int main (void)
{
Initialization();
show_mhz(); // Display CPU speed
TimerWait(1000); // Wait 1 second
while(1)
{
printLCD("Show ADC"); // Display the text in quotes on the LCD
while (!KEY_VALID); // Wait for joystick to be moved or pressed.
if (getkey() == 1) // If enter was pressed then do what is in the braces, just skip over it.
{
TimerWait(500); // debounce joystick button
showADC();
printLCD("Back ADCs");
TimerWait(2000);
}
printLCD("Balance"); // Display the text in quotes on the LCD
while (!KEY_VALID); // Wait for joystick to be moved or pressed.
if (getkey() == 1) // If enter was pressed then do what is in the braces, else just continue.
{
TimerWait(500); // debounce joystick button
balance();
printLCD("Back Balance");
TimerWait(2000);
}
printLCD("rprintf"); // Display the text in quotes on the LCD
while (!KEY_VALID); // Wait for joystick to be moved or pressed.
if (getkey() == 1) // If enter was pressed then do what is in the braces, else just continue.
{
TimerWait(500); // debounce joystick button
rprintf_test();
printLCD("Back rprintf");
TimerWait(2000);
}
printLCD("PWM Test"); // Display the text in quotes on the LCD
while (!KEY_VALID); // Wait for joystick to be moved or pressed.
if (getkey() == 1) // If enter was pressed then do what is in the braces, else just continue.
{
TimerWait(500); // debounce joystick button
PWM_Test();
printLCD("Back PWM Test");
TimerWait(3000);
}
}
}
void showAndSetValue(uint8_t display ,volatile uint16_t *array,volatile uint8_t *array8){
switch(display){
case DISPLAY_START:
{
volatile uint16_t time=(array8[charge])? chargeTime:dischargeTime;
volatile uint8_t index=(array8[charge])? oldChargeTime:oldDischargeTime;
if(array[index]!=time){
array[index]=time;
showTime(8,1,time);
}
}
if(array[oldCurrentVoltage]!=array[currentVoltage]){
array[oldCurrentVoltage]=array[currentVoltage];
showADC(2,0,array[currentVoltage]);
}
if(array[oldCurrentAmperage]!=array[currentAmperage]){
array[oldCurrentAmperage]=array[currentAmperage];
LCD_Goto(2,1);
volatile uint8_t ch=(array8[charge])? '+':'-';
LCD_WriteData(ch);
showADC(3,1,array[currentAmperage]);
}
if(array[oldCurrentPWM]!=array[currentPWM]){
array[oldCurrentPWM]=array[currentPWM];
showPWM(10,0,array[currentPWM]);
setPwm(array[currentPWM]);
}
if(array8[oldNumDischargeCharge]!=array8[numDischargeCharge]){
array8[oldNumDischargeCharge]=array8[numDischargeCharge];
LCD_Goto(14,0);
LCD_SendNumber(array8[numDischargeCharge],' ');
}
break;
case DISPLAY_FAST_CHANGE:
if(array8[oldCharge]!=array8[charge]){
array8[oldCharge]=array8[charge];
LCD_ClearField(0,1,9);
LCD_Goto(0,1);
if(array8[charge]){
LCD_SendStr("Charge");
BM_ClearBit(TCCR1A,COM1A0);
SET_CHARGE;
}else{
LCD_SendStr("Discharge");
BM_SetBit(TCCR1A,COM1A0);
SET_DISCHARGE;
}
}
break;
case DISPLAY_PROGR:
if(array[oldWindowsSettings]!=array[windowsSettings]){
array[oldWindowsSettings]=array[windowsSettings];
showWinSettings(0,1,DISPLAY_PROGR+array[windowsSettings]);
}
break;
case DISPLAY_P0:
if(array[oldNormalVoltage]!=array[normalVoltage]){
array[oldNormalVoltage]=array[normalVoltage];
showADC(0,0,array[normalVoltage]);
}
break;
case DISPLAY_P1:
if(array[oldDischargeVoltage]!=array[dischargeVoltage]){
array[oldDischargeVoltage]=array[dischargeVoltage];
showADC(0,0,array[dischargeVoltage]);
}
break;
case DISPLAY_P2:
if(array[oldDischargeAmperage]!=array[dischargeAmperage]){
array[oldDischargeAmperage]=array[dischargeAmperage];
showADC(0,1,array[dischargeAmperage]);
}
break;
case DISPLAY_P3:
if(array[oldNormalAmperage]!=array[normalAmperage]){
array[oldNormalAmperage]=array[normalAmperage];
showADC(7,1,array[normalAmperage]);
}
break;
case DISPLAY_P4:
if(array8[oldAutomatic]!=array8[automatic]){
array8[oldAutomatic]=array8[automatic];
LCD_ClearField(0,1,9);
LCD_Goto(0,1);
if(array8[automatic]){
LCD_SendStr("Automatic");
} else {
LCD_SendStr("Manual");
}
}
break;
case DISPLAY_P5:
if(array8[oldNumDischargeCharge]!=array8[numDischargeCharge]){
array8[oldNumDischargeCharge]=array8[numDischargeCharge];
LCD_ClearField(0,1,3);
LCD_Goto(0,1);
LCD_SendNumber(array8[numDischargeCharge],' ');
}
break;
}
}