n", delay);
ghPlayer_SetControl(XPAR_GH_PLAYER_0_BASEADDR, 0, TILT, strumValue, delay, type, playerEnable);
}
if ((lBtnChanges & BUTTON_LEFT) && (lBtnStateNew & BUTTON_LEFT))
{
// Left button pressed
xil_printf("\r\nOutputting frames over Ethernet...");
// Output series of frames over Ethernet
EnableVDMAFrameIntr();
}
if ((lBtnChanges & BUTTON_RIGHT) && (lBtnStateNew & BUTTON_RIGHT))
{
// Right button pressed
xil_printf("\r\nOutputting frame over Ethernet...");
/* Output frame over Ethernet */
register int i;
register u32 *vbufptr = (u32 *)(XPAR_S6DDR_0_S0_AXI_BASEADDR + 0x01000000);
for (i = 0; i < 1280 * 720 ; i += 320) {
ethernetSendPayload(1280, (u8*)(vbufptr + i));
}
xil_printf("done");
}
if ((lBtnChanges & BUTTON_CENTRE) && (lBtnStateNew & BUTTON_CENTRE))
{
// Centre button pressed
xil_printf("\r\nResetting VDMA setup...");
// Set up VDMA
vdma_setup(btnIntCtrl);
}
XGpio_InterruptClear(pPushBtn, lBtnChannel); // Clear interrupt
}
// This is invoked each time there is a change in the button state (result of a push or a bounce).
void pb_interrupt_handler() {
// Clear the GPIO interrupt.
XGpio_InterruptGlobalDisable(&gpPB); // Turn off all PB interrupts for now.
currentButtonState = XGpio_DiscreteRead(&gpPB, 1); // Get the current state of the buttons.
// You need to do something here.
XGpio_InterruptClear(&gpPB, 0xFFFFFFFF); // Ack the PB interrupt.
XGpio_InterruptGlobalEnable(&gpPB); // Re-enable PB interrupts.
// Because there is a change in the button state, the button counters need to be reinitialized.
debounce_timer_count = 0;
}
/*
* Read GPIO Status
*/
int qthRwTest() {
u32 qthStatus;
int i;
qthStatus = XGpio_DiscreteRead(&gpioRO0_status, 1);
if(qthStatus != 0x01) {
return XST_FAILURE;
}
for(i = 0; i < 8; i++) {
qthStatus = XGpio_DiscreteRead(&gpioROs[i], 1);
if(qthStatus != 0x00) {
xil_printf("qth-Channel%d: Error Count %4d (0x%02x)\r\n", i, qthStatus, qthStatus);
return XST_FAILURE;
}
}
return XST_SUCCESS;
}
void Mrf24j::reset(void)
{
int gpioReg = 0;
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg & RF_WAKE_MASK); //reset low
usleep(10000); // just my gut
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg | RF_RESET_MASK); //reset high
usleep(20000); // from manual
}
void OledDevInit()
{
int gpioReg = 0;
/* We're going to be sending commands, so clear the Data/Cmd bit
*/
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg & (RESET_MASK | VBAT_CTRL_MASK));
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
printf("OledDevInit: d/cmd, vdd set to 0, gpioReg: %X", gpioReg);
usleep(1000);
/* Display off command
*/
Spi2PutByte(cmdOledDisplayOff);
/* Bring Reset low and then high
*/
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg & ( VBAT_CTRL_MASK | VDD_CTRL_MASK | DATA_CMD_MASK));
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
printf("OledDevInit: reset set to 0, gpioReg: %X", gpioReg);
usleep(1000);
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg | RESET_MASK);
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
printf("OledDevInit: reset set to 1, gpioReg: %X", gpioReg);
/* Send the Set Charge Pump and Set Pre-Charge Period commands
*/
Spi2PutByte(0x8D); //From Univision data sheet, not in SSD1306 data sheet
Spi2PutByte(0x14);
Spi2PutByte(0xD9); //From Univision data sheet, not in SSD1306 data sheet
Spi2PutByte(0xF1);
/* Turn on VCC and wait 100ms
*/
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
XGpio_DiscreteWrite(&gpioInstance, 1, gpioReg & ( RESET_MASK | VDD_CTRL_MASK | DATA_CMD_MASK));
gpioReg = XGpio_DiscreteRead(&gpioInstance, 1);
printf("OledDevInit: vbat set to 0, gpioReg: %X", gpioReg);
usleep(100000);
/* Send the commands to invert the display.
*/
Spi2PutByte(cmdOledSegRemap); //remap columns
Spi2PutByte(cmdOledComDir); //remap the rows
/* Send the commands to select sequential COM configuration
*/
Spi2PutByte(cmdOledComConfig); //set COM configuration command
Spi2PutByte(0x20); //sequential COM, left/right remap enabled
/* Send Display On command
*/
Spi2PutByte(cmdOledDisplayOn);
}
/**
*
* This function does a minimal test on the GPIO device configured as OUTPUT
* and driver as a example.
*
*
* @param DeviceId is the XPAR_<GPIO_instance>_DEVICE_ID value from
* xparameters.h
* @param GpioWidth is the width of the GPIO
*
* @return XST_SUCCESS if successful, XST_FAILURE if unsuccessful
*
* @note None
*
****************************************************************************/
void GpioOutputExample(Xuint16 DeviceId, Xuint32 GpioWidth)
{
volatile int Delay;
Xuint32 LedBit;
Xuint32 LedLoop;
XStatus Status;
int numTimes = 1;
/*
* Initialize the GPIO driver so that it's ready to use,
* specify the device ID that is generated in xparameters.h
*/
Status = XGpio_Initialize(&GpioOutput, DeviceId);
if (Status != XST_SUCCESS)
{
print("Gpio Instance Didn't Initialize!\r\n");
}
/*
* Set the direction for all signals to be outputs
*/
XGpio_SetDataDirection(&GpioOutput, 1, 0x0);
/*
* Set the GPIO outputs to low
*/
XGpio_DiscreteWrite(&GpioOutput, 1, 0x0);
while (numTimes > 0) {
for (LedBit = 0x0; LedBit < GpioWidth; LedBit++) {
for (LedLoop = 0; LedLoop < 1; LedLoop++) {
/*
* Set the GPIO Output to High
*/
XGpio_DiscreteWrite(&GpioOutput, 1, 1 << LedBit);
/*
* Wait a small amount of time so the LED is visible
*/
for (Delay = 0; Delay < (500000/2); Delay++)
{
// Dummy read; to ensure the delay has no Cache effect
XGpio_DiscreteRead(&GpioOutput, 1);
}
/*
* Clear the GPIO Output
*/
XGpio_DiscreteClear(&GpioOutput, 1, 1 << LedBit);
}
}
numTimes--;
}
}
void reset_DW1000(void)
{
u32 uwbIn;
XGpio_Initialize(&uwbGpio,XPAR_AXI_GPIO_UWB_DEVICE_ID);
XGpio_DiscreteWrite(&uwbGpio,1,0); // reset on
uwbIn = XGpio_DiscreteRead(&uwbGpio,2);
/*
printf("UBW reset active. Inputs 0x%x. Press any key\r\n", uwbIn);
getchar();
*/
XGpio_DiscreteWrite(&uwbGpio,1,0xff); // reset off
uwbIn = XGpio_DiscreteRead(&uwbGpio,2);
while(0 == (uwbIn & 0x4)){
//printf("UBW reset inactive. Inputs 0x%x\r\n", uwbIn);
uwbIn = XGpio_DiscreteRead(&uwbGpio,2);
}
printf("UBW reset completed\r\n");
deca_sleep(2);
}
// This is invoked each time there is a change in the button state (result of a push or a bounce).
void pb_interrupt_handler() {
// Clear the GPIO interrupt.
XGpio_InterruptGlobalDisable(&gpPB); // Turn off all PB interrupts for now.
currentButtonState = XGpio_DiscreteRead(&gpPB, 1); // Get the current state of the buttons.
// Reset button counter
btnCounter = 0;
XGpio_InterruptClear(&gpPB, 0xFFFFFFFF); // Ack the PB interrupt.
XGpio_InterruptGlobalEnable(&gpPB); // Re-enable PB interrupts.
}
int main() {
unsigned int value=0;
int i;
u32 input;
unsigned int my_array[] = {
1841,1371,1356,1435,1364,1474,1741,1790,1720,1770,6770,7460,3660,5045,1111,9481 ,99,100,99,92,159,163,114,177,101,44,55,192,58,81,129,193,124,76,38,181,147,182,77,71,
17,164,149,193,62,45,81,176,184,165,28,199,1,199,1,199,1,199,1,199,1,199,1,199,15,12,9,98,9,134,14,15,
16,7,2,6,1,4,7,18,1,5,20,21,22,23,24,25,15,15,15,101,199,102,198,103,197,104,196,105,195,111,189,122,
184,137,136,135,134,144,141,190,120,170,60,70,30,50,111,981,141,171
};
GPIO_0_conf.BaseAddress = XPAR_AXI_GPIO_0_BASEADDR;
GPIO_0_conf.DeviceId = XPAR_GPIO_0_DEVICE_ID;
GPIO_0_conf.InterruptPresent = XPAR_GPIO_0_INTERRUPT_PRESENT;
GPIO_0_conf.IsDual = XPAR_GPIO_0_IS_DUAL;
//Initialize the XGpio instance
XGpio_CfgInitialize(&GPIO_0, &GPIO_0_conf, GPIO_0_conf.BaseAddress);
init_platform();
print("*Init*\n\r");
for(i=0;i<size;i++){
value = 0xe0000000 | (i<<16) | my_array[i];
XGpio_DiscreteWrite(&GPIO_0, 1, value);
print("Preencheu RAM! \n\r");
}
print("Fim do preenchimento\n\r");
print("Pressionar btnC\n\r");
input = XGpio_DiscreteRead(&GPIO_0, 2);
// Separar valor para mostrar
outbyte((char)((input/100)+0x30));
outbyte((char)((input/10)%10+0x30));
outbyte((char)(input%10+0x30));
print("\n");
cleanup_platform();
return 0;
}
int main()
{
XGpio gpio0, gpio1, gpio2, gpio3, gpio4;
unsigned int a, b, c, d, e, f, g, h, i, j, k;
init_platform();
while (1) {
XGpio_Initialize(&gpio0, XPAR_AXI_GPIO_0_DEVICE_ID);
XGpio_Initialize(&gpio1, XPAR_AXI_GPIO_1_DEVICE_ID);
XGpio_Initialize(&gpio2, XPAR_AXI_GPIO_2_DEVICE_ID);
XGpio_Initialize(&gpio3, XPAR_AXI_GPIO_3_DEVICE_ID);
XGpio_Initialize(&gpio4, XPAR_AXI_GPIO_4_DEVICE_ID);
a = XGpio_DiscreteRead (&gpio0, 1); // Timer LSB
b = XGpio_DiscreteRead (&gpio0, 2); // Timer MSB
c = XGpio_DiscreteRead (&gpio1, 1); // BRAM Single
d = XGpio_DiscreteRead (&gpio1, 2); // BRAM Double
e = XGpio_DiscreteRead (&gpio2, 1); // DSP Global
f = XGpio_DiscreteRead (&gpio2, 2); // DSP Single
g = XGpio_DiscreteRead (&gpio3, 1); // DSP Double
h = XGpio_DiscreteRead (&gpio3, 2); // DSP Triple
i = XGpio_DiscreteRead (&gpio4, 1); // CLB Level1
j = XGpio_DiscreteRead (&gpio4, 2); // CLB Level2
printf("T\t%d%d\n\r", b, a);
printf("BS\t%d\n\r", c);
printf("BD\t%d\n\r", d);
printf("DG\t%d\n\r", e);
printf("DS\t%d\n\r", f);
printf("DD\t%d\n\r", g);
printf("DT\t%d\n\r", h);
printf("C1\t%d\n\r", i);
printf("C2\t%d\n\r", j);
for (i = 0; i < 1000; ++i);
}
return 0;
}
/*-----------------------------------------------------------*/
static void prvRxTask( void *pvParameters )
{
char Recdstring[15] = "";
int i;
int Status;
u32 prev_btns = 0;
/* Print the received data. */
xil_printf( "Rx task starting.\r\n");
for( ;; )
{
RecvFrameLength = 0;
/*
* Poll for receive packet.
*/
while ((volatile u32)RecvFrameLength == 0) {
vTaskDelay(1);
u32 btns = XGpio_DiscreteRead(&gpio_btns, 1);
if (btns != prev_btns) {
xil_printf("btns=%d\r\n", btns);
if (btns == 1) {
/* send a frame */
xil_printf( "Rx emac: sending a frame\r\n");
Status = EmacLiteSendFrame(&emac, 128);
if (Status != XST_SUCCESS) {
xil_printf( "Rx emac: send frame fail\r\n");
}
}
prev_btns = btns;
}
RecvFrameLength = XEmacLite_Recv(&emac, (u8 *)RxFrame);
}
xil_printf( "Rx emac: frame recv, len=%d\r\n", RecvFrameLength);
/*
* Check the received frame.
*/
Status = EmacLiteRecvFrame(128);
if ((Status != XST_SUCCESS) && (Status != XST_NO_DATA)) {
xil_printf( "Rx emac: frame rx check no success\r\n");
}
for (i = 0; i < RecvFrameLength; ++i) {
xil_printf("%02x:", RxFrame[i]);
}
xil_printf("\r\n");
}
}
