/***********************************************************
* Constructor
***********************************************************/
HDaemonApp::HDaemonApp():BApplication(APP_SIG)
,fRunner(NULL)
,fPopClient(NULL)
,fAccountDirectory(NULL)
,fHaveNewMails(false)
{
// Load scooby preferences
BPath path;
::find_directory(B_USER_DIRECTORY,&path);
path.Append("mail");
path.Append( "Trash" );
::create_directory(path.Path(),0777);
char *pref_name = new char[::strlen("Scooby") + 12];
::sprintf(pref_name,"%s %s","Scooby","preference");
fPrefs = new HPrefs(pref_name,"Scooby");
delete[] pref_name;
fPrefs->LoadPrefs();
// Get Account setting path
::find_directory(B_USER_SETTINGS_DIRECTORY,&fSettingPath);
fSettingPath.Append("Scooby");
InstallDeskbarIcon();
RunTimer();
}
void *run_timer(void *data)
{
RunTimer(data);
return NULL;
}
/*----------------------------------------------------------------------------
Main Program
*----------------------------------------------------------------------------*/
int main (void) {
int i;
char potOutput[20];
char answer[10];
//Following statement sets the timer interrupt frequency
//The clock rate on this boards MCU is 72 Mhz - this means
//every second there will be 72 million clocks. So, if use this
//as the parameter to the function the interrupt rate is going
//to be every second. If it is reduced to 100 times less then
//it will do that many clocks in 100 times less time, i.e. 10 msecs.
//NOTE: We could have chosen to generate a timer interrupt every 1 msec
//if we wished and that would be quite acceptable in which case we would
//need to modify the interrupt handler routine in IRQ.c file.
SysTick_Config(SystemCoreClock/10000); /* Generate interrupt each 10 ms */
LED_init(); /* LED Initialization */
pin_PA4_For_Speaker(); //Function that initializes the Speaker
ADC_init(); //Function that initializes ADC
GLCD_Init(); /* Initialize graphical LCD display */
joyStick_Init(); // Initialise the joystick
userButton_Init(); // Initialise User Button
userButton_IntrEnable(); //initialise the User button as an interrupt source
//Here we initialise the Joystick switches as interrupt sources
joyStick_IntrEnable_PG15_13();
joyStick_IntrEnable_PG7();
joyStick_IntrEnable_PD3();
AD_done = 0;
ADC1->CR2 |= (1UL << 22); //Start the ADC conversion
doTone = 0;
WelcomeScreen();
// initialiseGetAnswer(answer, 10);
// if(currentState == ON_DIFFICULTY_SCREEN)
// {
// GLCD_Clear(White);
// if(currDifficulty == 0){
// currDifficulty = 1;
// }
// updateNextDifficulty(nextDifficulty);
// DisplayInstructions(NULL,currentScore,currDifficulty,1);
// DrawBarGraph(BAR_X,BAR_Y,currDifficulty * 20,BAR_HEIGHT,BAR_VALUE);
// }
while (TRUE) {
// Program pauses whilst Countdown timer ticks - this is necessary because the program does not like interrupts and delay timers
// i.e. SysTick does not work whilst interrupts being handled
// Gives the user time to memorise the code
// Program then advances to accept answer state
if(currentState == QUESTION_SCREEN) { // Question Screen Delay countdown timer
RunTimer(5000);
currentState = ANSWER_SCREEN;
answerScreen();
Vectored_Interrupt(USER_BUTTON); // Simulate user pressing the button
}
//
// //RunTimer(TIMER_LENGTH);
// GLCD_SetBackColor(Red);
// DrawBarGraph(100,6*24,barWidth,15,1);
// delay10th(10000);
// GLCD_SetBackColor(White);
// barWidth -= 20;
// if(barWidth <= 0){
// barWidth = 100;
// }
// GLCD_DisplayString(6,0,__FI," ");
//Check to see if ADC sampling is completed
// if (AD_done) {
// //Yes, so get part of the sample value
// c = (AD_last >> 8) + 4;
// if (doTone) {
// //If enabled, switch the tone on
// sprintf(potOutput,"Pot = %d",c);
// displayTestMessage(1,0,potOutput,0);
// generate_Tone_On_Speaker(c * 50, 10);
// }
// AD_done = 0; //Reset the ADC complete flag waiting for next sample
// ADC1->CR2 |= (1UL << 22); //Start the next ADC conversion
}
}
