int main()
{
init_platform();
u32 data,data2;
unsigned int empty_L;
unsigned int full_E;
unsigned int i;
XIOModule iomodule;
data = XIOModule_Initialize(&iomodule, XPAR_IOMODULE_0_DEVICE_ID);
data = XIOModule_Start(&iomodule);
DIR_FIFO_ESCRITURA_DT = (u32) 'H';
DIR_FIFO_ESCRITURA_DT = (u32) 'O';
DIR_FIFO_ESCRITURA_DT = (u32) 'L';
DIR_FIFO_ESCRITURA_DT = (u32) 'A';
DIR_FIFO_ESCRITURA_DT = (u32) '\n';
while (1) {
do{
data = DIR_FIFO_LECTURA_ST;
empty_L = (unsigned int) data;
}while(empty_L != 0);
data2 = DIR_FIFO_LECTURA_DT;
do{
data = DIR_FIFO_ESCRITURA_ST;
full_E = (unsigned int) data;
}while(full_E != 0);
DIR_FIFO_ESCRITURA_DT = data2;
data = DIR_SWITCHES;
DIR_LEDS = data;
}
cleanup_platform();
return 0;
/* init_platform();
u32 data;
XIOModule iomodule;
xil_printf("Reading switches and writing to LED port\n\r");
data = XIOModule_Initialize(&iomodule, XPAR_IOMODULE_0_DEVICE_ID);
data = XIOModule_Start(&iomodule);
while (1)
{
data = DIRSWIT;
xil_printf("Valor: %x\n\r",data);
DIRLEDS = data;
}
cleanup_platform();
return 0;*/
}
int main() {
init_platform();
// Initialize the GPIO peripherals.
XGpio_Initialize(&gpPB, XPAR_PUSH_BUTTONS_5BITS_DEVICE_ID);
// Set the push button peripheral to be inputs.
XGpio_SetDataDirection(&gpPB, 1, 0x0000001F);
// Enable the global GPIO interrupt for push buttons.
XGpio_InterruptGlobalEnable(&gpPB);
// Enable all interrupts in the push button peripheral.
XGpio_InterruptEnable(&gpPB, 0xFFFFFFFF);
interrupts_init();
print("made it past interrupts_init\n\r");
// apparently we don't need to init it, just HardReset
XAC97_HardReset(XPAR_AXI_AC97_0_BASEADDR);
XAC97_WriteReg(XPAR_AXI_AC97_0_BASEADDR, AC97_ExtendedAudioStat, 1);
XAC97_WriteReg(XPAR_AXI_AC97_0_BASEADDR, AC97_PCM_DAC_Rate, AC97_PCM_RATE_11025_HZ);
XAC97_mSetControl(XPAR_AXI_AC97_0_BASEADDR, AC97_ENABLE_IN_FIFO_INTERRUPT);
XAC97_WriteReg(XPAR_AXI_AC97_0_BASEADDR, AC97_MasterVol, AC97_VOL_MAX);
XAC97_WriteReg(XPAR_AXI_AC97_0_BASEADDR, AC97_PCMOutVol, AC97_VOL_MAX);
while (1);
cleanup_platform();
return 0;
}
int main()
{
init_platform();
xil_printf( "----------The test is start......----------\n\r" );
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0x30 , 0x4 ); //reset S2MM VDMA Control Register
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0x30 , 0x8 ); //genlock
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0xAC , 0x08000000 ); // S2MM Start Addresses
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0xAC + 4 , 0x0A000000 );
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0xAC + 8 , 0x09000000 );
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0xA4 , 1920 * 3 ); // S2MM Horizontal Size
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0xA8 , 0x01002000 ); // S2MM Frame Delay and Stride
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0x30 , 0x3 ); // S2MM VDMA Control Register
Xil_Out32 ( XPAR_AXI_VDMA_0_BASEADDR + 0xA0 , 1080 ); // S2MM Vertical Size start an S2MM transfer
//AXI VDMA1
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x0, 0x4); //reset MM2S VDMA Control Register
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x0, 0x8); //gen-lock
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x5C, 0x08000000); //MM2S Start Addresses
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x5C+4, 0x0A000000);
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x5C+8, 0x09000000);
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x54, 1920*3);//MM2S HSIZE Register
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x58, 0x01002000);//S2MM FRMDELAY_STRIDE Register 1920*3=5760對齊之後為8192=0x2000
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x0, 0x03);//MM2S VDMA Control Register
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x50, 1080);//MM2S_VSIZE啟動傳輸
cleanup_platform();
return 0;
}
int main()
{
init_platform();
int pin1 = 0;
int pin2 = 0;
int pin3 = 0;
int pin4 = 0;
int all_pins = 0;
print("GPIO Demo\n\r");
GPIO_begin(&myDevice, XPAR_PMODGPIO_0_AXI_LITE_GPIO_BASEADDR, 0xFF);
while(1){
//read individually
pin1 = GPIO_getPin(&myDevice, 1);
pin2 = GPIO_getPin(&myDevice, 2);
pin3 = GPIO_getPin(&myDevice, 3);
pin4 = GPIO_getPin(&myDevice, 4);
//read all together
all_pins = GPIO_getPins(&myDevice);
//print individual reads and the total read masked to the first four bits
xil_printf("switch 1: %d switch 2: %d switch 3: %d switch 4: %d all pins: %d\n\r", pin1, pin2, pin3, pin4, all_pins & 0x0f);
}
cleanup_platform();
return 0;
}
void DemoRun()
{
xil_printf("starting...\n\r");
while(1)
{
// increase physical value from minimum to maximum value
for(dValue = dMinValue; dValue <= dMaxValue; dValue += dStep)
{
whole = dValue; // getting whole number for the physical value
not_whole= (dValue - whole) * 1000; // getting the non whole number of the physical value
// send value to the DA converter
status = DA1_WritePhysicalValue(dValue,&myDevice);
}
// decrease physical value from maximum to minimum value
for(dValue = dMaxValue; dValue >= dMinValue; dValue -= dStep)
{
whole = dValue; // getting whole number for the physical value
not_whole= (dValue - whole) * 1000; // getting the non whole number of the physical value
// send value to the DA converter
status= DA1_WritePhysicalValue(dValue,&myDevice);
}
}
DA1_end(&myDevice);
cleanup_platform();
}
int main()
{
int aliveLed = 0;
static int BlinkCount = 0;
init_platform();
if(SetupPeripherals() != XST_SUCCESS)
return -1;
if ( Chilipepper_Initialize() != 0 )
return -1;
Chilipepper_SetPA( 1 );
Chilipepper_SetTxRxSw( 1 ); // 0- transmit, 1-receive
while (1)
{
Chilipepper_ControlAgc(); //update the Chilipepper AGC
BlinkCount += 1;
if (BlinkCount > 500000)
{
if (aliveLed == 0)
aliveLed = 1;
else
aliveLed = 0;
BlinkCount = 1;
XGpio_DiscreteWrite(&gpio_blinky, 2, aliveLed); //blink LEDs
XGpio_DiscreteWrite(&gpio_blinky, 1, ~aliveLed);
}
}
cleanup_platform();
return 0;
}
int main()
{
init_platform();
initInterrupts();
int source_word[16];
int destination_word[16];
setArray(source_word, 16, 0);
setArray(destination_word, 16, 1);
printf("Printing value before DMA transfer.\n\r");
printArray(destination_word, 16);
DMA_CONTROLLER_InitiateTransfer(XPAR_DMA_CONTROLLER_0_BASEADDR, (Xuint32) &source_word, (Xuint32) &destination_word, 4 * 10);
printf("Printing value after DMA transfer.\n\r");
printArray(destination_word, 16);
setArray(source_word, 6, 1);
DMA_CONTROLLER_InitiateTransfer(XPAR_DMA_CONTROLLER_0_BASEADDR, (Xuint32) &source_word, (Xuint32) &destination_word, 4 * 10);
printf("Printing value after 2nd DMA transfer.\n\r");
printArray(destination_word, 16);
cleanup_platform();
return 0;
}
int main()
{
init_platform();
print("Hello World\n\r");
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x0, 0x4); //reset MM2S VDMA Control Register
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x0, 0x8); //gen-lock
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x5C, 0x04000000); //MM2S Start Addresses
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x54, 640*3);//MM2S HSIZE Register---buffer length
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x58, 0x01000780);//S2MM FRMDELAY_STRIDE Register 1920*3=5760 对齐之后为8192=0x2000
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x0, 0x03);//MM2S VDMA Control Register
//Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x50, 480);//MM2S_VSIZE 启动传输
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0xAC, 0x08000000);//S2MM Start Addresses
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0xA4, 640*3);
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0xA8, 0x01000780);//S2MM Frame Delay and Stride
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x30, 0x3);//S2MM VDMA Control Register
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0x50, 480);//MM2S_VSIZE 启动传输
Xil_Out32(XPAR_AXI_VDMA_0_BASEADDR + 0xA0, 480);//S2MM Vertical Size start an S2MM transfer
cleanup_platform();
return 0;
}
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 main(void)
{
DemoInitialize();
DemoRun();
cleanup_platform();
return 0;
}
int main()
{
init_platform();
xil_printf("%s\n\r", "Welcome to Brutus cracker system!");
while (1) {
xil_printf("%s\n\r", "Enter hash: ");
char recv = XUartLite_RecvByte(STDIN_BASEADDRESS); // read first char
/* Read password hash */
char buff[32];
int idx_buff = 0;
while (recv != '\r') {
buff[idx_buff++] = recv;
recv = XUartLite_RecvByte(STDIN_BASEADDRESS);
}
unsigned int i_buff[4] = {0};
unsigned num = 0;
for (int i = 0; i < 4; i++) {
for (int j = 0; j < 8; j++) {
num = ctox(buff[j + i*8]);
i_buff[i] += (pow(16, 7-j) * num);
}
//xil_printf("%x\n\r", i_buff[i]);
}
//xil_printf("%u\n\r", i_buff[0]);
putfsl(i_buff[0], 0);
putfsl(i_buff[1], 0);
putfsl(i_buff[2], 0);
putfsl(i_buff[3], 0);
xil_printf("Cracking...\n\r");
unsigned int resp;
char *str = &resp; // c-magic
getfsl(resp, 0);
unsigned i;
xil_printf("password: "******"%c", *(str+i));
}
getfsl(resp, 0);
for (i = 0; i < 4; i++) {
xil_printf("%c", *(str+i));
}
xil_printf("\n\r");
}
cleanup_platform();
return 0;
}
int main()
{
init_platform();
// Specify configuration for hardware design.
demo.ali3_resolution = VIDEO_RESOLUTION_WXGA;
demo.ali3_width = vres_get_width(VIDEO_RESOLUTION_WXGA);
demo.ali3_height = vres_get_height(VIDEO_RESOLUTION_WXGA);
demo.uDeviceId_VDMA_FrameBuffer = XPAR_AXIVDMA_0_DEVICE_ID;
demo.uBaseAddr_MEM_FrameBuffer = XPAR_DDR_MEM_BASEADDR + 0x10000000;
demo.uNumFrames_FrameBuffer = XPAR_AXIVDMA_0_NUM_FSTORES;
//
demo.uBaseAddr_IIC_Touch = XPAR_IIC_0_BASEADDR;
//
demo.uDeviceId_IRQ_Touch = XPAR_PS7_SCUGIC_0_DEVICE_ID;
demo.uInterruptId_IRQ_Touch = XPS_FPGA0_INT_ID;
// Initialize the PS GPIO controls.
if (ps_gpio_polled_init(&demo) != 0)
{
xil_printf("Failed to initialize PS GPIO driver\n\r");
}
// Wait while the display powers up fully before accessing any hardware.
sleep(1);
// Initialize hardware design for the display.
zed_ali3_controller_demo_init(&demo);
// Initialize Serial Console.
start_avnet_console_serial_application();
// Wait while peripherals become calibrated and configured.
sleep(1);
// Check for calibration request.
zed_ali3_controller_demo_check_calibrate_request(&demo);
// Display the logo screen to show that the system is configured.
zed_ali3_controller_demo_logo(&demo);
while (1)
{
// Process user input from Serial Console.
transfer_avnet_console_serial_data();
// Process user input from the touch screen.
zed_ali3_controller_demo_touch_process(&demo);
// Process user input from the board hardware.
zed_ali3_controller_demo_board_process(&demo);
}
cleanup_platform();
return 0;
}
int main()
{
struct netif *netif, server_netif;
struct ip_addr ipaddr, netmask, gw;
/* the mac address of the board. this should be unique per board */
unsigned char mac_ethernet_address[] = { 0x00, 0x0a, 0x35, 0x00, 0x01, 0x02 };
netif = &server_netif;
init_platform();
/* initliaze IP addresses to be used */
IP4_ADDR(&ipaddr, 192, 168, 1, 10);
IP4_ADDR(&netmask, 255, 255, 255, 0);
IP4_ADDR(&gw, 192, 168, 1, 1);
print_app_header();
print_ip_settings(&ipaddr, &netmask, &gw);
lwip_init();
/* Add network interface to the netif_list, and set it as default */
if (!xemac_add(netif, &ipaddr, &netmask, &gw, mac_ethernet_address, PLATFORM_EMAC_BASEADDR)) {
xil_printf("Error adding N/W interface\n\r");
return -1;
}
netif_set_default(netif);
/* Create a new DHCP client for this interface.
* Note: you must call dhcp_fine_tmr() and dhcp_coarse_tmr() at
* the predefined regular intervals after starting the client.
*/
/* dhcp_start(netif); */
/* now enable interrupts */
platform_enable_interrupts();
/* specify that the network if is up */
netif_set_up(netif);
/* start the application (web server, rxtest, txtest, etc..) */
start_application();
/* receive and process packets */
while (1) {
xemacif_input(netif);
transfer_data();
}
/* never reached */
cleanup_platform();
return 0;
}
int main() {
volatile unsigned int *gpio = (unsigned int *) XPAR_XPS_GPIO_0_BASEADDR,
*gpio_tristate = (unsigned int *) (XPAR_XPS_GPIO_0_BASEADDR + 0x04),
*gpio2 = (unsigned int *) (XPAR_XPS_GPIO_0_BASEADDR + 0x08);
init_platform();
*gpio_tristate = 0x0;
int i, j;
xil_printf("Foo\r\n");
*gpio = RESET;
*gpio = 0;
xil_printf("reset\n\r");
// key schreiben 128 bits
volatile unsigned int *mem = (unsigned int *) XPAR_XPS_BRAM_IF_CNTLR_0_BASEADDR;
for (i = 0; i < 4; i++) {
mem[i+4] = i+1;
}
xil_printf("Key: %X %X %X %X \r\n", mem[0], mem[1], mem[2], mem[3]);
// enable set
*gpio = SET;
WAIT_FOR_DONE(gpio2);
xil_printf("set done\n\r");
*gpio = 0;
for (j = 0; j < 10; j++) {
// write data
for (i = 0; i < 4; i ++) {
mem[i] = j;
}
//xil_printf("data written\n\r");
*gpio = ENABLE;
*gpio = 0;
WAIT_FOR_DONE(gpio2);
// xil_printf("encryption done\n\r");
xil_printf("Result: %X %X %X %X \r\n", mem[0], mem[1], mem[2], mem[3]);
}
cleanup_platform();
return 0;
}
int main()
{
init_platform();
run_mac_eeprom_test();
cleanup_platform();
return 0;
}
int main()
{
init_platform();
print("Int Sim Example\n\r");
IntcExample(INTC_DEVICE_ID);
cleanup_platform();
return 0;
}
int main()
{
init_platform();
print("Hello World\n\r");
cleanup_platform();
return 0;
}
int main() {
// Optical__value_all
u8 Optical_value_all;
// Optical__value_signal
u8 Optical_value_signal;
int Speed, Dir;
float Ultrasonic_value_all[3];
int i;
init_platform();
OptInit();
MotorInit();
BluetoothInit();
while (1) {
Optical_value_all = OptGetAll();
printf("optical_all : %X \r\n", Optical_value_all);
OptGetSingle(Opt1, &Optical_value_signal);
printf("optical_CH1 : %X \r\n", Optical_value_signal);
OptGetSingle(Opt2, &Optical_value_signal);
printf("optical_CH2 : %X \r\n", Optical_value_signal);
OptGetSingle(Opt3, &Optical_value_signal);
printf("optical_CH3 : %X \r\n", Optical_value_signal);
OptGetSingle(Opt4, &Optical_value_signal);
printf("optical_CH4 : %X \r\n", Optical_value_signal);
OptGetSingle(Opt5, &Optical_value_signal);
printf("optical_CH5 : %X \r\n\r\n", Optical_value_signal);
UltraGetAll(Ultrasonic_value_all);
for (i = 0; i < 3; i++) {
printf("u%d : %f mm\r\n", i, Ultrasonic_value_all[i]);
usleep(1000);
}
printf("\r\n");
SetMotorSpeed(MotorL, 30);
SetMotorSpeed(MotorR, -80);
Speed = GetMotorSpeed(MotorL);
printf("MotorL Speed : %d \r\n", Speed);
Speed = GetMotorSpeed(MotorR);
printf("MotorR Speed : %d \r\n", Speed);
Dir = GetMotorDir(MotorL);
printf("MotorL Dir : %d \r\n", Dir);
Dir = GetMotorDir(MotorR);
printf("MotorR Dir : %d \r\n\r\n", Dir);
usleep(50 * 1000);
BluetoothSend("Hello World\r\n",11);
}
cleanup_platform();
return 0;
}
int main()
{
init_platform();
// Declare some variables that we'll use later
int Status;
int timer_value;
int counter = 0;
// Declare two structs. One for the Timer instance, and
// the other for the timer's config information
XScuTimer my_Timer;
XScuTimer_Config *Timer_Config;
// Look up the the config information for the timer
Timer_Config = XScuTimer_LookupConfig(XPAR_PS7_SCUTIMER_0_DEVICE_ID);
// Initialise the timer using the config information
Status = XScuTimer_CfgInitialize(&my_Timer, Timer_Config, Timer_Config->BaseAddr);
// Load the timer with a value that represents one second
// The SCU Timer is clocked at half the freq of the CPU.
XScuTimer_LoadTimer(&my_Timer, XPAR_PS7_CORTEXA9_0_CPU_CLK_FREQ_HZ / 2);
// Start the timer running (it counts down)
XScuTimer_Start(&my_Timer);
// An infinite loop
while(1)
{
// Read the value of the timer
timer_value = XScuTimer_GetCounterValue(&my_Timer);
// If the timer has reached zero
if (timer_value == 0)
{
// Re-load the original value into the timer and re-start it
XScuTimer_RestartTimer(&my_Timer);
// Write something to the UART (and count the seconds)
printf("Timer has reached zero %d times\n\r", counter++);
}
else
{
// Show the value of the timer's counter value, for debugging purposes
//printf("Timer is still running (Timer value = %d)\n\r", timer_value);
}
}
cleanup_platform();
return 0;
}
int main(void)
{
Xil_ICacheEnable();
Xil_DCacheEnable();
DemoInitialize();
DemoRun();
cleanup_platform();
return 0;
}
int main()
{
// our variables that we will be using to read and write to our hardware register
int current_value;
int write_value = 123456789;
int read_value = 0;
init_platform();
printf("Application Loaded.\r\n\r\n\r\n");
printf("Getting current register value ... ");
// read out the current value from our peripheral, at register zero
current_value = SIMPLE_REGISTER_mReadReg(
SIMPLE_REGISTER_BASE_ADDRESS,
REGISTER_0
);
printf("Done.\r\n");
printf("Register value = %i\r\n\r\n",current_value);
printf("Writing %i to the hardware register ... ", write_value);
// write our value to our peripheral at register 0
SIMPLE_REGISTER_mWriteReg(
SIMPLE_REGISTER_BASE_ADDRESS,
REGISTER_0,
write_value
);
printf(" Done.\r\n");
printf("Reading register value ... ");
// read out the current value from our peripheral, at register zero
read_value = SIMPLE_REGISTER_mReadReg(
SIMPLE_REGISTER_BASE_ADDRESS,
REGISTER_0
);
printf("Done.\r\n");
printf("Register value = %i\r\n\r\n",read_value);
printf("Exiting Application, ta ta!\r\n");
cleanup_platform();
return 0;
}
int main()
{
init_platform();
print("Hello World\n\r");
int *hdList;
int i,j;
for(i =0; i < 21; i++){
SysAlloc_init();
int log2ListSize = i;
int *hdList = NULL;
putnum(log2ListSize);
print(" ");
XIo_Out32(COUNTER_BASE + 4 * 1, START);
hdList = RandListGen(log2ListSize, hdList);
XIo_Out32(COUNTER_BASE + 4 * 1, STOP);
XIo_Out32(COUNTER_BASE + 4 * 2, START);
hdList = ReverseList(hdList);
XIo_Out32(COUNTER_BASE + 4 * 2, STOP);
XIo_Out32(COUNTER_BASE + 4 * 3, START);
hdList = DeleteList(hdList);
XIo_Out32(COUNTER_BASE + 4 * 3, STOP);
for(j = 1; j <4; j++){
// read counter result back
int high_value = XIo_In32(COUNTER_BASE + 4 * (j + 8));
if(high_value != 0){
putnum(high_value);
}
putnum(XIo_In32(COUNTER_BASE + 4 * j));
print(" ");
// reset counter
XIo_Out32(COUNTER_BASE + 4 * j,RESET);
}
print("\n");
}
print("\n all done\n");
cleanup_platform();
return 0;
}
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()
{
init_platform();
printf("status => ");
printf("done: %u ",XEncrypt_IsDone());
printf("idle: %u\n",XEncrypt_IsIdle());
int i,j;
for(i=0; i<4; i++) {
for(j=0; j<4; j++) {
microblaze_bwrite_datafsl(PlainText[i][j], 0) ;
microblaze_bwrite_datafsl(Key[i][j], 1) ;
}
}
printf("wrote data\n");
unsigned CipherText[4][4];
XEncrypt_Start();
unsigned val;
for(i=0; i<4; i++) {
for(j=0; j<4; j++) {
microblaze_bread_datafsl(val, 2) ;
CipherText[i][j] = val;
}
}
printf("status => ");
printf("done: %u ",XEncrypt_IsDone());
printf("idle: %u\n",XEncrypt_IsIdle());
//check
int errors = 0;
for(i=0; i<4; i++) {
for(j=0; j<4; j++) {
if(CipherText[i][j] != GoldenCipherText[i][j]) {
printf("Error! Calculated key does NOT match golden key at index: [%d][%d] !!!\n",i,j);
errors++;
}
}
}
printf("-- CipherText Check Completed - Found %d errors.\n",errors);
print("Hello World\n\r");
cleanup_platform();
return 0;
}
int main()
{
XCsuDma_Config *Config;
s32 Status;
u32 Index;
u8 EncData[XSECURE_DATA_SIZE + XSECURE_SECURE_GCM_TAG_SIZE]__attribute__ ((aligned (64)));
init_platform();
print("Adiuvo Engineering & Training AES CSU Example \n\r");
Config = XCsuDma_LookupConfig(XSECURE_CSUDMA_DEVICEID);
if (NULL == Config) {
return XST_FAILURE;
}
Status = XCsuDma_CfgInitialize(&CsuDma, Config, Config->BaseAddress);
if (Status != XST_SUCCESS) {
return XST_FAILURE;
}
XSecure_AesInitialize(&Secure_Aes, &CsuDma,
XSECURE_CSU_AES_KEY_SRC_KUP,
(u32 *)Iv, (u32 *)Key);
xil_printf("Data to be encrypted: \n\r");
for (Index = 0; Index < XSECURE_DATA_SIZE; Index++) {
xil_printf("%02x", Data[Index]);
}
xil_printf( "\r\n\n");
XSecure_AesEncryptInit(&Secure_Aes, EncData, XSECURE_DATA_SIZE);
XSecure_AesEncryptUpdate(&Secure_Aes, Data, XSECURE_DATA_SIZE);
xil_printf("Encrypted data: \n\r");
for (Index = 0; Index < XSECURE_DATA_SIZE; Index++) {
xil_printf("%02x", EncData[Index]);
}
xil_printf( "\r\n");
xil_printf("GCM tag: \n\r");
for (Index = 0; Index < XSECURE_SECURE_GCM_TAG_SIZE; Index++) {
xil_printf("%02x", EncData[XSECURE_DATA_SIZE + Index]);
}
xil_printf( "\r\n\n");
cleanup_platform();
return 0;
}
int main()
{
xil_printf("Program Started\n\r");
init_platform();
init_spi(&SpiInstance);
init_gpio(&GpioInstance);
u8 LED_data = 0x1;
XGpio_DiscreteWrite(&GpioInstance, LED_CHANNEL, LED_data);
xil_printf("Tests started.\n\r");
LED_data |= 0x1<<1;
XGpio_DiscreteWrite(&GpioInstance, LED_CHANNEL, LED_data);
// Test for proper initial read/write
int addr = 0;
int value = 10;
spi_write(&SpiInstance, addr, value);
u8 res = spi_read(&SpiInstance, addr);
xil_printf("Wrote to %X. %d transmitted. %d read back. The send and received values should match.\n\r", addr, value, res);
// Test for proper overwriting of same address with new value
value = 16;
spi_write(&SpiInstance, addr, value);
res = spi_read(&SpiInstance, addr);
xil_printf("Wrote to %X again. %d transmitted. %d read back. The received value should be updated to the new sent value.\n\r", addr, value, res);
// Test for making sure multiple addresses work
addr = 1;
value = 20;
spi_write(&SpiInstance, addr, value);
res = spi_read(&SpiInstance, addr);
xil_printf("Wrote to %X. %d transmitted. %d read back. The new address should function as well as the old one.\n\r", addr, value, res);
// Test to make sure every address works
xil_printf("Writing and reading to all 32 memory addresses:\r\n(sent and received values should match, value + address should sum to 32)\n\r");
int i;
for (i = 0; i < 32; ++i){
addr = i;
value = 32 - i;
spi_write(&SpiInstance, addr, value);
res = spi_read(&SpiInstance, addr);
xil_printf("Wrote to %X. %d transmitted. %d read back.\n\r", addr, value, res);
}
LED_data |= 0x1<<2;
xil_printf("Tests complete. Please review results.\n\r");
XGpio_DiscreteWrite(&GpioInstance, LED_CHANNEL, LED_data);
LED_data |= 0x1<<3;
XGpio_DiscreteWrite(&GpioInstance, LED_CHANNEL, LED_data);
cleanup_platform();
return 0;
}
int main()
{
int bufId = 0;
init_platform();
printf("Hello World\n\r");
if(i2c_init_clk() != XST_SUCCESS)
return -1;
while(1);
cleanup_platform();
return 0;
}
int main()
{
u32 uDevId = XPAR_IOMODULE_0_DEVICE_ID;
XIOModule mcsIOMdule;
init_platform();
//MicroBlaze MCS IOModule Initialize
XIOModule_Initialize(&mcsIOMdule, uDevId);
//set GPO1
XIOModule_DiscreteWrite(&mcsIOMdule, 1,2);
//UART
print("Hello World\n\r");
cleanup_platform();
return 0;
}
int main()
{
RESULT * rs;
int * iptr1, * iptr2;
int i, j;
int len1, len2;
init_platform();
print("\n\r************"); xil_printf("%s %s", __DATE__, __TIME__); print("************\n\r");
microblaze_disable_interrupts();
len1 = 0;
len2 = 0;
len1 = len1 / 4 + 1;
len2 = len2 / 4 + 1;
iptr1 = (int *)DDR2;
iptr2 = iptr1 + len1 + 10;
iptr3 = iptr2 + len2 + 10;
tmp = 0;
items = 0;
running = 1;
i = j = 0;
while(i<len1 || j<len2)
{
if(i < len1) { putfsl_interruptible(iptr1[i++], 0);}
if(j < len2) { putfsl_interruptible(iptr2[j++], 1);}
if(running == 0) break;
}
while(tmp < items)
{
bsw_0_has_data_handler();
}
rs = (RESULT *) iptr3;
for(i=0; i<(items>>1); i++)
{
xil_printf("%d[%d, %d] \r\n", rs[i].score, rs[i].phase, rs[i].index);
}
print("\n\r************ END ************\n\r");
cleanup_platform();
return 0;
}
int main()
{
init_platform();
init_ddr();
print("Hello World\n\r");
int log2ListSize;
XClistnew myIP;
int list_set_up;
int i;
for(i = 0; i < 21; i++){
log2ListSize = i;
list_set_up = XClistnew_Initialize(&myIP, XPAR_CLISTNEW_0_DEVICE_ID);
list_set_up = XClistnew_IsReady(&myIP);
Xil_Out32(LIST_BASE + 0x20, log2ListSize);
// start list IP
XClistnew_Start(&myIP);
// check if list IP is done
int flag_done = 0;
flag_done = XClistnew_IsDone(&myIP);
while(flag_done != 1){
flag_done = XClistnew_IsDone(&myIP);
}
// read counter result back
putnum(Xil_In32(COUNTER_BASE + 4 * 1));
print(" ");
putnum(Xil_In32(COUNTER_BASE + 4 * 2));
print(" ");
putnum(Xil_In32(COUNTER_BASE + 4 * 3));
print("\n");
// reset counter
Xil_Out32(COUNTER_BASE + 4 * 1,RESET);
Xil_Out32(COUNTER_BASE + 4 * 2,RESET);
Xil_Out32(COUNTER_BASE + 4 * 3,RESET);
}
print("\n all done\n");
cleanup_platform();
return 0;
}