Example #1
0
void FC81_Interrupt(void)
{
  clrRegBit(TMR0_SCTRL,TCF);           /* Reset interrupt request flag */
  TTicks++;                            /* Increment counter of timer ticks */
  if (TTicks == 0) {                   /* Testing counter overflow */
    TOvf = TRUE;                       /* If yes then set overflow flag */
  }
}
Example #2
0
void TI1_interrupt (void)
{
	byte i;
	_count++;

	_wait = false;

		
clrRegBit (TMRA3_SCR, TCF);            /* Reset interrupt request flag */

	 
}
Example #3
0
/*
** ===================================================================
**     Method      :  HWEnDi (component ADC)
**
**     Description :
**         Enables or disables the peripheral(s) associated with the 
**         component. The method is called automatically as a part of 
**         Enable, Disable and Init methods and several internal methods.
**         This method is internal. It is used by Processor Expert only.
** ===================================================================
*/
static void HWEnDi(void)
{
  if (AD1_ModeFlg) {                   /* Launch measurement? */
    OutFlg = FALSE;                    /* Measured values are available */
    setRegBits(ADC_ADSTAT,2048);       /* Clear flag */
    clrRegBit(ADC_ADCR1,STOP0);        /* Normal operation mode */
    setRegBit(ADC_ADCR1,START0);       /* Launching of conversion */
  }
  else {
    setRegBit(ADC_ADCR1,STOP0);        /* Stop command issued */
  }
}
Example #4
0
/*
** ===================================================================
**     Method      :  HWEnDi (component SynchroMaster)
**
**     Description :
**         Enables or disables the peripheral(s) associated with the bean.
**         The method is called automatically as a part of the Enable and 
**         Disable methods and several internal methods.
**         This method is internal. It is used by Processor Expert only.
** ===================================================================
*/
static void HWEnDi(void)
{
  if (EnUser) {                        /* Enable device? */
    setRegBit(QSPI0_SCTRL,SPE);        /* Enable device */
    setRegBits(GPIO_C_PEREN,0x0200);   /* Switch pin to peripheral */
    if (SerFlag & FULL_TX) {           /* Is any char in transmit buffer? */
      setReg(QSPI0_DXMIT,BufferWrite); /* Store char to transmitter register */
      SerFlag &= ~FULL_TX;             /* Zeroize FULL_TX flag */
    }
  }
  else {
    clrRegBits(GPIO_C_PEREN,0x0200);   /* Switch pin to GPIO */
    clrRegBit(QSPI0_SCTRL,SPE);        /* Disable device */
  }
}
Example #5
0
////////////////////////////////////////////////////////////////////////
//
// comMainLoop()
//
// Communication loop. Wait for CAN frames and parses the messagge.
// The loop ends when comContinue is false.
//
////////////////////////////////////////////////////////////////////////
void comMainLoop(void)
{
	byte ReadCANState;
	byte i;
	comContinue = TRUE;
	comTimerEn = TRUE;
	while (comContinue)
	{
		/* wait CAN data or while timer expired, if set */
		while (CAN1_getStateRX() == 0) 
		{
			// Timer check
			if (comTimerEn) 
			{
		        if (getRegBit(TMRC1_SCR,TCF))      /* Is the interrupt request flag set? */
		        {
					clrRegBit(TMRC1_SCR,TCF);        /* If yes then reset this flag */
					if (--TmpXdataVar == 0) 
					{
						setRegBitGroup(TMRC0_CTRL,CM,0);   /* Stop counter */
						return;
					}
				}
			}
		}

		if (CAN1_getStateRX() != 0)
		{
			/* Received CAN frame */
			ReadCANState=CAN1_readFrame (&comBuffer.CAN_messID,
										  &comBuffer.CAN_length,
										  comBuffer.CAN_data);
			if ((ReadCANState != ERR_OK) && (ReadCANState != ERR_RXEMPTY))
			{
				userError(INDICATE_ERROR_RECEIVE);
			}
			sprsReady(&comBuffer);      /* call CAN protocol parser */
		}
	
	}  /* while */
}
Example #6
0
/**
 * starts the acquisition on channel A.
 *
 **************************************************************************************/
static void HWEnDiA(void)
{
	if (ad_ModeFlgA)  /* Launch measurement? */
	{
		OutFlgA = FALSE;                    	  /* Measured values are available */
		/* Trigger mode? */
		if (getRegBit (ADCA_ADCR1, SMODE2)) 
		{ 
			setRegBit (ADCA_ADCR1, SYNC);     /* Use sync input to initiate a conversion */
			clrRegBit (ADCA_ADCR1, STOP);     /* Normal operation mode */
		}
		else 
		{
			/* Set normal operation mode and sync input disabled */
			clrRegBits (ADCA_ADCR1, ADCA_ADCR1_SYNC_MASK | ADCA_ADCR1_STOP_MASK); 
			setRegBit (ADCA_ADCR1, START);    /* Launching of conversion */
		}
	}
	else 
	{
		setRegBit (ADCA_ADCR1, STOP);         /* Stop command issued */
	}
}
Example #7
0
void PWM_B_outputPadDisable (word mask)
{
	clrRegBit(PWMB_PMOUT,PAD_EN);
}
void COUNTER1_Interrupt(void)
{
  clrRegBit(TMR0_SCR,TOF);             /* Clear overflow interrupt flag */
  Overflow = TRUE;                     /* Set an internal overflow flag */
}
Example #9
0
void PIT_1ms_Interrupt(void)
{
  clrRegBit(PIT0_CTRL,PRF);            /* Reset interrupt request flag */
  PIT_1ms_OnInterrupt();               /* Invoke user event */
}
void TD0_interrupt(void)
{
	static Int16 counter = 0;	
	if (counter == 20)
	{
		//saves the number of commutations occurred during this period
		comm_count[0]=comm_enc[0];
		comm_count[1]=comm_enc[1];
		
		//zero the commutation econder
		comm_enc[0]=0;
		comm_enc[1]=0;
		
		counter = 0;
	}	
	else counter++;
	
	if (DutyCycleReq[0].Dir != DutyCycle[0].Dir) 
	{
		if (DutyCycle[0].Duty <= (MIN_DUTY)) 
		{
			if (DutyCycleReq[0].Dir) pTable0 = bldcCommutationTableCompInv;
			else pTable0 = bldcCommutationTableComp; 
			DutyCycle[0].Dir = DutyCycleReq[0].Dir;
		}		
		else 
		{	
			DutyCycle[0].Duty=DutyCycle[0].Duty-STEP;
		}
	}
	else {
		if (DutyCycleReq[0].Duty > DutyCycle[0].Duty) 
		{
			if (DutyCycleReq[0].Duty-DutyCycle[0].Duty>=STEP)
				DutyCycle[0].Duty=DutyCycle[0].Duty+STEP;
			else
				DutyCycle[0].Duty=DutyCycleReq[0].Duty;
		}
		else if (DutyCycleReq[0].Duty < DutyCycle[0].Duty) 
		{
			if (DutyCycle[0].Duty-DutyCycleReq[0].Duty>=STEP)
				DutyCycle[0].Duty=DutyCycle[0].Duty-STEP;
			else
				DutyCycle[0].Duty=DutyCycleReq[0].Duty;
		}
	//	else TD0_Disable();
	}
	
	//++++++
	
	if (DutyCycleReq[1].Dir != DutyCycle[1].Dir) 
	{
		if (DutyCycle[1].Duty <= (MIN_DUTY)) 
		{
			if (DutyCycleReq[1].Dir) pTable1 = bldcCommutationTableCompInv;
			else pTable1 = bldcCommutationTableComp; 
			DutyCycle[1].Dir = DutyCycleReq[1].Dir;
		}		
		else 
		{
			DutyCycle[1].Duty=DutyCycle[1].Duty-STEP;
		}
	}
	else {
		if (DutyCycleReq[1].Duty > DutyCycle[1].Duty) 
		{
			if (DutyCycleReq[1].Duty-DutyCycle[1].Duty>=STEP)
				DutyCycle[1].Duty=DutyCycle[1].Duty+STEP;
			else
				DutyCycle[1].Duty=DutyCycleReq[1].Duty;
		}
		else if (DutyCycleReq[1].Duty < DutyCycle[1].Duty) 
		{
			if (DutyCycle[1].Duty-DutyCycleReq[1].Duty>=STEP)
				DutyCycle[1].Duty=DutyCycle[1].Duty-STEP;
			else
				DutyCycle[1].Duty=DutyCycleReq[1].Duty;
		}
	//	else TD0_Disable();
	}
	
	PWM_generate_BLL(0, DutyCycle[0].Duty);
	PWM_generate_BLL(1, DutyCycle[1].Duty);
		
	clrRegBit (TMRD0_SCR, TCF);            /* Reset interrupt request flag */
	
}
Example #11
0
void TI1_Interrupt(void)
{
  clrRegBit(TMR2_SCR,TCF);             /* Reset interrupt request flag */
  TI1_OnInterrupt();                   /* Invoke user event */
}