int main()
{
int i;
unsigned long sw_time_1, sw_time_2;
//enable the temperature sensor
temp_sensor_init();
//enable uCProbe communication
ProbeCom_Init();
ProbeRS232_Init(0);
ProbeRS232_RxIntEn();
// turn off the LEDS
IOWR(LED_PIO_BASE,0,0xFF);
printf("BeMicro SDK Lab1: \n");
printf("-----------------\n\n");
// Create the input data waveform
printf("Creating buffer source data\n\n");
for(i = 0; i < DATA_BUFFER_SIZE; i++)
{
source_databuffer[i] = input_data[i%INPUT_LENGTH];
}
// record the value of the high resolution time-stamp timer at the entry and exit points of the software filter
if(alt_timestamp_start() < 0)
{
printf("Please add the high resolution timer to the timestamp timer setting in the syslib properties page.\n");
return 0;
}
printf("Software filter is operating (please be patient)\n");
sw_time_1 = alt_timestamp();
FIR_SW(source_databuffer,
DATA_BUFFER_SIZE,
sw_destination_databuffer,
T,
coefficients[0],
coefficients[1],
coefficients[2],
coefficients[3],
coefficients[4],
coefficients[5],
coefficients[6],
coefficients[7],
DIVIDER_ORDER);
sw_time_2 = alt_timestamp();
printf("Software filter is done\n\n");
sw_proc_time = ((double)(sw_time_2-sw_time_1))/((double)alt_timestamp_freq());
printf("Software processing time was: %f seconds\n\n", sw_proc_time);
printf("Processing time will also be reported by uC-Probe:\n");
return 1;
}
void DYNAMIC_UTI(void* pdata)
{
INT8U err_tmr, err_tmr_start, i, err;
int j, switch_status;
Sem_DYNAMIC_UTI = OSSemCreate(0);
printf("DYNAMIC_UTI Task created!\n");
SWTimer_DYNAMIC_UTI = OSTmrCreate(0, DYNAMIC_UTI_PERIOD, OS_TMR_OPT_PERIODIC , Tmr_Callback_DYNAMIC_UTI_Task, (void *)0,"DYNAMIC_UTI",&err_tmr);
if(err_tmr == OS_ERR_NONE){
OSTmrStart(SWTimer_DYNAMIC_UTI, &err_tmr_start);
if(DEBUG)
printf("Timer for DYNAMIC_UTI is created and Started \n");
}
else {
printf("Error while creating DYNAMIC_UTI task timer \n");
}
while(1)
{
switch_status = switches_pressed();
switch_status = switch_status & 1008; // Mask for SW4 - SW9
switch_status = switch_status >> 4;
printf("Before loop : Time : %d, SwitchStatus : %d \n", alt_timestamp() / (alt_timestamp_freq()/1000), switch_status);
//printf("switch_status : %d\n",switch_status);
if(switch_status > 50)
switch_status = 50;
// Loop running for 6 unit of time
// for Optimization Level Os : j = 4600000 ;
// for No Optimization : j = 3444
for(i=0; i<switch_status; i++){
for(j=0; j<4600000; j++){
}
}
printf("After loop : Time : %d \n", alt_timestamp() / (alt_timestamp_freq()/1000));
OSSemPend(Sem_DYNAMIC_UTI, 0, &err);
if(err == OS_ERR_NONE)
{
}
else {
printf("Sem_DYNAMIC_UTI Pend Error ------ \n");
}
}
}
int main(void){
//func1();
//Comment top and uncomment this from altera
alt_u32 time1;
alt_u32 time2;
alt_u32 time3;
int tamfiltro=5,modo=0,w,h,j;
unsigned char** matriz;
unsigned char** newmatriz;
int filtro[24];
int ow,oh;
matriz=pgmread(filename,&h,&w);
if (tamfiltro > 0){
rellenar_filtro(filtro,tamfiltro,modo);
ow=w-(tamfiltro-1);
oh=h-(tamfiltro-1);
newmatriz = calloc(ow, sizeof(unsigned char*));
for (j=0;j<ow;j++){
if (( newmatriz[j] = calloc(oh, sizeof(unsigned char))) == NULL){
printf("Memory allocation error. Exit program\n");
exit(1);
}
}
printf("I ended creating the row %d \n", j);
}
if (alt_timestamp_start() < 0)
{
printf ("No timestamp device available\n");
}
else
{
time1 = alt_timestamp();
aplicarfiltro(matriz,filtro,newmatriz,ow,oh,tamfiltro);
time2 = alt_timestamp();
//func2(); /* second function to monitor */
//time3 = alt_timestamp();
printf ("time in func1 = %u ticks\n", (unsigned int) (time2 - time1));
pgmwrite(outname,ow,oh,newmatriz,"",1);
pritnf("Image created successfully\n");
/*printf ("time in func2 = %u ticks\n",
(unsigned int) (time3 - time2));
printf ("Number of ticks per second = %u\n",
(unsigned int)alt_timestamp_freq());
}*/
return 0;
}
}
alt_u32 millis(){
#ifdef DEBUG
//printf("Current System Time: %i \n", alt_timestamp());
#endif
return (alt_timestamp()/TicksPerSecond)*1000;
}
int time_audio(unsigned int **arr)
{
double timer,freq,total;
int f = alt_timestamp_start();
play_wav(arr);
timer = alt_timestamp();
freq = alt_timestamp_freq();
total = (int)((timer * 1000)/freq);
return total;
}
//Increments to next players turn
void setPlayerTurn() {
alt_timestamp_start();
start_time = (float) alt_timestamp() / (float) alt_timestamp_freq();
int playerStatus;
do {
turn = (turn + 1) % numPlayers;
playerStatus = p[turn].alive;
} while (playerStatus == DEAD);
printf("turn %i\n", turn);
p[turn].gas = 100;
}
/*
* This is the wrapper for the task that executes rendundantly on both cores
* There is one VERY important thing to note. When the critical task begins executing
* the value of the stack pointer MUST be the same on both cores. This means that
* the wrapper must have the same number of variables declared within its scope (i.e.
* onto its stack) before calling the critical task (pt() in this example)
*/
void preemption_task(void* pdata){
int done = 0;
int first = 0;
int t_os;
CriticalFunctionPointers* cp =
(CriticalFunctionPointers*) SHARED_MEMORY_BASE;
pt = cp->task[1];
while(1){
// Get initial time, then wait for 2 ticks
t_os = OSTimeGet();
OSTimeDly(2 - t_os);
//This is a crude way of synchronizing the beginning of the task
//on both cores
while (done == 0) {
altera_avalon_mutex_lock(mutex, 1); //Acquire the hardware mutex
{
if(first == 0){
cp->checkout[1] = 1;
first = 1;
}
if( cp->checkout[0] == 1){
cp->checkout[0] = 0;
done = 1;
}
}
altera_avalon_mutex_unlock(mutex);
}
// Set default block size for fingerprinting
fprint_set_block_size(cp->blocksize[1]);
//Context switch is necessary to clear the callee saved registers
long registers[8];
context_switch(registers);
//Set the global pointer in case of compilation issues related
//to global variables
set_gp();
//call the critical task
pt(cp->args[1]);
//restore the original global pointer
restore_gp();
//Restore the callee saved registers
context_restore(registers);
//Get the end time
alt_u64 t = alt_timestamp();
//store the end time
cp->core_time[1] = t;
}
}
int main(void){
//IOWR_32DIRECT(0x00800000, OFFSET*i, 1); //Direccion base de la memoria, desplazamiento y dato a escribir
//IORD_32DIRECT(0x00000000, 0); //Direccion base de la memoria y desplazamiento (lectura)
int pruebas=200;
alt_u32 time1;
alt_u32 time2;
alt_u32 time3;
alt_u32 time4;
alt_u32 time5;
alt_u32 time6;
int i=0, j=0;
alt_u8 OFFSET=sizeof(int);
alt_u8 DESPI=0, DESPJ=0;
if (alt_timestamp_start() < 0)
{
printf ("No timestamp device available\n");
}
else
{
time1 = alt_timestamp();
//Podemos hacerlo asi o con puntero
for(i=0; i<pruebas; i++){ //SRAM
IOWR_32DIRECT(0x01000000, DESPI, 1); //Direccion base de la memoria, desplazamiento y dato a escribir
DESPI+=OFFSET;
}
time2 = alt_timestamp();
for(j=0; j<pruebas; j++){ //SDRAM
IOWR_32DIRECT(0x00100000, DESPJ, 1); //Direccion base de la memoria, desplazamiento y dato a escribir
DESPJ+=OFFSET;
}
time3 = alt_timestamp();
DESPI=0;
DESPJ=0;
printf ("time in write SDRAM = %u ticks\n", (unsigned int) (time2 - time1));
printf ("time in write SRAM = %u ticks\n", (unsigned int) (time3 - time2));
//LECTURA
time4 = alt_timestamp();
for(i=0; i<pruebas; i++){
IORD_32DIRECT(0x01000000, DESPI); //Direccion base de la memoria, desplazamiento y dato a escribir
DESPI+=OFFSET;
}
time5 = alt_timestamp();
for(j=0; j<pruebas; j++){
IORD_32DIRECT(0x00100000, DESPJ); //Direccion base de la memoria, desplazamiento y dato a escribir
DESPJ+=OFFSET;
}
time6 = alt_timestamp();
printf ("time in read SDRAM = %u ticks\n", (unsigned int) (time5 - time4));
printf ("time in read SRAM = %u ticks\n", (unsigned int) (time6 - time5));
}
return 0;
}
void usb_initialization(){
printf("USB Initialization\n");
alt_up_usb_dev * usb_dev;
usb_dev = alt_up_usb_open_dev(USB_0_NAME);
assert(usb_dev);
usb_device_init(usb_dev, USB_0_IRQ);
printf("Polling USB device. Run middleman now!\n");
alt_timestamp_start();
int clocks = 0;
while (clocks < 50000000 * 10) {
clocks = alt_timestamp();
usb_device_poll();
}
printf("Done polling USB\n");
}
int main(void) {
// Start the timestamp -- will be used for seeding the random number generator.
alt_timestamp_start();
sdcard_handle *sd_dev = init_sdcard();
initAudio();
loadMusic("Title2.wav", 1, 0.25);
// Set latch and clock to 0.
IOWR_8DIRECT(controller_out, 0, 0x00);
init_display();
clear_display();
if (sd_dev == NULL)
return 1;
printf("Card connected.\n");
ticks_per_sec = alt_ticks_per_second();
seed(alt_timestamp());
alt_u32 tickCount = alt_nticks();
num_ticks = ticks_per_sec / 60;
//alt_alarm *update_alarm = malloc(sizeof(alt_alarm));
//alt_alarm_start(update_alarm, num_ticks, update, (void*)0);
while (true)
{
if (alt_nticks() - tickCount >= num_ticks)
{
tickCount = alt_nticks();
update(0);
}
}
return 0;
}
int main(void) {
/* Related object data */
system_t* system;
player_t* player1;
player_t* player2;
alt_timestamp_start();
int start_time = alt_timestamp();
int wind;
int restart = 0;
/* initialize all hardware dev */
system = system_init(VIDEO_PIXEL_BUFFER_DMA_NAME,
"/dev/video_character_buffer_with_dma_0",
ALTERA_UP_SD_CARD_AVALON_INTERFACE_0_NAME, PS2_0_NAME);
if (!alt_up_sd_card_is_Present()) {
printf("SD card not present\n");
return -2;
} else {
printf("SD card detected.\n");
}
if (!alt_up_sd_card_is_FAT16()) {
printf("SD card is not FAT16.\n");
return -3;
} else {
printf("SD card is FAT 16.\n");
}
fireSound = initSoundbank("shotgun.wav");
explosionSound = initSoundbank("big_bomb.wav");
printf("Done Initializing\n");
int end_time = alt_timestamp();
srand(end_time - start_time);
clearScreen(system);
printf("Press enter to start game");
restartGame(system);
while (restart == 1) {
/* initialize required objects */
player1 = makePlayer(1, "Lomash");
player2 = makePlayer(2, "TJ");
/*
* Draw the screen for the first time.
*/
store_background_data();
draw_background(system);
drawPlayers(system);
draw_ground(system);
draw_windbox(system);
draw_player1GUI(system);
draw_player2GUI(system);
update_wind(system, wind);
draw_health(player1, system);
draw_health(player2, system);
update_power(player1, system);
update_power(player2, system);
usleep(2000000); // sleep to wait for video buffer to load
while (TRUE) {
printf(
"\n\n\n\n===========================================================\n");
printf("Player 1 Health = %d \t\t Player 2 Health = %d\n",
player1->health, player2->health);
wind = rand() % 11 - 5;
draw_windbox(system);
update_wind(system, wind);
// Player 1's turn
player_1_jump(system);
player_1_jump(system);
printf("Getting Player 1 Power.\n");
getKeyboardInput(1, player1, system); // Power
skipOneEnter(system);
printf("Getting Player 1 Angle.\n");
getKeyboardInput(2, player1, system); // Angle
// Player 1 Animation
printf("Starting animation\n");
clear_angle_drawer(system);
animate_cannon1(system);
playSound(fireSound, system->audio);
switch (animateShooting(system, player1, wind)) { // different value for result
case 1: {
update_health(player2, system, -DAMAGE);
printf(
"Player 1 hit player 2.\n Remaining Health for Player 2: %d\n",
player2->health);
break;
}
case 2: {
update_health(player1, system, -DAMAGE);
printf(
"Player 1 hit player 1.\n Remaining Health for Player 1: %d\n",
player1->health);
break;
}
default: {
break;
}
}
printf("Ended animation\n");
// Post-animation Calculation
if (player1->health <= 0 || player2->health <= 0) {
break;
}
// Player 2's turn
wind = rand() % 11 - 5;
draw_windbox(system);
update_wind(system, wind);
player_2_jump(system);
player_2_jump(system);
printf("Getting Player 2 Velocity.\n");
getKeyboardInput(1, player2, system);
// Player 2 Angle-Selection
skipOneEnter(system);
printf("Getting Player 2 Angle.\n");
getKeyboardInput(2, player2, system);
// Player 2 Animation
printf("Starting animation\n");
clear_angle_drawer(system);
animate_cannon2(system);
playSound(fireSound, system->audio);
// Post-animation Calculation
switch (animateShooting(system, player2, wind)) { // different value for result
case 1: {
update_health(player1, system, -DAMAGE);
printf(
"Player 2 hit player 1.\n Remaining Health for Player 1: %d\n",
player1->health);
break;
}
case 2: {
update_health(player2, system, -DAMAGE);
printf(
"Player 2 hit player 2.\n Remaining Health for Player 2: %d\n",
player2->health);
break;
}
default: {
break;
}
}
if (player1->health <= 0 || player2->health <= 0) {
break;
}
};
/*
* Find out who won.
*/
if (player1->health <= 0) {
printf("Player 2 Wins!!! \n");
draw_P2WIN(system);
} else if (player2->health <= 0) {
printf("Player 1 Wins!!!\n");
draw_P1WIN(system);
} else {
printf("we shouldn't be here.\n");
}
restart = restartGame(system);
}
return 0; // FIN
}
// Test code from lab
void timer_test(void) {
int freq;
int cycles;
float duration;
int ticks_start;
int ticks_end;
int ticks_per_s;
int ticks_duration;
int timer_period;
int status;
int done;
printf("Timers\n");
printf(" Sys Clock Timer\n");
ticks_per_s = alt_ticks_per_second();
printf("Tick Freq: %d\n", ticks_per_s);
printf(" Recording starting ticks\n");
ticks_start = alt_nticks();
printf(" Sleeping for 5 seconds\n");
usleep(5000000);
printf(" Recording ending ticks\n");
ticks_end = alt_nticks();
ticks_duration = ticks_end -ticks_start;
duration = (float) ticks_duration / (float) ticks_per_s;
printf(" The program slept for %d ticks (%f seconds)\n\n", ticks_duration,
duration);
printf(" Timestamp Timer\n");
freq = alt_timestamp_freq();
printf(" CPU Freq: %d\n", freq);
printf(" Resetting Timestamp timer\n");
alt_timestamp_start();
printf(" ...Timing the print of this statement...\n");
cycles = alt_timestamp();
duration = (float) cycles / (float) freq;
printf(" It took %d cycles (%f seconds) to print the statement\n\n",
cycles, duration);
printf(" Hardware-Only Timer\n");
printf(" Setting timer period to 5 seconds.\n");
timer_period = 5 * CLOCK_FREQ;
// Setting the period registers must be done in 2 steps as they are only 16 bits wide
IOWR_16DIRECT(MY_HW_ONLY_TIMER_BASE, 8, timer_period & 0xFFFF); // less significant word
IOWR_16DIRECT(MY_HW_ONLY_TIMER_BASE,12, timer_period >> 16); // more significant word
printf(" Stopping Timer\n");
status = IORD_16DIRECT(MY_HW_ONLY_TIMER_BASE, 0); // read status registers
// Write the control registers
if(status & 0x2) {
IOWR_16DIRECT(MY_HW_ONLY_TIMER_BASE, 4, 1 << 3); // stop the timer if it was started
}
printf(" Starting Timer\n");
IOWR_16DIRECT(MY_HW_ONLY_TIMER_BASE, 4, 1 << 2); // start the timer
printf(" Waiting for timer to expire...\n");
done = 0;
while(! done) {
status = IORD_16DIRECT(MY_HW_ONLY_TIMER_BASE, 0); // read status registers
done = status & 0x1;
}
printf(" 5 seconds timer is done\n");
}
void SensorDataManagerTask(void* pdata){
int8_t cnt = 0;
int16_t rawData[9];
int8_t err = NO_ERR;
INT8U os_err = OS_ERR_NONE;
//start
uint32_t start = alt_timestamp();
uint32_t stop = 0;
if (alt_timestamp() == 0 && alt_timestamp_start() < 0)
{
printf("ERROR starting timer");
}
while(1){
//Semaphore for periodic task
OSSemPend(sensorDataManageTaskSem, 0, &os_err);
start = alt_timestamp();
err = readSensorData(rawData); //get newRawData
acclX[cnt] = rawData[0]; //fill arrays with new raw data
acclY[cnt] = rawData[1];
acclZ[cnt] = rawData[2];
gyroX[cnt] = rawData[3] - gyroOffsets[0]; //sensor Offsets are only available for gyrodata
gyroY[cnt] = rawData[4] - gyroOffsets[1];
gyroZ[cnt] = rawData[5] - gyroOffsets[2];
compX[cnt] = rawData[6];
compY[cnt] = rawData[7];
compZ[cnt] = rawData[8];
cnt++;
if(cnt>=20){
err = avgAllArrays();
//measure sensor sampling time
stop = alt_timestamp();
averagedDataDeltaT = (stop - start) / 50; //*1000/alt_ticks_per_second(); //calculate the time needed to get all sensordata in system Ticks/ micro seconds
if (alt_timestamp() == 0 && alt_timestamp_start() < 0)
{
printf("ERROR starting timer");
}
SDM_NEW_DATA_AVAILABLE = 1; //new data is available
}
cnt = cnt % VALUE_NUM; //cnt goes from 0 to VALUE_NUM and then starts with 0 again
OSTimeDlyHMSM(0, 0, 0, 10); //uncomment if sensordata reading is to fast for the i2c interface -> set delay to appropriate value
}
}
void WatchDog(void* pdata)
{
INT8U err;
printf("WatchDog Task created! : Ticks : %d\n",(int) alt_timestamp_freq() );
Sem_WDT_Signal = OSSemCreate(0);
while(1)
{
OSSemPend(Sem_WDT_Signal, WatchDog_PERIOD, &err);
if(err == OS_ERR_NONE){
//if(DEBUG_OLD)
//printf(" OK \n");
}
else {
//printf("Pend Error\n");
if(err == OS_ERR_TIMEOUT)
printf("------ Watchdog Timer ALERT : Over Load Detected ------- : %d \n",(int) (alt_timestamp() / (alt_timestamp_freq()/1000)));
if(err == OS_ERR_PEND_LOCKED)
printf("SEM got LOCKED \n\n");
}
}
}
/*
* The task 'VehicleTask' updates the current velocity of the vehicle
*/
void VehicleTask(void* pdata)
{
INT8U err, err_tmr_1, err_tmr_start, err_sem;
void* msg;
INT8U* throttle;
INT8S acceleration; /* Value between 40 and -20 (4.0 m/s^2 and -2.0 m/s^2) */
INT8S retardation; /* Value between 20 and -10 (2.0 m/s^2 and -1.0 m/s^2) */
INT16U position = 0; /* Value between 0 and 20000 (0.0 m and 2000.0 m) */
INT16S wind_factor; /* Value between -10 and 20 (2.0 m/s^2 and -1.0 m/s^2) */
Sem_VehicleTask = OSSemCreate(0);
//OSSemPend(Sem_VehicleTask,0,&err_sem);
printf("Vehicle task created!\n");
SWTimer_VehicleTask = OSTmrCreate(0, VEHICLE_PERIOD, OS_TMR_OPT_PERIODIC, Tmr_Callback_Vehicle_Task, (void *)0,"S/W Timer 2",&err_tmr_1);
if(err_tmr_1 == OS_ERR_NONE){
if(DEBUG)
printf("Timer for VECHICLE TASK is created\n");
OSTmrStart(SWTimer_VehicleTask, &err_tmr_start);
if(err_tmr_start == OS_ERR_NONE){
if(DEBUG)
printf("Timer started in VEHICLE TASK \n");
}
else {
printf("Problem starting timer in VEHICLE TASK \n");
}
}
else {
printf("Error while creating Vehicle task timer \n");
if(err_tmr_1 == OS_ERR_TMR_INVALID_DLY)
printf(" Delay INVALID : VEHICLE TASK\n");
}
while(1)
{
// Wait for user inputs
OSSemPend(Sem_SwitchIO_IP , 0, &err_sem);
OSSemPend(Sem_ButtonIO_IP, 0, &err_sem);
if((brake_pedal == on) && (CUR_VELOCITY > 0)){
CUR_VELOCITY = CUR_VELOCITY - 10;
// if(CUR_VELOCITY < -200) // Max value for velocity
//CUR_VELOCITY = -200;
if(DEBUG_IO)
printf("********** Brake brake_pedal : %d ********** \n", CUR_VELOCITY);
}
err = OSMboxPost(Mbox_Velocity, (void *) &CUR_VELOCITY);
if(DEBUG)
printf("Vehicle task Posted MBoxPost_Velocity \n");
if(DEBUG)
printf("SEM ACCESS VEHICLE TASK\n\n");
OSSemPend(Sem_VehicleTask,0,&err_sem);
/* Non-blocking read of mailbox:
- message in mailbox: update throttle
- no message: use old throttle
*/
if(DEBUG)
printf("Vehicle task waiting for MBoxPost_Throttle for 1 unit time \n");
msg = OSMboxPend(Mbox_Throttle, 1, &err);
if (err == OS_NO_ERR)
throttle = (INT8U*) msg;
if(DEBUG)
printf("Vehicle task GOT MBoxPost_Throttle \n");
/* Retardation : Factor of Terrain and Wind Resistance */
if (CUR_VELOCITY > 0)
wind_factor = CUR_VELOCITY * CUR_VELOCITY / 10000 + 1;
else
wind_factor = (-1) * CUR_VELOCITY * CUR_VELOCITY / 10000 + 1;
if (position < 4000)
retardation = wind_factor; // even ground
else if (position < 8000)
retardation = wind_factor + 15; // traveling uphill
else if (position < 12000)
retardation = wind_factor + 25; // traveling steep uphill
else if (position < 16000)
retardation = wind_factor; // even ground
else if (position < 20000)
retardation = wind_factor - 10; //traveling downhill
else
retardation = wind_factor - 5 ; // traveling steep downhill
acceleration = *throttle / 2 - retardation;
position = adjust_position(position, CUR_VELOCITY, acceleration, 300);
CUR_VELOCITY = adjust_velocity(CUR_VELOCITY, acceleration, brake_pedal, 300);
printf("Position: %dm\n", position / 10);
printf("Velocity: %4.1fm/s\n", CUR_VELOCITY /10.0);
printf("Throttle: %dV Time : %d \n\n", *throttle / 10, (int) (alt_timestamp() / (alt_timestamp_freq()/1000)));
alt_timestamp_start();
/*
INT32U stk_size;
err = OSTaskStkChk(16, &stk_data);
stk_size = stk_data.OSUsed;
printf("Stack Used OverLoadDetection : %d \n", stk_size);
err = OSTaskStkChk(14, &stk_data);
stk_size = stk_data.OSUsed;
printf("Stack Used DYNAMIV_UTI : %d \n", stk_size);
err = OSTaskStkChk(12, &stk_data);
stk_size = stk_data.OSUsed;
printf("Stack Used CONTROLTASK: %d \n", stk_size);
err = OSTaskStkChk(10, &stk_data);
stk_size = stk_data.OSUsed;
printf("Stack Used VehicleTask: %d \n", stk_size);
err = OSTaskStkChk(8, &stk_data);
stk_size = stk_data.OSUsed;
printf("Stack Used SwitchIO: %d \n", stk_size);
err = OSTaskStkChk(7, &stk_data);
stk_size = stk_data.OSUsed;
printf("Stack Used ButtonIO: %d \n", stk_size);
err = OSTaskStkChk(6, &stk_data);
stk_size = stk_data.OSUsed;
printf("Stack Used WatchDog: %d \n", stk_size);
err = OSTaskStkChk(5, &stk_data);
stk_size = stk_data.OSUsed;
printf("Stack Used Start Task: %d \n", stk_size);
*/
show_velocity_on_sevenseg((INT8S) (CUR_VELOCITY / 10));
show_active_signals();
show_position(position);
// OSSemPend(Sem_VehicleTask,0,&err_sem);
}
}
int main()
{
char readBuffer[READ_BUFFER_SIZE];
int numRead = 0;
alt_16 gyroAccelDATAToSend[NUM_SENSOR_VALUES*20] = {0};
int wantData = 0;
//The time when we begin collecting the line
alt_timestamp_type kalmanBeginTime;
//The time when the line has been collected
alt_timestamp_type kalmanEndTime;
int numSend;
int i;
//Holds the timestamp that we send over
float times[NUM_SENSOR_VALUES];
//Number of bytes that we sent over
//The bluetooth file descriptor
int fd;
// File poiner to uart_0 phjones added
FILE *fp;
// Open file for read and write
fp = fopen("/dev/uart_0", "r+");
/*-------------------------------------------
Set input to be nonblocking
-------------------------------------------*/
fd = fileno(fp);
fcntl(fd, F_SETFL, O_NONBLOCK);
//If the file could be opened print opened as well as the file descriptor
if (fd != 0) {
printf("new main opened file!=%d\n\r", fd);
}
//Otherwise it was not able to be opend
else {
printf("NOT opened :-( \n\r");
}
//Start the timestamp
alt_timestamp_start();
if (alt_timestamp_start() < 0) {
printf("No timestamp device available\n");
}
for(i = 0; i < 2000; i++){
gyroAccelDATAToSend[i] = i;
}
while(1){
while (wantData == 0) {
/*-------------------------------------------
Nonblocking read: returns 0 if nothing there
-------------------------------------------*/
numRead = read(fd, readBuffer, READ_BUFFER_SIZE - 1);
//If something is read
if (numRead > 0) {
//Print out what was read, if it was an a set wantData to true
//so we leave this while loop
printf("Read %c", readBuffer[0]);
if (readBuffer[0] == 'a') {
printf("Read a\n");
wantData = 1;
}
}
}
//Gather the data for NUM_SENSOR_VALUES times
for (i = 0; i < NUM_SENSOR_VALUES; i++) {
//printf("%d\n", currentHeliState.gyroX);
//Set the timestamp to 0
kalmanBeginTime = alt_timestamp_start();
//If the timestamp is not available print this out
if (kalmanBeginTime < 0) {
printf("No timestamp device available\n");
}
//Set the timestamp to 0
//kalmanBeginTime = alt_timestamp_start();
//If the timestamp is not available print this out
//if (kalmanBeginTime < 0) {
// printf("No timestamp device available\n");
//}
/*-------------------------------------------
Get IMU data
-------------------------------------------*/
readUsefulIMU(); // phjones removed LWMULKEY ADDED
/*-------------------------------------------
Load the IMU data into the buffer to be sent
away from board.
-------------------------------------------*/
usleep(1000);
gyroAccelDATAToSend[1 + i * 10] = currentHeliState.gyroX;
gyroAccelDATAToSend[2 + i * 10] = currentHeliState.gyroY;
gyroAccelDATAToSend[3 + i * 10] = currentHeliState.gyroZ;
gyroAccelDATAToSend[4 + i * 10] = currentHeliState.accelX;
gyroAccelDATAToSend[5 + i * 10] = currentHeliState.accelY;
gyroAccelDATAToSend[6 + i * 10] = currentHeliState.accelZ;
gyroAccelDATAToSend[7 + i * 10] = currentHeliState.magX;
gyroAccelDATAToSend[8 + i * 10] = currentHeliState.magY;
gyroAccelDATAToSend[9 + i * 10] = currentHeliState.magZ;
/** This is for testing purposes
gyroAccelDATAToSend[1 + i * 10] = i;
gyroAccelDATAToSend[2 + i * 10] = i;
gyroAccelDATAToSend[3system library properties + i * 10] = i;
gyroAccelDATAToSend[4 + i * 10] = i;
gyroAccelDATAToSend[5 + i * 10] = i;
gyroAccelDATAToSend[6 + i * 10] = i;
gyroAccelDATAToSend[7 + i * 10] = i;
gyroAccelDATAToSend[8 + i * 10] = i;
gyroAccelDATAToSend[9 + i * 10] = i;**/
//End the timestamp to get the end time
//kalmanEndTime = alt_timestamp();
//The timestamp is taken in ms
//my_stamp = ((kalmanEndTime - kalmanBeginTime) * 20.0)/ 1000000; // pjones ROOT CAUSE
//times[i] = my_stamp;
//gyroAccelDATAToSend[i*10] =
//times[i] = i;
//End the timestamp to get the end time
kalmanEndTime = alt_timestamp();
//The timestamp is taken in ms
times[i] = (((float) (kalmanEndTime - kalmanBeginTime) * 20)/ 1000000);
//printf("%i %f\n",i, times[i]);
}
alt_8 *toSend_ptr;
toSend_ptr = (alt_8 *) gyroAccelDATAToSend;
alt_8 *toSend_ptr2 = (alt_8 *) times;
int bytes = 0;
int i;
/*for(i=0; i < 400; i++){
printf("%x ",toSend_ptr2[i]);
}*/
//numSend = 0;
//Make sure that we send all of the values
//It is times 2 since we send the accelerometer, gyroscope, and magnetometer data
//seperately from the timestamp data
//while (numSend != NUM_SENSOR_VALUES) {
// printf("Waiting to send");
// //First we have to read an a or a b to know which piece of data we should be sending
// numRead = read(fd, readBuffer, READ_BUFFER_SIZE - 1);
// //if we read something, check to see if it is an a or a b
// if (numRead > 0) {
// //If we read an a send over the gyro, accel, and mag data
// if (readBuffer[0] == 'a') {
//printf("Trying to send");
//Write the data to bluetooth
//if (readBuffer[0] == 'c') {
int j;
for(j = 0; j < 100000; j++){
bytes = fwrite(toSend_ptr, 2, 1, fp);
toSend_ptr+=2;
}
printf("\n\n%i", bytes);
//toSend_ptr = toSend_ptr + 2000;
//numSend++;
//}
//printf("Sent = %d", numSent);
//Increment the pointer and numSend
// //Testing to see if this works
/*bytes = 0;
int j=0;
for(j=0;j<400;j++){
bytes = fwrite(toSend_ptr2, 1, 1, fp);
toSend_ptr2 += 1;
if(bytes = 0){
printf("Lost Byte");
}
}*/
// //Increment the pointer and numSend
// printf("Finished sending");
// }
// }
// }
wantData = 0;
}
return 0;
}
/*
* Main Game Loop
*/
int main()
{
// Use the name of your pixel buffer DMA core
pixel_buffer =alt_up_pixel_buffer_dma_open_dev("/dev/pixel_buffer_dma_0");
initVGA();
usleep(5000000);
ps2 = alt_up_ps2_open_dev("/dev/ps2_0");
ps2->timeout = 2000000;
alt_up_ps2_clear_fifo(ps2);
alt_up_ps2_init(ps2);
unsigned char byte1;
while(alt_up_ps2_read_data_byte(ps2, &byte1)!=0);
char_lcd_dev = alt_up_character_lcd_open_dev ("/dev/character_lcd_0");
alt_up_character_lcd_init (char_lcd_dev);
char_buffer = alt_up_char_buffer_open_dev("/dev/char_drawer");
alt_up_char_buffer_init(char_buffer);
alt_up_sd_card_dev *device_reference = NULL;
struct Env* p = initEnv();
initGameInfo();
struct Collidable* collisionChecker = initCollidable();
addCollisionToEnv(p, collisionChecker);
promptSDcard(p, device_reference);
usleep(1000);
alt_up_char_buffer_string(char_buffer, "Loading ", 40, 30);
unsigned end_time, start_time;
int count = 0; lock = 0;
struct animation* starAnimation = loadSDImageSeq("ST0.BMP", 2, 8);
struct animation* star2Animation = loadSDImageSeq("ST00.BMP", 3, 7);
struct animation* alien0 = loadSDImageSeq("A100.BMP", 2, 2); //2 images where first 2 characters are prefix
struct animation* alien1 = loadSDImageSeq("A000.BMP", 2, 15);
struct animation* ship0 = loadSDImageSeq("S00.BMP", 2, 16);
struct animation* ship1 = loadSDImageSeq("S10.BMP", 2, 27);
struct animation* bossAnimate = loadSDImageSeq("BO00.BMP", 2, 28);
struct animation* ship2 = loadSDImageSeq("S20.BMP", 2, 35);
struct animation* ship3 = loadSDImageSeq("S30.BMP", 2, 30);
struct animation* ship4 = loadSDImageSeq("S40.BMP", 2, 10);
struct animation* explode1 = initAnimation((int*)explode01, 1);
addImage(explode1, initAnimation((int*)explode02, 0));
addImage(explode1, initAnimation((int*)explode03, 0));
addImage(explode1, initAnimation((int*)explode04, 0));
addImage(explode1, initAnimation((int*)explode05, 0));
struct animation** shipAnimationCollection = (struct animation**)malloc(sizeof(struct animation*)*5);
shipAnimationCollection[0] = ship0;
shipAnimationCollection[1] = ship1;
shipAnimationCollection[2] = ship2;
shipAnimationCollection[3] = ship3;
shipAnimationCollection[4] = ship4;
initWeapon(collisionChecker, p);
struct Cursor* mouse = initCursor(p, collisionChecker);
addToEnv(p, mouse->super);
addObjToCollide(collisionChecker, mouse->super);
setCursor(p, mouse);
struct KeyController* keyController = initKeyController();
struct SwitchController* switchController = initSwitchController();
struct CursorController* ctrl = initCursorController(mouse->super, switchController, keyController);
alt_up_char_buffer_string(char_buffer, "Loading Sounds ", 30, 30);
audioController = initAudioController();
loadSound( audioController, LOOP_ONE );
loadSound( audioController, LASER_SOUND );
alt_irq_register(AUDIO_IRQ, audioController, (void*) audio_ISR);
alt_irq_enable(AUDIO_IRQ);
play_background_loop( audioController, LOOP_ONE );
enableAudioController( audioController );
printhex(info.score);
mainMenu(mouse, ctrl, p);
disableAudioController(audioController);
stop_background_loop(audioController);
unloadSoundById(audioController, LASER_SOUND);
unloadSoundById(audioController, LOOP_ONE);
alt_up_char_buffer_string(char_buffer, "Loading Sounds ", 30, 30);
//loadSound(audioController, WIN_SOUND);
//loadSound(audioController, LOSE_SOUND);
loadSound( audioController, TOWER_UPGRADE_SOUND );
loadSound( audioController, LOOP_TWO );
play_background_loop(audioController, LOOP_TWO);
enableAudioController( audioController );
alt_up_char_buffer_clear(char_buffer);
//usleep(1000);
struct Alien* testAlienCollection[60];
gameSetup(p, shipAnimationCollection, mouse, starAnimation, star2Animation);
usleep(500000); //time delay for panel to be drawn
//
char LPS[50]; float lps_;
int n = 0;
for(n = 0; n < 20; n++) {
testAlienCollection[n] =initAlien(n, 10*n, 10, alien0, explode1, "IdontKnow", 1.4, 150, 500, collisionChecker);
addToEnvNR(p, testAlienCollection[n]->super);
}
for(n = 0; n < 20; n++) {
testAlienCollection[n+20] =initAlien(10*n, n, 10, alien1, explode1, "whatName", 1.4, 190, 850, collisionChecker);
addToEnvNR(p, testAlienCollection[n+20]->super);
}
for(n = 0; n < 20; n++) {
testAlienCollection[n+40] =initAlien(10*n, n, 20, bossAnimate, explode1, "IamBoss", 1.6, 800, 1500, collisionChecker);
testAlienCollection[n+40]->score = 300;
addToEnvNR(p, testAlienCollection[n+40]->super);
}
int stage = 0;
/*
* Game Starts!!!!!!
*/
alt_alarm_start (&alarm,alt_ticks_per_second(),my_alarm_callback,(void*)p);
int startTimer = 0;
char second_row1[15];
alt_up_character_lcd_set_cursor_pos(char_lcd_dev, 0, 1);
sprintf(second_row1, "wave# %d ", stage);
alt_up_character_lcd_string(char_lcd_dev, second_row1);
while(1) {
alt_timestamp_start();
start_time = (unsigned)alt_timestamp();
/*-----------------------------------------------------------------------------------------------*/
checkCollision(collisionChecker); //a major function that check each collision happen between each object
updateCursorController(ctrl, 1);
count++;
if (startTimer > count)
info.startButton = false;
else {
if(stage == 7)
info.isWin = true;
else if(startTimer == count){
//play_background_loop(audioController, LOOP_TWO);
enableAudioController( audioController );
}
}
if (info.startButton){
disableAudioController(audioController);
//stop_background_loop(audioController);
startTimer = count + 15000;
checkStages(testAlienCollection, stage%7, collisionChecker);
stage++;
//if(stage > 6) stage = 0;
info.startButton = false;
alt_up_character_lcd_set_cursor_pos(char_lcd_dev, 0, 1);
sprintf(second_row1, "wave# %d ", stage);
alt_up_character_lcd_string(char_lcd_dev, second_row1);
}
if(info.isEnd || info.isWin) {
disableAudioController(audioController);
stop_background_loop(audioController);
endGame(testAlienCollection, collisionChecker, p, mouse, ctrl, keyController);
}
/*-----------------------------------------------------------------------------------------------*/
end_time = (unsigned)alt_timestamp();
lps_ = (float)alt_timestamp_freq()/(float)(end_time - start_time);
sprintf(LPS, "The current LPS is %.2f", lps_);
alt_up_char_buffer_string(char_buffer, LPS, 3, 2);
}
return 0;
}
// YOLOYOLO
int main()
{
printf("\n\n\n----- STARTING A NEW GAME -----");
init();
printf("\nInitialization complete.");
srand(alt_timestamp()); // TODO change in de2 env
int i;
int new_player_count = 2;
bool first_game = true;
GameState state = SETUP;
for (;;) {
switch (state) {
case SETUP:
printf("\n\n----- ENTERING SETUP STATE -----\n\n");
initialize_dealer(new_player_count);
printf("Initialized dealer.");
joining_period();
/* Move dealer chip to the next player */
if (dealer_chip == dealer->number_players-1) dealer_chip = 0;
else dealer_chip++;
state = DEAL_HANDS;
break;
case DEAL_HANDS:
printf("\n\n ----- ENTERING DEAL_HANDS STATE -----\n\n");
deal_hands();
send_player_hands();
for (i=0; i<dealer->number_players; i++) {
printf("\n\nDealt cards for Player %d: Suite %d, Value %d & Suite %d, Value %d", i,
dealer->players[i].hand[0].suite, dealer->players[i].hand[0].value,
dealer->players[i].hand[1].suite, dealer->players[i].hand[1].value);
}
state = ANTY_CALL;
break;
case FLOP:
flop();
printf("\n\n----------------------------------------");
printf("\nFLOP (%s) (%s) (%s) \n",
card_name(dealer->cards_on_table[0]),
card_name(dealer->cards_on_table[1]),
card_name(dealer->cards_on_table[2]));
state = BET;
break;
case TURN:
turn();
printf("\n\n----------------------------------------");
printf("\nTURN (%s) (%s) (%s) (%s) \n",
card_name(dealer->cards_on_table[0]),
card_name(dealer->cards_on_table[1]),
card_name(dealer->cards_on_table[2]),
card_name(dealer->cards_on_table[3]));
state = BET;
break;
case RIVER:
river();
printf("\n\n----------------------------------------");
printf("\nRIVER (%s) (%s) (%s) (%s) (%s) \n",
card_name(dealer->cards_on_table[0]),
card_name(dealer->cards_on_table[1]),
card_name(dealer->cards_on_table[2]),
card_name(dealer->cards_on_table[3]),
card_name(dealer->cards_on_table[4]));
state = BET;
break;
case ANTY_CALL:
printf("\nCalling anty from all players");
get_bet_for_player(dealer_chip);
if (dealer_chip == dealer->number_players-1) {
for (i=0; i<dealer->number_players-1; i++) {
if (dealer->players[i].active) {
get_bet_for_player(i);
if (dealer->number_active_players == 1) {state = GAME_OVER; goto HOTSTUFF;}
}
}
} else {
for (i=dealer_chip+1; i<dealer->number_players; i++) {
if (dealer->players[i].active) {
get_bet_for_player(i);
if (dealer->number_active_players == 1) {state = GAME_OVER; goto HOTSTUFF;}
}
}
for (i=0; i<dealer_chip; i++) {
if (dealer->players[i].active) {
get_bet_for_player(i);
if (dealer->number_active_players == 1) {state = GAME_OVER; goto HOTSTUFF;}
}
}
}
/* Put bet money into the pot */
for (i=0; i<dealer->number_players; i++) {
dealer->pot += dealer->players[i].money;
dealer->players[i].money = 0;
dealer->current_bet = 0;
}
printf("\n----------------------------------------\n");
printf("\nPOT %d", dealer->pot);
printf("\n----------------------------------------\n");
state = BET;
break;
case BET:
for (i=0; i<dealer->number_players; i++) {
if (dealer->players[i].active && dealer->players[i].total_money > 0)
sprintf(dealer->players[i].message, " ");
}
/* Betting Round 1 */
get_bet_for_player(dealer_chip);
if (dealer_chip == dealer->number_players-1) {
for (i=0; i<dealer->number_players-1; i++) {
if (dealer->players[i].active) {
get_bet_for_player(i);
if (dealer->number_active_players == 1) {state = GAME_OVER; goto HOTSTUFF;}
}
}
} else {
for (i=dealer_chip+1; i<dealer->number_players; i++) {
if (dealer->players[i].active) {
get_bet_for_player(i);
if (dealer->number_active_players == 1) {state = GAME_OVER; goto HOTSTUFF;}
}
}
for (i=0; i<dealer_chip; i++) {
if (dealer->players[i].active) {
get_bet_for_player(i);
if (dealer->number_active_players == 1) {state = GAME_OVER; goto HOTSTUFF;}
}
}
}
/* If still betting, continue that */
while (still_betting()) {
for (i=dealer_chip; i<dealer->number_players; i++) {
if (player_still_playing(i)) {
get_bet_for_player(i);
if (dealer->number_active_players == 1) {state = GAME_OVER; goto HOTSTUFF;}
}
}
for (i=0; i<dealer_chip; i++) {
if (player_still_playing(i)) {
get_bet_for_player(i);
if (dealer->number_active_players == 1) {state = GAME_OVER; goto HOTSTUFF;}
}
}
}
switch (dealer->number_cards_on_table) {
case 0: state = FLOP; break;
case 3: state = TURN; break;
case 4: state = RIVER; break;
case 5: state = GAME_OVER; break;
}
HOTSTUFF:;
/* Put bet money into the pot */
for (i=0; i<dealer->number_players; i++) {
dealer->pot += dealer->players[i].money;
dealer->players[i].money = 0;
dealer->current_bet = 0;
}
printf("\n----------------------------------------\n");
printf("\nPOT %d", dealer->pot);
printf("\n----------------------------------------\n");
break;
case GAME_OVER:
if (dealer->number_active_players > 1) {
rank_poker_hands();
split_pot();
} else {
last_man_standing();
}
send_game_results();
printf("\n\nWaiting for response from all players.\n");
receive_replay_status();
state = SETUP;
free(dealer->deck);
free(dealer->players);
free(dealer);
free(ph);
break;
}
game_screen();
}
return 0;
}
int main() {
// INIT COMS
cd = (Comm_data*) malloc(sizeof(Comm_data));
uart = init_clear_uart(cd);
alt_timestamp_start();
srand(alt_timestamp());
CardCtrl *cardCtrl = (CardCtrl*)malloc(sizeof(CardCtrl));
PlayerCtrl* playerCtrl = (PlayerCtrl*)malloc(sizeof(PlayerCtrl));
initCards(cardCtrl);
printf("Waiting for players\n");
while(connected_count < 3) {
receivedFromAndroid();
}
printf("Got all players\n");
initPlayers(playerCtrl, connected_count);
int y;
for (y = 0; y < connected_count; y++) {
if (pid_connected[y] == 1) {
tell_user_pid_role(y, playerCtrl->players[y]);
Message message = receivedFromAndroid();
if (message.type == ACKNOWLEDGE);
}
}
int i, j;
for (i = 0; i < connected_count; i++) {
drawCardsForId(i, cardCtrl, 2, playerCtrl);
}
field = malloc(sizeof(Field));
alt_up_char_buffer_dev *charBuffer = initCharBuffer();
alt_up_pixel_buffer_dma_dev *pixelBuffer = initPixelBuffer();
initField(field, playerCtrl, cardCtrl, charBuffer);
*leds = *switches;
alt_timestamp_start();
srand(alt_timestamp());
Message message;
tell_user_all_opponent_range_role(playerCtrl->turn, getPlayersInfoForId(playerCtrl, playerCtrl->turn));
message = receivedFromAndroid();
if (message.type == ACKNOWLEDGE);
tell_user_all_opponent_blue_lives(playerCtrl->turn, getPlayersInfoForId(playerCtrl, playerCtrl->turn));
message = receivedFromAndroid();
if (message.type == ACKNOWLEDGE);
tell_user_their_turn(0);
while (1){
int listening = 1;
while (listening) {
Message message = receivedFromAndroid();
switch (message.type) {
case DRAW_CARDS:
drawCardsForId(message.fromId, cardCtrl, message.count, playerCtrl);
tell_user_ok(message.fromId);
break;
case UPDATE_HAND:
updateHandForId(playerCtrl, message.fromId, message.count, message.cards);
break;
case UPDATE_BLUE:
updateBlueCardsForId(playerCtrl, message.fromId, message.count, message.cards);
tell_user_ok(message.fromId);
break;
case UPDATE_LIVES:
updateLivesForId(playerCtrl, message.fromId, message.count);
break;
case GATLING:
startGatling(playerCtrl, message.fromId);
tell_user_ok(message.fromId);
break;
case ALIENS:
startAliens(playerCtrl, message.fromId);
tell_user_ok(message.fromId);
break;
case BEER:
{
//TODO
//updateLivesForId(playerCtrl, message.fromId, message.count);
Message message = receivedFromAndroid();
if (message.type == UPDATE_LIVES)
updateLivesForId(playerCtrl, message.fromId, message.count);
updateHand(message.fromId, playerCtrl);
break;
}
case GENERAL_STORE:
startStore(playerCtrl, message.fromId, cardCtrl);
break;
case SALOON:
startSaloon(playerCtrl, message.fromId);
tell_user_ok(message.fromId);
break;
case ZAP: {
startZap(playerCtrl, message.toId, message.fromId, message.self);
if (message.self == 0) {
tell_user_ok(message.fromId);
}
break;
}
case PANIC:
startPanic(playerCtrl, message.toId, message.fromId, message.self);
if (message.self == 0) {
tell_user_ok(message.fromId);
}
break;
case CAT_BALOU:
startCatBalou(playerCtrl, message.toId, message.fromId, message.self);
if (message.self == 0) {
tell_user_ok(message.fromId);
}
break;
case DUEL:
startDuel(playerCtrl, message.toId, message.fromId, message.self);
if (message.self == 0) {
tell_user_ok(message.fromId);
}
break;
case JAIL:
//TODO
tell_user_jail(message.toId, message.cards);
break;
case END_TURN:
listening = 0;
break;
default:
break;
}
alt_up_char_buffer_clear(charBuffer);
runField(field, isGameEnd, winningPlayer);
}
endTurn(playerCtrl);
tell_user_all_opponent_range_role(playerCtrl->turn, getPlayersInfoForId(playerCtrl, playerCtrl->turn));
message = receivedFromAndroid();
if (message.type == ACKNOWLEDGE);
tell_user_all_opponent_blue_lives(playerCtrl->turn, getPlayersInfoForId(playerCtrl, playerCtrl->turn));
message = receivedFromAndroid();
if (message.type == ACKNOWLEDGE);
int y;
for (y = 0; y < MAX_CARDS; y++ ) {
if (playerCtrl->players[playerCtrl->turn].blueCards[y] >= 72 && playerCtrl->players[playerCtrl->turn].blueCards[y] <= 74) {
drawCardsForId(playerCtrl->turn, cardCtrl, 1, playerCtrl);
break;
}
}
tell_user_their_turn(playerCtrl->turn);
alt_up_char_buffer_clear(charBuffer);
runField(field, isGameEnd, winningPlayer);
}
return 0;
}
int main(void) {
while (1) {
state = 0;
int setTime = 15;
numPlayers = 2;
initScreen();
clearScreen();
initCharBuffer();
clean_up();
initKeyboard();
initState0();
initAI();
//Bypass the menu system for testing
if (IORD(keys,0) == 8) {
initPlayer(pOne, MARIO, "pOne", 50, 100, HUMAN);
initPlayer(pTwo, LUIGI, "pTwo", 50, 100, COMPUTER);
state = 2;
} else {
while (state == 0) {
decode_scancode(ps2, &decode_mode, buf, &ascii);
state_0(decode_mode, buf[0]);
};
initState1(pOne);
if(aOn)file_handle = initAudio(fname);
if(aOn)alt_irq_register(AUDIO_0_IRQ, &ab, (alt_isr_func) write_fifo);
if(aOn) alt_up_audio_enable_write_interrupt(ab->audio);
while (state == 1) {
decode_scancode(ps2, &decode_mode, buf, &ascii);
state_1(decode_mode, buf[0], ascii);
if(aOn)loop_audio(file_handle, fname, ab);
};
}
//clean_up();
clearCharBuffer();
clearScreen();
//enable keyboard IRQ
void* keyboard_control_register_ptr = (void*) (KEYBOARD_BASE + 4);
alt_irq_register(KEYBOARD_IRQ, keyboard_control_register_ptr,
keyboard_ISR);
alt_up_ps2_enable_read_interrupt(ps2);
//Draw field and UI to both buffers
initField();
updateField();
drawName(p[pOne].name, p[pTwo].name, p[pThree].name, p[pFour].name);
drawGas(p[pOne].gas);
drawHealth(p[pOne].hp, p[pTwo].hp, p[pThree].hp, p[pFour].hp);
drawBullet(p[pOne].bulletType);
//drawWindIndicator(1);
updateScreen();
updateField();
drawName(p[pOne].name, p[pTwo].name, p[pThree].name, p[pFour].name);
drawGas(p[pOne].gas);
drawHealth(p[pOne].hp, p[pTwo].hp, p[pThree].hp, p[pFour].hp);
drawBullet(p[pOne].bulletType);
//drawWindIndicator(1);
float time;
alt_timestamp_start();
int start_timer_flag = 1;
//printf("NUM PLAYERA %i\n", numPlayers);
int i;
while (state == 2) {
int fallFlag = 1;
//Checks to see if any players are falling
while (fallFlag == 1) {
fallFlag = 0;
for (i = 0; i < numPlayers; i++) {
if (p[i].alive) {
if (p[i].y + TANK_HEIGHT >= SCREEN_HEIGHT-1) {
p[i].hp = 0;
p[i].alive = DEAD;
}
checkPlayerFalling(i);
if (p[i].isFalling) {
undrawPlayer(i);
updatePlayer(i);
fallFlag = 1;
}
}
}
if (fallFlag == 1) {
updateScreen();
}
}
if(start_timer_flag){
start_time = (float) alt_timestamp() / (float) alt_timestamp_freq();
start_timer_flag = 0;
}
time = (float) alt_timestamp() / (float) alt_timestamp_freq()-start_time;
if (time >= setTime) {
setPlayerTurn();
}
if (p[turn].type == HUMAN) {
runGame();
} else {
p[turn].deg = 0;
aiMain(turn);
setPlayerTurn();
}
printTimer(setTime - time);
int deadCount = 0;
for (i = 0; i < numPlayers; i++) {
if (p[i].alive == DEAD)
deadCount++;
}
if (deadCount == numPlayers - 1) {
usleep(500000);
state = 3;
}
}
alt_up_ps2_disable_read_interrupt(ps2);
if(aOn)alt_up_audio_disable_write_interrupt(ab->audio);
GameOverScreen();
}
}
