uint readpins(int PinNum)
{
uint avalue;
while(!IFS0bits.AD1IF); // wait until buffers contain new samples
//AD1CON1bits.ASAM = 0; // stop automatic sampling (essentially shut down ADC in this mode)
if(ReadActiveBufferADC10() == 1)// check which buffers are being written to and read from the other set
{
switch(PinNum)
{
case 0:
avalue = ADC1BUF0;
break;
case 1:
avalue = ADC1BUF1;
break;
case 2:
avalue = ADC1BUF2;
break;
}
}
else
{
switch(PinNum)
{
case 0:
avalue = ADC1BUF8;
break;
case 1:
avalue = ADC1BUF9;
break;
case 2:
avalue = ADC1BUFA;
break;
}
}
//AD1CON1bits.ASAM = 1; // restart automatic sampling
mAD1ClearIntFlag(); // clear ADC interrupt flag
return avalue;
}
/*
Timer ISR callback function for CVD measurements.
Requires external pull-up resistors to Vdd for all buttons.
For use on devices that don't support TimerCallbackFunc1
or have a CTMU (TimerCallbackFunc4).
*/
void TimerCallbackFunc2(void)
{
UINT16 Vpos, Vneg, Vmeas, Vupdate;
UINT16 iChan, iChanBit;
UINT16 iRefChan, iRefBit;
iRefChan = REF_CHANNEL;
iRefBit = 1<<iRefChan;
iChan = ScanChannels[button_set_number];
iChanBit = 1<<iChan;
//*****************************************************************************
// Measure Vneg
//*****************************************************************************
#if defined( TICKLE_LED1 )
LATFSET = 1<<0; // Use pin 5 on J2 (RF0)
#endif// defined( TICKLE_LED1 )
asm("di"); // disable interrupts
AD1CON1bits.SAMP = 1; //Start Chold charging Process
ChargeDelay();
LATBCLR = iRefBit; //Ref pin now low
ChargeDelay();
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to grounded reference pin
ChargeDelay(); //Wait as ADC SAH cap discharges and sensor cap charges
TRISBSET = iChanBit; //Tri-state sensor port
LATBCLR = iChanBit; //Sensor port low
#if defined(CHARGE_DISCHARGE_CYCLE_1)
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH charges
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to grounded reference pin
ChargeDelay(); //Wait as ADC SAH discharges
#endif//defined(CHARGE_DISCHARGE_CYCLE_1)
#if defined(CHARGE_DISCHARGE_CYCLE_2)
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH charges
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to grounded reference pin
ChargeDelay(); //Wait as ADC SAH discharges
#endif//defined(CHARGE_DISCHARGE_CYCLE_2)
#if defined(CHARGE_DISCHARGE_CYCLE_3)
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH charges
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to grounded reference pin
ChargeDelay(); //Wait as ADC SAH discharges
#endif//defined(CHARGE_DISCHARGE_CYCLE_3)
#if defined(CHARGE_DISCHARGE_CYCLE_4)
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH charges
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to grounded reference pin
ChargeDelay(); //Wait as ADC SAH discharges
#endif//defined(CHARGE_DISCHARGE_CYCLE_4)
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH charges
AD1CON1bits.SAMP = 0; //Start A/D conversion
#if defined( TICKLE_LED1 )
LATFCLR = 1<<0; // Use pin 5 on J2 (RF0)
#endif// defined( TICKLE_LED1 )
asm("ei"); //re-enable interrupts
//Capture Voltage
while ( !AD1CON1bits.DONE ) //Wait for ADC conversion complete
{
// Do Nothing
}
AD1CON1bits.DONE = 0;
Vneg = ReadADC10(ReadActiveBufferADC10())<<5; //Read new Vneg
//*****************************************************************************
// Measure Vpos
//*****************************************************************************
//Be sure ADC is in known state
TRISBCLR = iRefBit; //Make ref pin output
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to ref pin
AD1CON1bits.SAMP = 1; //Start Chold charging Process
ChargeDelay();
#if defined( TICKLE_LED1 )
LATFSET = 1<<0; // Use pin 5 on J2 (RF0)
#endif// defined( TICKLE_LED1 )
asm("di"); // disable interrupts
//Setup: SAH cap high, sensor cap low
LATBCLR = iChanBit; //Sensor pin low
TRISBCLR = iChanBit; //Clear tri-state on sensor pin
//Charging the ADC's sample and hold (SAH) capacitor
LATBSET = iRefBit; //Make ref pin high
TRISBCLR = iRefBit; //Make ref pin output
#if defined( CHARGE_DISCHARGE_CYCLE_1 )
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to ref pin
ChargeDelay(); //Wait as ADC SAH cap charges
TRISBSET = iChanBit; //Tristate sensor pad (make it input)
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH cap discharges to sensor cap
#endif//defined( CHARGE_DISCHARGE_CYCLE_1 )
#if defined( CHARGE_DISCHARGE_CYCLE_2 )
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to ref pin
ChargeDelay(); //Wait as ADC SAH cap charges
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH cap discharges to sensor cap
#endif//defined( CHARGE_DISCHARGE_CYCLE_2 )
#if defined( CHARGE_DISCHARGE_CYCLE_3 )
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to ref pin
ChargeDelay(); //Wait as ADC SAH cap charges
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH cap discharges to sensor cap
#endif//defined( CHARGE_DISCHARGE_CYCLE_3 )
#if defined( CHARGE_DISCHARGE_CYCLE_4 )
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to ref pin
ChargeDelay(); //Wait as ADC SAH cap charges
AD1CHSbits.CH0SA = iChan; //Switch ADC to sensor pin
ChargeDelay(); //Wait as ADC SAH cap discharges to sensor cap
#endif//defined( CHARGE_DISCHARGE_CYCLE_4 )
//Capture Voltage
AD1CON1bits.SAMP = 0; //Start A/D conversion
#if defined( TICKLE_LED1 )
LATFCLR = 1<<0; // Use pin 5 on J2 (RF0)
#endif// defined( TICKLE_LED1 )
asm("ei"); //re-enable interrupts
while ( !AD1CON1bits.DONE ) //Wait for ADC conversion complete
{
//Do Nothing
}
AD1CON1bits.DONE = 0;
Vpos = ReadADC10(ReadActiveBufferADC10())<<5; //Read new Vpos
#if defined(USE_DIFFERENTIAL_MEASUREMENTS)
Vmeas = Vpos + 32768 - Vneg; //Calculate new Vmeas
#else //single ended
Vmeas = Vpos; //Single ended measurements
#endif //defined USE_DIFFERENTIAL_MEASUREMENTS
#if defined(LIMIT_SLEW_RATE)
if ( IgnoreCurrentDataFlag == TRUE )
{
Vpos = Vneg = 0;
Vmeas = OldRawData[button_set_number];
}
# if defined(USE_DIFFERENTIAL_MEASUREMENTS)
# define VMEAS_DELTA (1<<(5))
# else
# define VMEAS_DELTA (1<<(6))
# endif//defined(USE_DIFFERENTIAL_MEASUREMENTS)
if (Vmeas > OldRawData[button_set_number])
{
OldRawData[button_set_number] += VMEAS_DELTA;
}
else if(Vmeas < OldRawData[button_set_number])
{
OldRawData[button_set_number] -= VMEAS_DELTA;
}
Vupdate = OldRawData[button_set_number];
#else
if ( IgnoreCurrentDataFlag == TRUE )
{
Vmeas = Vpos = Vneg = 0;
Vupdate = OldRawData[button_set_number];
}
else
{
OldRawData[button_set_number] = Vupdate = Vmeas;
}
#endif//defined(LIMIT_SLEW_RATE)
ButtonCumulativeSum[button_set_number] += Vupdate;
#if defined( UART_DUMP_RAW_COUNTS )
CurRawData[ HF_Read_Number ][button_set_number] = Vmeas;
#elif defined( UART_DUMP_ALL_COUNTS )
CurRawData[3*HF_Read_Number+0][button_set_number] = Vpos;
CurRawData[3*HF_Read_Number+1][button_set_number] = Vneg;
CurRawData[3*HF_Read_Number+2][button_set_number] = Vmeas;
#endif//defined( UART_DUMP_RAW_COUNTS )
//Measurement teardown
LATBCLR = iChanBit; //Make sensor port low to discharge sensor pad
//Next Measurement??
button_set_number++; //Increment the button number to move on to the next button
if(button_set_number == NumberScanChannels) //if scanned all the buttons
{
HF_Read_Number++; //Start the next set of HF Scans
button_set_number = 0; //Start over at the first button
if ( HF_Read_Number < NUM_HF_READS ) // Not done with scans
{
EmTouchDataReady = FALSE;
}
else //All HF scans done, compute average, signal we're done
{
EmTouchDataReady = TRUE; // We're done with complete scan
HF_Read_Number = 0; // Start next set of HF scans
}
}
else
{
EmTouchDataReady = FALSE;
}
return; // we're done!
}
/*
This version of the callback function replaces the pull-up resistors used in
TimerCallBackFunc2 with 10 to 30 charges from the ADC's sample and hold (SAH)
capacitor. This improves noise performance at the cost of longer execution.
*/
void Timer4CallbackFunc3(void)
{
UINT16 Vpos, Vneg, Vmeas, Vupdate;
UINT16 iChan, iChanBit;
UINT16 iRefChan, iRefBit;
iRefChan = REF_CHANNEL;
iRefBit = 1<<iRefChan;
iChan = ScanChannels[button_set_number];
iChanBit = 1<<iChan;
//Mask shows which bits need changing to toggle between reference and sensor
AD1CHS_Mask = (iRefChan<<16)^(iChan<<16); //XOR = bits that are different
//*****************************************************************************
// Measure Vpos
//*****************************************************************************
//Bring up ADC in known state
AD1CON1bits.SAMP = 1; //Start Chold charging Process
LATBCLR = iRefBit; //Ref pin now low
TRISBCLR = iRefBit; //Make reference pin output
AD1CHSbits.CH0SA = iRefChan; //Switch ADC to grounded reference pin
LATBSET = iRefBit; //Make reference pin high
TRISBSET = iChanBit; //Tri-state sensor port
LATBCLR = iChanBit; //Sensor port low
//This charge/discharge cycle is necessary to start the process
AD1CHSbits.CH0SA = iRefChan; //Charge ADC Sample and Hold capacitor
TRISBSET = iChanBit; //Tri-state sensor port pin again
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
# if defined(CHARGE_DISCHARGE_CYCLE_2)
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
# endif//defined(CHARGE_DISCHARGE_CYCLE_2)
# if defined(CHARGE_DISCHARGE_CYCLE_3)
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
# endif//defined(CHARGE_DISCHARGE_CYCLE_3)
# if defined(CHARGE_DISCHARGE_CYCLE_3)
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
# endif//defined(CHARGE_DISCHARGE_CYCLE_4)
AD1CON1bits.SAMP = 0; //Start ADC conversion
//Wait for ADC conversion complete
while ( !AD1CON1bits.DONE )
{
//Do Nothing
}
AD1CON1bits.DONE = 0;
Vpos = ReadADC10(ReadActiveBufferADC10())<<5; //ADC measurement
//*****************************************************************************
// Measure Vneg
//*****************************************************************************
#if !defined(USE_DIFFERENTIAL_MEASUREMENTS)
# error('This file supports differential measurements only! Use mTouchCap_Timers.c instead.')
#endif//!defined(USE_DIFFERENTIAL_MEASUREMENTS)
AD1CON1bits.SAMP=1; //Enable sampling again
// Repeat charging to bring button capacitor to near Vdd in voltage, using ADC
#if defined(BUTTON_CHARGE_CYCLE_1)
// Charge cycles 1 - 10
// Button charge #01
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #02
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #03
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #04
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #05
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #06
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #07
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #08
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #09
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #10
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
#endif//defined(BUTTON_CHARGE_CYCLE_1)
#if defined(BUTTON_CHARGE_CYCLE_2)
// Charge cycles 11 - 20
// Button Charge #11
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #12
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #13
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #14
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #15
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #16
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #17
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #18
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #19
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #20
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
#endif//defined(BUTTON_CHARGE_CYCLE_2)
#if defined(BUTTON_CHARGE_CYCLE_3)
// Charge cycles 21 - 30
// Button Charge #21
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #22
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #23
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #24
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #25
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #26
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #27
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #28
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #29
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #30
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
#endif//defined(BUTTON_CHARGE_CYCLE_3)
#if defined(BUTTON_CHARGE_CYCLE_4)
// Charge cycles 31 - 40
// Button Charge #31
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #32
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #33
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #34
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #35
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #36
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #37
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #38
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button Charge #39
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
// Button charge #40
AD1CHSINV = AD1CHS_Mask; //Switch to reference to charge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge button
#endif//defined(BUTTON_CHARGE_CYCLE_4)
//Button cap is charged, now start dumping charge with ADC's SAH cap
LATBCLR = iRefBit; //Make reference pin low
# if defined(CHARGE_DISCHARGE_CYCLE_1)
AD1CHSINV = AD1CHS_Mask; //Switch to reference to discharge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge SAH cap
# endif//defined(CHARGE_DISCHARGE_CYCLE_1)
# if defined(CHARGE_DISCHARGE_CYCLE_2)
AD1CHSINV = AD1CHS_Mask; //Switch to reference to discharge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge SAH cap
# endif//defined(CHARGE_DISCHARGE_CYCLE_2)
# if defined(CHARGE_DISCHARGE_CYCLE_3)
AD1CHSINV = AD1CHS_Mask; //Switch to reference to discharge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge SAH cap
# endif//defined(CHARGE_DISCHARGE_CYCLE_3)
# if defined(CHARGE_DISCHARGE_CYCLE_4)
AD1CHSINV = AD1CHS_Mask; //Switch to reference to discharge SAH cap
AD1CHSINV = AD1CHS_Mask; //Switch to the sensor to charge SAH cap
# endif//defined(CHARGE_DISCHARGE_CYCLE_4)
AD1CON1bits.SAMP = 0; //Start ADC conversion
//Wait for ADC conversion complete
while ( !AD1CON1bits.DONE )
{
// Do Nothing
}
AD1CON1bits.DONE = 0;
TRISBCLR = iChanBit; //Remove tri-state on sensor port pin, make it output
// Read new Vneg
Vneg = ReadADC10(ReadActiveBufferADC10())<<5;
// Calculate new Vmeas
Vmeas = Vpos + 32768 - Vneg;
#if defined(LIMIT_SLEW_RATE)
# define VMEAS_DELTA (1<<(5))
if (Vmeas > OldRawData[button_set_number])
{
OldRawData[button_set_number] += VMEAS_DELTA;
}
else if(Vmeas < OldRawData[button_set_number])
{
OldRawData[button_set_number] -= VMEAS_DELTA;
}
Vupdate = OldRawData[button_set_number];
#else
Vupdate = Vmeas;
#endif//defined(LIMIT_SLEW_RATE)
ButtonCumulativeSum[button_set_number] += Vupdate;
#if defined( UART_DUMP_RAW_COUNTS )
CurRawData[ HF_Read_Number ][button_set_number] = Vmeas;
#elif defined( UART_DUMP_ALL_COUNTS )
CurRawData[3*HF_Read_Number+0][button_set_number] = Vpos;
CurRawData[3*HF_Read_Number+1][button_set_number] = Vneg;
CurRawData[3*HF_Read_Number+2][button_set_number] = Vmeas;
#endif//defined( UART_DUMP_RAW_COUNTS )
//Next Measurement??
button_set_number++; //Increment the button number to move on to the next button
if(button_set_number == NumberScanChannels) //if scanned all the buttons
{
HF_Read_Number++; //Start the next set of HF Scans
button_set_number = 0; //Start over at the first button
if ( HF_Read_Number < NUM_HF_READS ) // Not done with scans
{
dataReadyCVD = FALSE;
}
else //All HF scans done, compute average, signal we're done
{
dataReadyCVD = TRUE; // We're done with complete scan
HF_Read_Number = 0; // Start next set of HF scans
}
}
else
{
dataReadyCVD = FALSE;
}
return; // we're done!
}
