Low level CapTIvate configuration and peripheral hardware abstraction module. More...

Macros
#define	CAPT_TIMER_SRC_ACLK (0x00)

#define	CAPT_TIMER_SRC_VLOCLK (0x01)

#define	CAPT_TIMER_CLKDIV__1 (0x00)

#define	CAPT_TIMER_CLKDIV__2 (0x01)

#define	CAPT_TIMER_CLKDIV__4 (0x02)

#define	CAPT_TIMER_CLKDIV__8 (0x03)

#define	CAPT_TIMER_CLKDIV__16 (0x04)

#define	CAPT_TIMER_CLKDIV__32 (0x05)

#define	CAPT_TIMER_CLKDIV__64 (0x06)

#define	CAPT_TIMER_CLKDIV__128 (0x07)

#define	CAPT_COUNTER__16 (0x00)

#define	CAPT_COUNTER__32 (0x01)

#define	CAPT_COUNTER__64 (0x02)

#define	CAPT_COUNTER__128 (0x03)

#define	CAPT_COUNTER__256 (0x04)

#define	CAPT_COUNTER__512 (0x05)

#define	CAPT_COUNTER__1024 (0x06)

#define	CAPT_COUNTER__2048 (0x07)

#define	CAPT_COUNTER__DISABLED (0x08)

#define	CAPT_OSC_FREQ_DEFAULT (0x00)

#define	CAPT_OSC_FREQ_16MHZ (0x00)

#define	CAPT_OSC_FREQ_14P7MHZ (0x01)

#define	CAPT_OSC_FREQ_13P1MHZ (0x02)

#define	CAPT_OSC_FREQ_11P2MHZ (0x03)

#define	CAPT_REFERENCE_CAP__SELF_1P0PF (0x00)

#define	CAPT_REFERENCE_CAP__SELF_1P1PF (0x04)

#define	CAPT_REFERENCE_CAP__SELF_1P5PF (0x05)

#define	CAPT_REFERENCE_CAP__SELF_5P0PF (0x02)

#define	CAPT_REFERENCE_CAP__SELF_5P1PF (0x06)

#define	CAPT_REFERENCE_CAP__SELF_5P5PF (0x07)

#define	CAPT_REFERENCE_CAP__MUTUAL_0P1PFM_1P0PF (0x00)

#define	CAPT_REFERENCE_CAP__MUTUAL_0P5PFM_1P0PF (0x01)

#define	CAPT_REFERENCE_CAP__MUTUAL_0P1PFM_5P0PF (0x02)

#define	CAPT_REFERENCE_CAP__MUTUAL_0P5PFM_5P0PF (0x03)

#define	CAPT_COARSEGAIN_0 (0x00)

#define	CAPT_COARSEGAIN_1 (0x01)

#define	CAPT_COARSEGAIN_2 (0x02)

#define	CAPT_COARSEGAIN_3 (0x03)

#define	CAPT_COARSEGAIN_4 (0x04)

#define	CAPT_COARSEGAIN_5 (0x05)

#define	CAPT_COARSEGAIN_6 (0x06)

#define	CAPT_COARSEGAIN_7 (0x07)

#define	CAPT_COARSEGAIN_MIN (CAPT_COARSEGAIN_0)

#define	CAPT_COARSEGAIN_MAX (CAPT_COARSEGAIN_7)

#define	CAPT_FINEGAIN_0 (0x00)

#define	CAPT_FINEGAIN_1 (0x01)

#define	CAPT_FINEGAIN_2 (0x02)

#define	CAPT_FINEGAIN_3 (0x03)

#define	CAPT_FINEGAIN_4 (0x04)

#define	CAPT_FINEGAIN_5 (0x05)

#define	CAPT_FINEGAIN_6 (0x06)

#define	CAPT_FINEGAIN_7 (0x07)

#define	CAPT_FINEGAIN_8 (0x08)

#define	CAPT_FINEGAIN_9 (0x09)

#define	CAPT_FINEGAIN_10 (0x0A)

#define	CAPT_FINEGAIN_11 (0x0B)

#define	CAPT_FINEGAIN_12 (0x0C)

#define	CAPT_FINEGAIN_13 (0x0D)

#define	CAPT_FINEGAIN_14 (0x0E)

#define	CAPT_FINEGAIN_15 (0x0F)

#define	CAPT_FINEGAIN_16 (0x10)

#define	CAPT_FINEGAIN_17 (0x11)

#define	CAPT_FINEGAIN_18 (0x12)

#define	CAPT_FINEGAIN_19 (0x13)

#define	CAPT_FINEGAIN_MIN (CAPT_FINEGAIN_0)

#define	CAPT_FINEGAIN_MAX (CAPT_FINEGAIN_19)

#define	CAPT_OFFSETTAP_MIN (0x00)

#define	CAPT_OFFSETTAP_MAX (0xFF)

#define	CAPT_OFFSETSCALE__VERYSMALL (0x0000)

#define	CAPT_OFFSETSCALE__SMALL (0x0100)

#define	CAPT_OFFSETSCALE__LARGE (0x0200)

#define	CAPT_OFFSETSCALE__VERYLARGE (0x0300)

#define	CAPT_OFFSETSCALE_MIN (CAPT_OFFSETSCALE__VERYSMALL)

#define	CAPT_OFFSETSCALE_MAX (CAPT_OFFSETSCALE__VERYLARGE)

#define	CAPT_END_OF_CONVERSION_INTERRUPT (0x0001)

#define	CAPT_DETECTION_INTERRUPT (0x0002)

#define	CAPT_TIMER_INTERRUPT (0x0004)

#define	CAPT_CONVERSION_COUNTER_INTERRUPT (0x0008)

#define	CAPT_MAX_COUNT_ERROR_INTERRUPT (0x0100)

#define	CAPT_IV_NO_INTERRUPT (0x0000)

#define	CAPT_IV_END_OF_CONVERSION (0x0002)

#define	CAPT_IV_DETECTION (0x0004)

#define	CAPT_IV_TIMER (0x0006)

#define	CAPT_IV_CONVERSION_COUNTER (0x0008)

#define	CAPT_IV_MAX_COUNT_ERROR (0x000A)

Functions
void	CAPT_init (void)

bool	CAPT_pollResetStatus (void)

bool	CAPT_pollCIPF (void)

void	CAPT_reset (void)

void	CAPT_setStabilization (void)

void	CAPT_releaseStabilization (void)

void	CAPT_enableRefCap (tElement *pElement, uint8_t capSize)

void	CAPT_disableRefCap (void)

void	CAPT_enableSensorIO (tSensor *pSensor)

void	CAPT_disableSensorIO (tSensor *pSensor)

void	CAPT_initSensorIO (tSensor *pSensor)

void	CAPT_forceSensorIO (tSenseTechnology rxBarTx, tSensor *pSensor)

void	CAPT_applySensorParams (tSensor *pSensor)

void	CAPT_enableSensorSyncEvent (void)

void	CAPT_disableSensorSyncEvent (void)

void	CAPT_bypassFSM (void)

void	CAPT_engageFSM (void)

void	CAPT_applySensorFreq (uint8_t freqSelect, tSensor *pSensor)

void	CAPT_setCycleIO (tSensor pSensor, tCycle pCycle)

void	CAPT_clearCycleIO (tSensor pSensor, tCycle pCycle)

void	CAPT_applyCycleComp (uint8_t freqOffset, tCycle *pCycle)

void	CAPT_applyAutoMultiFreqCycleComp (tCycle *pCycle)

void	CAPT_applyCycleFSM (tCycle *pCycle)

void	CAPT_enableISR (uint16_t interruptEnable)

void	CAPT_disableISR (uint16_t interruptDisable)

void	CAPT_setCAPSTART (void)

void	CAPT_clearCAPSTART (void)

void	CAPT_saveCycleRawResults (uint8_t indexFreq, tSensor pSensor, tCycle pCycle)

void	CAPT_saveCycleResults (tSensor pSensor, tCycle pCycle)

void	CAPT_saveCycleResultsAutoMultiFreq (tSensor pSensor, tCycle pCycle)

void	CAPT_selectCCounterInterval (uint8_t counterSel)

void	CAPT_clearCCounter (void)

void	CAPT_startCCounter (void)

void	CAPT_stopCCounter (void)

void	CAPT_selectTimerSourceDivider (uint8_t sourceDiv)

void	CAPT_selectTimerSource (uint8_t source)

void	CAPT_enableTimerTrigMeasurement (void)

void	CAPT_disableTimerTrigMeasurement (void)

void	CAPT_clearTimer (void)

void	CAPT_startTimer (void)

void	CAPT_stopTimer (void)

uint16_t	CAPT_readTimerRegister (void)

uint16_t	CAPT_readTimerCompRegister (void)

void	CAPT_writeTimerCompRegister (uint16_t compRegister)

void	CAPT_powerOff (void)

void	CAPT_powerOn (void)

void	CAPT_setChannelActive (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_setChannelEnable (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_setChannelOffState (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_setChannelOnState (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_clearChannelActive (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_clearChannelEnable (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_clearChannelOffState (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_clearChannelOnState (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_writeCoarseGain (uint8_t ui8Block, uint8_t ui8Value)

uint8_t	CAPT_readCoarseGain (uint8_t ui8Block)

void	CAPT_writeFineGain (uint8_t ui8Block, uint8_t ui8Value)

uint8_t	CAPT_readFineGain (uint8_t ui8Block)

void	CAPT_writeOffsetTap (uint8_t ui8Block, uint16_t ui16Value)

uint16_t	CAPT_readOffsetTap (uint8_t ui8Block)

uint16_t	CAPT_readConversion (uint8_t ui8Block)

void	CAPT_setCAPLPMCFG (void)

void	CAPT_clearCAPLPMCFG (void)

uint16_t	CAPT_pollIFG (uint16_t ui16InterruptMask)

void	CAPT_clearIFG (uint16_t ui16InterruptMask)

uint16_t	CAPT_getInterruptVector (void)

void	CAPT_enableShieldIO (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_disableShieldIO (uint8_t ui8Block, uint8_t ui8Pin)

void	CAPT_selectElectrodeChargeVoltageSource (tElectrodeChargeVoltageSourceSelectStyle electrodeChargeVoltageSourceSelectStyle)

void	CAPT_selectOversamplingCount (tOversamplingStyle oversamplingStyle)

bool	CAPT_isFrequencyHopping (void)

void	CAPT_enableFrequencyHopping (void)

void	CAPT_disableFrequencyHopping (void)

tInputImpedanceBiasCurrent	CAPT_getInputImpedanceBiasCurrent (void)

void	CAPT_clearInputImpedanceBiasCurrent (void)

void	CAPT_selectInputImpedanceBiasCurrent (tInputImpedanceBiasCurrent biasCurrent)

void	CAPT_selectInputImpedanceBiasCurrentTrim (uint8_t trim, tElement *pElement)

IQ16_t	CAPT_readLTA (uint8_t ui8Block)

Detailed Description

Low level CapTIvate configuration and peripheral hardware abstraction module.

This module contains low-level APIs for accessing the CapTIvate™ IP. Some functions are a direct access of the CapTIvate™ registers while others take the definitions (see CAPT_Type.h) and place the appropriate values in the CapTIvate™ peripheral registers.

Version: VERSION Released on RELEASE_DATE

Macro Definition Documentation

§ CAPT_TIMER_SRC_ACLK

#define CAPT_TIMER_SRC_ACLK (0x00)

§ CAPT_TIMER_SRC_VLOCLK

#define CAPT_TIMER_SRC_VLOCLK (0x01)

§ CAPT_TIMER_CLKDIV__1

#define CAPT_TIMER_CLKDIV__1 (0x00)

§ CAPT_TIMER_CLKDIV__2

#define CAPT_TIMER_CLKDIV__2 (0x01)

§ CAPT_TIMER_CLKDIV__4

#define CAPT_TIMER_CLKDIV__4 (0x02)

§ CAPT_TIMER_CLKDIV__8

#define CAPT_TIMER_CLKDIV__8 (0x03)

§ CAPT_TIMER_CLKDIV__16

#define CAPT_TIMER_CLKDIV__16 (0x04)

§ CAPT_TIMER_CLKDIV__32

#define CAPT_TIMER_CLKDIV__32 (0x05)

§ CAPT_TIMER_CLKDIV__64

#define CAPT_TIMER_CLKDIV__64 (0x06)

§ CAPT_TIMER_CLKDIV__128

#define CAPT_TIMER_CLKDIV__128 (0x07)

§ CAPT_COUNTER__16

#define CAPT_COUNTER__16 (0x00)

§ CAPT_COUNTER__32

#define CAPT_COUNTER__32 (0x01)

§ CAPT_COUNTER__64

#define CAPT_COUNTER__64 (0x02)

§ CAPT_COUNTER__128

#define CAPT_COUNTER__128 (0x03)

§ CAPT_COUNTER__256

#define CAPT_COUNTER__256 (0x04)

§ CAPT_COUNTER__512

#define CAPT_COUNTER__512 (0x05)

§ CAPT_COUNTER__1024

#define CAPT_COUNTER__1024 (0x06)

§ CAPT_COUNTER__2048

#define CAPT_COUNTER__2048 (0x07)

§ CAPT_COUNTER__DISABLED

#define CAPT_COUNTER__DISABLED (0x08)

§ CAPT_OSC_FREQ_DEFAULT

#define CAPT_OSC_FREQ_DEFAULT (0x00)

§ CAPT_OSC_FREQ_16MHZ

#define CAPT_OSC_FREQ_16MHZ (0x00)

§ CAPT_OSC_FREQ_14P7MHZ

#define CAPT_OSC_FREQ_14P7MHZ (0x01)

§ CAPT_OSC_FREQ_13P1MHZ

#define CAPT_OSC_FREQ_13P1MHZ (0x02)

§ CAPT_OSC_FREQ_11P2MHZ

#define CAPT_OSC_FREQ_11P2MHZ (0x03)

§ CAPT_REFERENCE_CAP__SELF_1P0PF

#define CAPT_REFERENCE_CAP__SELF_1P0PF (0x00)

§ CAPT_REFERENCE_CAP__SELF_1P1PF

#define CAPT_REFERENCE_CAP__SELF_1P1PF (0x04)

§ CAPT_REFERENCE_CAP__SELF_1P5PF

#define CAPT_REFERENCE_CAP__SELF_1P5PF (0x05)

§ CAPT_REFERENCE_CAP__SELF_5P0PF

#define CAPT_REFERENCE_CAP__SELF_5P0PF (0x02)

§ CAPT_REFERENCE_CAP__SELF_5P1PF

#define CAPT_REFERENCE_CAP__SELF_5P1PF (0x06)

§ CAPT_REFERENCE_CAP__SELF_5P5PF

#define CAPT_REFERENCE_CAP__SELF_5P5PF (0x07)

§ CAPT_REFERENCE_CAP__MUTUAL_0P1PFM_1P0PF

#define CAPT_REFERENCE_CAP__MUTUAL_0P1PFM_1P0PF (0x00)

§ CAPT_REFERENCE_CAP__MUTUAL_0P5PFM_1P0PF

#define CAPT_REFERENCE_CAP__MUTUAL_0P5PFM_1P0PF (0x01)

§ CAPT_REFERENCE_CAP__MUTUAL_0P1PFM_5P0PF

#define CAPT_REFERENCE_CAP__MUTUAL_0P1PFM_5P0PF (0x02)

§ CAPT_REFERENCE_CAP__MUTUAL_0P5PFM_5P0PF

#define CAPT_REFERENCE_CAP__MUTUAL_0P5PFM_5P0PF (0x03)

§ CAPT_COARSEGAIN_0

#define CAPT_COARSEGAIN_0 (0x00)

§ CAPT_COARSEGAIN_1

#define CAPT_COARSEGAIN_1 (0x01)

§ CAPT_COARSEGAIN_2

#define CAPT_COARSEGAIN_2 (0x02)

§ CAPT_COARSEGAIN_3

#define CAPT_COARSEGAIN_3 (0x03)

§ CAPT_COARSEGAIN_4

#define CAPT_COARSEGAIN_4 (0x04)

§ CAPT_COARSEGAIN_5

#define CAPT_COARSEGAIN_5 (0x05)

§ CAPT_COARSEGAIN_6

#define CAPT_COARSEGAIN_6 (0x06)

§ CAPT_COARSEGAIN_7

#define CAPT_COARSEGAIN_7 (0x07)

§ CAPT_COARSEGAIN_MIN

#define CAPT_COARSEGAIN_MIN (CAPT_COARSEGAIN_0)

§ CAPT_COARSEGAIN_MAX

#define CAPT_COARSEGAIN_MAX (CAPT_COARSEGAIN_7)

§ CAPT_FINEGAIN_0

#define CAPT_FINEGAIN_0 (0x00)

§ CAPT_FINEGAIN_1

#define CAPT_FINEGAIN_1 (0x01)

§ CAPT_FINEGAIN_2

#define CAPT_FINEGAIN_2 (0x02)

§ CAPT_FINEGAIN_3

#define CAPT_FINEGAIN_3 (0x03)

§ CAPT_FINEGAIN_4

#define CAPT_FINEGAIN_4 (0x04)

§ CAPT_FINEGAIN_5

#define CAPT_FINEGAIN_5 (0x05)

§ CAPT_FINEGAIN_6

#define CAPT_FINEGAIN_6 (0x06)

§ CAPT_FINEGAIN_7

#define CAPT_FINEGAIN_7 (0x07)

§ CAPT_FINEGAIN_8

#define CAPT_FINEGAIN_8 (0x08)

§ CAPT_FINEGAIN_9

#define CAPT_FINEGAIN_9 (0x09)

§ CAPT_FINEGAIN_10

#define CAPT_FINEGAIN_10 (0x0A)

§ CAPT_FINEGAIN_11

#define CAPT_FINEGAIN_11 (0x0B)

§ CAPT_FINEGAIN_12

#define CAPT_FINEGAIN_12 (0x0C)

§ CAPT_FINEGAIN_13

#define CAPT_FINEGAIN_13 (0x0D)

§ CAPT_FINEGAIN_14

#define CAPT_FINEGAIN_14 (0x0E)

§ CAPT_FINEGAIN_15

#define CAPT_FINEGAIN_15 (0x0F)

§ CAPT_FINEGAIN_16

#define CAPT_FINEGAIN_16 (0x10)

§ CAPT_FINEGAIN_17

#define CAPT_FINEGAIN_17 (0x11)

§ CAPT_FINEGAIN_18

#define CAPT_FINEGAIN_18 (0x12)

§ CAPT_FINEGAIN_19

#define CAPT_FINEGAIN_19 (0x13)

§ CAPT_FINEGAIN_MIN

#define CAPT_FINEGAIN_MIN (CAPT_FINEGAIN_0)

§ CAPT_FINEGAIN_MAX

#define CAPT_FINEGAIN_MAX (CAPT_FINEGAIN_19)

§ CAPT_OFFSETTAP_MIN

#define CAPT_OFFSETTAP_MIN (0x00)

§ CAPT_OFFSETTAP_MAX

#define CAPT_OFFSETTAP_MAX (0xFF)

§ CAPT_OFFSETSCALE__VERYSMALL

#define CAPT_OFFSETSCALE__VERYSMALL (0x0000)

§ CAPT_OFFSETSCALE__SMALL

#define CAPT_OFFSETSCALE__SMALL (0x0100)

§ CAPT_OFFSETSCALE__LARGE

#define CAPT_OFFSETSCALE__LARGE (0x0200)

§ CAPT_OFFSETSCALE__VERYLARGE

#define CAPT_OFFSETSCALE__VERYLARGE (0x0300)

§ CAPT_OFFSETSCALE_MIN

#define CAPT_OFFSETSCALE_MIN (CAPT_OFFSETSCALE__VERYSMALL)

§ CAPT_OFFSETSCALE_MAX

#define CAPT_OFFSETSCALE_MAX (CAPT_OFFSETSCALE__VERYLARGE)

§ CAPT_END_OF_CONVERSION_INTERRUPT

#define CAPT_END_OF_CONVERSION_INTERRUPT (0x0001)

§ CAPT_DETECTION_INTERRUPT

#define CAPT_DETECTION_INTERRUPT (0x0002)

§ CAPT_TIMER_INTERRUPT

#define CAPT_TIMER_INTERRUPT (0x0004)

§ CAPT_CONVERSION_COUNTER_INTERRUPT

#define CAPT_CONVERSION_COUNTER_INTERRUPT (0x0008)

§ CAPT_MAX_COUNT_ERROR_INTERRUPT

#define CAPT_MAX_COUNT_ERROR_INTERRUPT (0x0100)

§ CAPT_IV_NO_INTERRUPT

#define CAPT_IV_NO_INTERRUPT (0x0000)

§ CAPT_IV_END_OF_CONVERSION

#define CAPT_IV_END_OF_CONVERSION (0x0002)

Referenced by CAPT_ISR().

§ CAPT_IV_DETECTION

#define CAPT_IV_DETECTION (0x0004)

Referenced by CAPT_ISR().

§ CAPT_IV_TIMER

#define CAPT_IV_TIMER (0x0006)

Referenced by CAPT_ISR().

§ CAPT_IV_CONVERSION_COUNTER

#define CAPT_IV_CONVERSION_COUNTER (0x0008)

Referenced by CAPT_ISR().

§ CAPT_IV_MAX_COUNT_ERROR

#define CAPT_IV_MAX_COUNT_ERROR (0x000A)

Referenced by CAPT_ISR().

Function Documentation

§ CAPT_init()

void CAPT_init ( void )

CAPT_init is not a ROM function. This function initializes global parameters of the CapTIvate peripheral that are independent of mode and application. This function should always be called once to initialize the peripheral after a reset.Initialize global settings for an application.

Parameters: none

Returns: none

Referenced by CAPT_initUI().

§ CAPT_pollResetStatus()

bool CAPT_pollResetStatus ( void )

Poll Reset Status Flag of the CapTIvate peripheral; 0, reset is not complete. This function is intended to be used after the CAPT_reset() function to determine that the peripheral is ready.

Parameters: none

Returns: Reset State

§ CAPT_pollCIPF()

bool CAPT_pollCIPF ( void )

Poll Conversion in progress flag (CIPF); 0, no conversion in progress. The CIPF is not directly correlated to the conversion start: following a conversion start there is a period during which the CIPF is 0 before transitioning to a 1 when the actual convesion takes place.

Parameters: none

Returns: CIPF state

§ CAPT_reset()

void CAPT_reset ( void )

Reset the CapTIvate peripheral.

Parameters: none

Returns: none

§ CAPT_setStabilization()

void CAPT_setStabilization ( void )

Set Stabilization control bit. This bit is used whenever a conversion is predicated on a user controlled stabilization time. The stabilization control must be set before the conversion is started.

Parameters: none

Returns: none

§ CAPT_releaseStabilization()

void CAPT_releaseStabilization ( void )

Clear Stabilization control bit. This bit is used whenever a conversion is predicated on a user controlled stabilization time. Although the IO will be active, clearing the stabilization control bit will start the actual measurement.

Parameters: none

Returns: none

§ CAPT_enableRefCap()

void CAPT_enableRefCap	(	tElement *	pElement,
		uint8_t	capSize
	)

Enable a Reference cap for a specific block. The element definition, tElement.ui8RxBlock, is used to determine which block the reference capacitor is applied to. The reference capacitor size is defined in the following table: Size Self Value Mutual Value 0 1.0pF 0.1pF 1 1.0pF 0.5pF 2 5.0pF 0.1pF 3 5.0pF 0.5pF 4 1.1pF 0.1pF 5 1.5pF 0.1pF 6 5.1pF 0.1pF 7 5.5pF 0.1pF

Parameters

pElement	= pointer to element
capSize	= size of cap

Returns: none

§ CAPT_disableRefCap()

void CAPT_disableRefCap ( void )

Disable and Remove the Reference Capacitor from the measurement circuit.

Parameters: none

Returns: none

§ CAPT_enableSensorIO()

void CAPT_enableSensorIO ( tSensor * pSensor )

Enable all IO associated with a sensor. When a CapTIvate IO is enabled it is in the analog mode and the digital function is disabled. Before enabling the IO it is recommended to set the appropriate IO state as defined in the tSensor.bIdleState, with the CAPT_initSensorIO function.

Parameters

pSensor = pointer to sensor

Returns: none

§ CAPT_disableSensorIO()

void CAPT_disableSensorIO ( tSensor * pSensor )

Disable all IO associated with a sensor.

Parameters

pSensor = pointer to sensor

Returns: none

§ CAPT_initSensorIO()

void CAPT_initSensorIO ( tSensor * pSensor )

This function configures the active (Rx or Tx) and inactive (High-z or GND) states of the captivate channels, for a given sensor, as well as initialize the IO to the inactive state.

Parameters

pSensor = pointer to sensor

Returns: none

§ CAPT_forceSensorIO()

void CAPT_forceSensorIO	(	tSenseTechnology	rxBarTx,
		tSensor *	pSensor
	)

Set all Sensor IO to Tx or Rx based upon parameter passed. Also make these active.

Parameters

rxBarTx	= Set to Rx if eSelf (0) or Tx if eProjected (1)
pSensor	= pointer to sensor

Returns: none

§ CAPT_applySensorParams()

void CAPT_applySensorParams ( tSensor * pSensor )

Initialize Sensor specific settings that will remain constant for all cycles within the Sensor. Parameters Applied: tSensor.SensingMethod tSensor.DirectionOfInterest tSensor.ui16NegativeTouchThreshold tSensor.ui16ProxThreshold tSensor.bModEnable tSensor.ui8BiasControl tSensor.bCsDischarge tSensor.bLPMControl tSensor.ui8InputSyncControl tSensor.bTimerSyncControl tSensor.ui8ChargeLength tSensor.ui8TransferLength tSensor.ui16ErrorThreshold tSensor.ui8CntBeta tSensor.ui8LTABeta tSensor.bSensorHalt tSensor.bPTSensorHalt tSensor.bSensorTouch tSensor.bSensorProx

Parameters

pSensor = pointer to sensor

Returns: none

§ CAPT_enableSensorSyncEvent()

void CAPT_enableSensorSyncEvent ( void )

Enable Sync event. When enabled the start of conversion is gated by the edge of the SYNC pin.

Parameters: none

Returns: none

§ CAPT_disableSensorSyncEvent()

void CAPT_disableSensorSyncEvent ( void )

Disable Sync event.

Parameters: none

Returns: none

§ CAPT_bypassFSM()

void CAPT_bypassFSM ( void )

Bypass FSM. Bypassing the FSM only the maximum count and end of conversion IFGs are updated.

Parameters: none

Returns: none.

§ CAPT_engageFSM()

void CAPT_engageFSM ( void )

Engage FSM. The Finite State Machine (FSM), performs several post measurement filters for the LTA, and measurement filter count as well as well as detection logic.

Parameters: none

Returns: none

§ CAPT_applySensorFreq()

void CAPT_applySensorFreq	(	uint8_t	freqSelect,
		tSensor *	pSensor
	)

Apply the Sensor frequency divider and for the requested frequency select. This frequency is consistent for all elements within the cycle. freqSelect Frequency 0 16Mhz 1 14.7Mhz 2 13.1Mhz 3 11.2Mhz

Parameters

freqSelect	= frequency
pSensor	= pointer to sensor

Returns: none

§ CAPT_setCycleIO()

void CAPT_setCycleIO	(	tSensor *	pSensor,
		tCycle *	pCycle
	)

Initialize cycle IO parameters. Set to active the channels required for the cycle measurement. The peripheral will manage the IO state transitioning the active channels between the defined active state (Rx or Tx) when actively measuring capacitance and the inactive state (GND or High-Z) when the measurement is complete. All channels that are not active but enabled will remain in their inactive state.

Parameters

pSensor	= pointer to sensor
pCycle	= pointer to cycle

Returns: none

§ CAPT_clearCycleIO()

void CAPT_clearCycleIO	(	tSensor *	pSensor,
		tCycle *	pCycle
	)

Clear cycle IO parameters. Clear active channels.

Parameters

pSensor	= pointer to sensor
pCycle	= pointer to cycle

Returns: none

§ CAPT_applyCycleComp()

void CAPT_applyCycleComp	(	uint8_t	freqOffset,
		tCycle *	pCycle
	)

Initialize cycle level parameters. These parameters are consistent for all elements within the cycle.

Parameters

freqOffset	= offset to indicate which frequency is being measured
pCycle	= pointer to cycle

Returns: none

§ CAPT_applyAutoMultiFreqCycleComp()

void CAPT_applyAutoMultiFreqCycleComp ( tCycle * pCycle )

Only valid on certain devices, please consult device-specific datasheet. Initialize cycle level parameters when using the hardware FSM to frequency hop. Only available on devices that support hardware frequency hopping. Loads all parameters necessary to perform a full frequency hop operation.

Parameters

pCycle = pointer to cycle

Returns: none

§ CAPT_applyCycleFSM()

void CAPT_applyCycleFSM ( tCycle * pCycle )

Apply cycle level parameters. These parameters are consistent for all elements within the cycle.

Parameters

pCycle = pointer to cycle

Returns: none

§ CAPT_enableISR()

void CAPT_enableISR ( uint16_t interruptEnable )

Enable ISR. The interrupts are defined as follows: BIT0 End of Conversion interrupt enable BIT1 CapTIvate detection interrupt enable BIT2 CapTIvate Timer interrupt enable BIT3 CapTIvate Conversion Counter interrupt enable BIT8 CapTIvate maximum count error interrupt enable

Parameters

interruptEnable = Interrupt(s) to enable

Returns: none

§ CAPT_disableISR()

void CAPT_disableISR ( uint16_t interruptDisable )

Disable ISR. The interrupts are defined as follows: BIT0 End of Conversion interrupt disable BIT1 CapTIvate detection interrupt disable BIT2 CapTIvate Timer interrupt disable BIT3 CapTIvate Conversion Counter interrupt disable BIT8 CapTIvate maximum count error interrupt disable

Parameters

interruptDisable = Interrupt(s) to disable

Returns: none

§ CAPT_setCAPSTART()

void CAPT_setCAPSTART ( void )

Set the cycle conversion bit. If the CAPPWR bit is set (call CAPT_powerOn), then setting the cycle conversion bit will start the conversion process - the actual conversion (indicated by CAPT_pollCIPF returning a '1') will take place after the stabilization time. If the SYNC enable is set, either via the sensor configuration and CAPT_applySensor API or the CAPT_enableSensorSyncEvent API, then the conversion will be gate by the SYNC event (rising/falling edge) on the SYNC pin.

Parameters: none

Returns: none

§ CAPT_clearCAPSTART()

void CAPT_clearCAPSTART ( void )

Clear the cycle conversion bit. When the conversion is in progress, calling CAPT_clearCAPSTART will stop the conversion.

Parameters: none

Returns: none

§ CAPT_saveCycleRawResults()

void CAPT_saveCycleRawResults	(	uint8_t	indexFreq,
		tSensor *	pSensor,
		tCycle *	pCycle
	)

Save the current status of the peripheral into the data structures of Raw measurement information is stored in: pCycle->pElement[n]->pRawCount[indexFreq], where n is 0 to pCycle.ui8NumberofElements If there is a maximum count error, then the bit pSensor->bMaxCountError is set and the value in pCycle->pElement[n]->pRawCount[indexFreq] is cleared.

Parameters

indexFreq	= save results for selected frequency.
pSensor	= pointer to sensor.
pCycle	= pointer to cycle.

Returns: none

§ CAPT_saveCycleResults()

void CAPT_saveCycleResults	(	tSensor *	pSensor,
		tCycle *	pCycle
	)

Save filter results, pElements[n]->LTA and pElements[n]->filterCount, and status bits, pElements[n]->bDetect and pElements[n]->bNegativeTouch, in addition to what is saved in CAPT_saveCycleRawResults from the peripheral.

Parameters

pSensor	= pointer to sensor.
pCycle	= pointer to cycle.

Returns: none

§ CAPT_saveCycleResultsAutoMultiFreq()

void CAPT_saveCycleResultsAutoMultiFreq	(	tSensor *	pSensor,
		tCycle *	pCycle
	)

Only valid on certain devices, please consult device-specific datasheet. To be used for Automatic (Hardware) Multiple Frequency use cases only: transfer of Memory Mapped Registers to SRAM structs is slightly different.

Save filter results, pElements[n]->LTA and pElements[n]->filterCount, and status bits, pElements[n]->bDetect and pElements[n]->bNegativeTouch, in addition to what is saved in CAPT_saveCycleRawResults from the peripheral.

Parameters

pSensor	= pointer to sensor.
pCycle	= pointer to cycle.

Returns: none

§ CAPT_selectCCounterInterval()

void CAPT_selectCCounterInterval ( uint8_t counterSel )

Select the CapTIvate™ counter interval. The input represents the number of conversions until a counter overflow event, CAPCNTRIFG. counterSel Number of Conversions 0 16 1 32 2 64 3 128 4 256 5 512 6 1024 7 2048

Parameters

counterSel = counter selection

Returns: none

§ CAPT_clearCCounter()

void CAPT_clearCCounter ( void )

Clear the CapTIvate™ counter interval.

Parameters: none

Returns: none

§ CAPT_startCCounter()

void CAPT_startCCounter ( void )

Start (enable) the CapTIvate™ counter interval.

Parameters: none

Returns: none

§ CAPT_stopCCounter()

void CAPT_stopCCounter ( void )

Stop (disable) the CapTIvate™ counter interval.

Parameters: none

Returns: none

§ CAPT_selectTimerSourceDivider()

void CAPT_selectTimerSourceDivider ( uint8_t sourceDiv )

Select the input divider to the CapTIvate™ timer.

Parameters

sourceDiv = time source divider

Returns: none

§ CAPT_selectTimerSource()

void CAPT_selectTimerSource ( uint8_t source )

Select the input source to the CapTIvate™ timer.

Parameters

source = timer source selection

Returns: none

§ CAPT_enableTimerTrigMeasurement()

void CAPT_enableTimerTrigMeasurement ( void )

Enable measurements to be triggered from CapTIvate™ timer. Set CAPTCCTRL0:CAPTCONV

Parameters: none

Returns: none

§ CAPT_disableTimerTrigMeasurement()

void CAPT_disableTimerTrigMeasurement ( void )

Disable measurements to be triggered from CapTIvate™ timer. Clear CAPTCCTRL0:CAPTCONV

Parameters: none

Returns: none

§ CAPT_clearTimer()

void CAPT_clearTimer ( void )

Clear the CapTIvate™ timer.

Parameters: none

Returns: none

§ CAPT_startTimer()

void CAPT_startTimer ( void )

Start (enable) the CapTIvate™ timer.

Parameters: none

Returns: none

§ CAPT_stopTimer()

void CAPT_stopTimer ( void )

Stop (disable) the CapTIvate™ timer.

Parameters: none

Returns: none

§ CAPT_readTimerRegister()

uint16_t CAPT_readTimerRegister ( void )

Stop (disable) the CapTIvate™ timer.

Parameters: none

Returns: timer contents

§ CAPT_readTimerCompRegister()

uint16_t CAPT_readTimerCompRegister ( void )

Read value from timer compare register.

Parameters: none

Returns: Compare Register Value

§ CAPT_writeTimerCompRegister()

void CAPT_writeTimerCompRegister ( uint16_t compRegister )

Write value into timer compare register.

Parameters

compRegister = Compare Register Value

Returns: none

§ CAPT_powerOff()

void CAPT_powerOff ( void )

Turn off the CapTIvate™ IP.

Parameters: none

Returns: Compare Register Value

§ CAPT_powerOn()

void CAPT_powerOn ( void )

Turn on the CapTIvate™ IP.

Parameters: none

Returns: Compare Register Value

§ CAPT_setChannelActive()

void CAPT_setChannelActive	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Activate specific IO channel, CAPx.y, ui8Block-> x, ui8Pin->y. When a conversion is started then this IO will enter either a Tx or Rx mode of operation.

Parameters

ui8Block	= select block
ui8Pin	= select pin

Returns: none

§ CAPT_setChannelEnable()

void CAPT_setChannelEnable	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Enable a specific IO channel, CAPx.y, ui8Block-> x, ui8Pin->y.

Parameters

ui8Block	= select block
ui8Pin	= select pin

Returns: none

§ CAPT_setChannelOffState()

void CAPT_setChannelOffState	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Set off state for specific IO channel, CAPx.y, ui8Block-> x, ui8Pin->y. This puts the IO into the Ground state when enabled and not active.

Parameters

ui8Block	= select block
ui8Pin	= select pin

Returns: none

§ CAPT_setChannelOnState()

void CAPT_setChannelOnState	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Set on state for specific IO channel, CAPx.y, ui8Block-> x, ui8Pin->y. This puts the IO into the Rx mode. The mode, mutual or self, is defined by the sensor parameter tSensor.SensingMethod and applied by API CAPT_apply_SensorParams. The default setting for the block is self mode.

Parameters

ui8Block	= select block
ui8Pin	= select pin

Returns: none

§ CAPT_clearChannelActive()

void CAPT_clearChannelActive	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Activate a specific IO channel, CAPx.y, ui8Block-> x, ui8Pin->y.

Parameters

ui8Block	= select block
ui8Pin	= select pin

Returns: none

§ CAPT_clearChannelEnable()

void CAPT_clearChannelEnable	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Enable a specific IO channel, CAPx.y, ui8Block-> x, ui8Pin->y.

Parameters

ui8Block	= select block
ui8Pin	= select pin

Returns: none

§ CAPT_clearChannelOffState()

void CAPT_clearChannelOffState	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Clear off state for specific IO channel, CAPx.y, ui8Block-> x, ui8Pin->y.

Parameters

ui8Block	= select block
ui8Pin	= select pin

Returns: none

§ CAPT_clearChannelOnState()

void CAPT_clearChannelOnState	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Set on state for specific IO channel, CAPx.y, ui8Block-> x, ui8Pin->y.

Parameters

ui8Block	= select block
ui8Pin	= select pin

Returns: none

§ CAPT_writeCoarseGain()

void CAPT_writeCoarseGain	(	uint8_t	ui8Block,
		uint8_t	ui8Value
	)

Write Coarse Gain value to Block Compensation.

Parameters

ui8Block	= select block
ui8Value	= value

Returns: none

§ CAPT_readCoarseGain()

uint8_t CAPT_readCoarseGain ( uint8_t ui8Block )

Read Coarse Gain value from Block Compensation.

Parameters

ui8Block = select block

Returns: 8-bit coarse gain value

§ CAPT_writeFineGain()

void CAPT_writeFineGain	(	uint8_t	ui8Block,
		uint8_t	ui8Value
	)

Write Fine Gain value to Block Compensation.

Parameters

ui8Block	= select block
ui8Value	= value

Returns: none

§ CAPT_readFineGain()

uint8_t CAPT_readFineGain ( uint8_t ui8Block )

Read Fine Gain value from Block Compensation.

Parameters

ui8Block = select block

Returns: 8-bit fine gain value

§ CAPT_writeOffsetTap()

void CAPT_writeOffsetTap	(	uint8_t	ui8Block,
		uint16_t	ui16Value
	)

Write Offset Tap value to Block Compensation.

Parameters

ui8Block	= select block
ui16Value	= offsetvalue

Returns: none

§ CAPT_readOffsetTap()

uint16_t CAPT_readOffsetTap ( uint8_t ui8Block )

Read Offset Tap value from Block Compensation.

Parameters

ui8Block = select block

Returns: 16-bit offset tap value

§ CAPT_readConversion()

uint16_t CAPT_readConversion ( uint8_t ui8Block )

Read Conversion value from Block.

Parameters

ui8Block = select block

Returns: 16-bit conversion value

§ CAPT_setCAPLPMCFG()

void CAPT_setCAPLPMCFG ( void )

Set CAPLPMCFG.

Parameters: none

Returns: none

§ CAPT_clearCAPLPMCFG()

void CAPT_clearCAPLPMCFG ( void )

Clear CAPLPMCFG.

Parameters: none

Returns: none

§ CAPT_pollIFG()

uint16_t CAPT_pollIFG ( uint16_t ui16InterruptMask )

Poll a CapTIvate™ peripheral interrupt flag.

Parameters

ui16InterruptMask is a bit mask of the interrupts to test.

Returns: interrupt flags that are set

§ CAPT_clearIFG()

void CAPT_clearIFG ( uint16_t ui16InterruptMask )

Clear a Captivate peripheral interrupt flag. The bit mask is defined as: BIT0 -> End Of Conversion IFG BIT1 -> Detection IFG BIT2 -> CapTIvate Timer IFG (number of clock cycles) BIT3 -> CapTIvate Counter IFG (number of conversion cycles)

BIT8 -> Maximum Count Error IFG

Parameters

ui16InterruptMask is a bit mask of the interrupt flags to clear.

Returns: none.

§ CAPT_getInterruptVector()

uint16_t CAPT_getInterruptVector ( void )

Retrieve the CapTIvate™ peripheral interrupt vector register

Parameters

none.

Returns: current value of the CapTIvate™ IV register.

Referenced by CAPT_ISR().

§ CAPT_enableShieldIO()

void CAPT_enableShieldIO	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Enable a CapTIvate IO to be a shield.

Parameters

ui8Block	is the CapTIvate block that the shield resides on.
ui8Pin	is the pin on the block that the shield is connected to.

Returns: None.

§ CAPT_disableShieldIO()

void CAPT_disableShieldIO	(	uint8_t	ui8Block,
		uint8_t	ui8Pin
	)

Disable a CapTIvate shield IO.

Parameters

ui8Block	is the CapTIvate block that the shield resides on.
ui8Pin	is the pin on the block that the shield is connected to.

Returns: None.

§ CAPT_selectElectrodeChargeVoltageSource()

void CAPT_selectElectrodeChargeVoltageSource ( tElectrodeChargeVoltageSourceSelectStyle electrodeChargeVoltageSourceSelectStyle )

Only valid on certain devices, please consult device-specific datasheet. Select CapTIvate electrode charge voltage source supply, which is used for sensing. You should only change sources when there is no conversion in progress.

Parameters

electrodeChargeVoltageSourceSelectStyle

is the voltage source used to supply electrode charging. Valid values are:

eVRegSupply
eDVCCSupply

Returns: None.

Referenced by CAPT_initUI().

§ CAPT_selectOversamplingCount()

void CAPT_selectOversamplingCount ( tOversamplingStyle oversamplingStyle )

Only valid on certain devices, please consult device-specific datasheet. Select CapTIvate oversampling count.

Parameters

oversamplingCount

is the number of data samples measured during FSM oversampling operation Valid values are:

eNoOversampling
e2xOversampling
e4xOversampling
e8xOversampling

Returns: None.

§ CAPT_isFrequencyHopping()

bool CAPT_isFrequencyHopping ( void )

Only valid on certain devices, please consult device-specific datasheet. Returns whether FSM-based autonomous frequency hopping is enabled or disabled.

Parameters

none.

Returns: true if FSM-based autonomous frequency hopping is enabled, false if FSM-based autonomous frequency hopping is disabled.

§ CAPT_enableFrequencyHopping()

void CAPT_enableFrequencyHopping ( void )

Only valid on certain devices, please consult device-specific datasheet. Enable FSM-based autonomous frequency hopping, which improves noise immunity. Conversion frequency hops amongst the 4 preset values. Set CAPFSMCTRL0:FHOPEN

Parameters: none

Returns: none

§ CAPT_disableFrequencyHopping()

void CAPT_disableFrequencyHopping ( void )

Only valid on certain devices, please consult device-specific datasheet. Disable FSM-based autonomous frequency hopping. Conversion frequency is fixed. Clear CAPFSMCTRL0:FHOPEN

Parameters: none

Returns: none

§ CAPT_getInputImpedanceBiasCurrent()

tInputImpedanceBiasCurrent CAPT_getInputImpedanceBiasCurrent ( void )

Only valid on certain devices, please consult device-specific datasheet. Returns level of input impedance bias current. Get CAPCTRL1:LOWRIN

Parameters

none.

Returns

enum tInputImpedanceBiasCurrent, level of bias current Valid values are:

eZeroIbias
eIbiasSelf25Mutual10
eIbiasSelf50Mutual10
eIbiasSelf100Mutual10

§ CAPT_clearInputImpedanceBiasCurrent()

void CAPT_clearInputImpedanceBiasCurrent ( void )

Only valid on certain devices, please consult device-specific datasheet. Disables input impedance bias current to zero. Clear CAPCTRL1:LOWRIN

Parameters: none

Returns: none

§ CAPT_selectInputImpedanceBiasCurrent()

void CAPT_selectInputImpedanceBiasCurrent ( tInputImpedanceBiasCurrent biasCurrent )

Only valid on certain devices, please consult device-specific datasheet. Select CapTIvate input impedance bias current.

Parameters

biasCurrent

is the strength of the input impedance bias current Valid values are:

eZeroIbias
eIbiasSelf25Mutual10
eIbiasSelf50Mutual10
eIbiasSelf100Mutual10

Returns: None.

Referenced by CAPT_initUI().

§ CAPT_selectInputImpedanceBiasCurrentTrim()

void CAPT_selectInputImpedanceBiasCurrentTrim	(	uint8_t	trim,
		tElement *	pElement
	)

Only valid on certain devices, please consult device-specific datasheet. Select CapTIvate input impedance bias current trim. Helps to calibrate how much current is removed based on input impedance bias current Trim is applied per block, while the bias current is for whole system.

Parameters

trim	is the strength of the input impedance bias current extraction Valid values are 0-7.
pElement	is the pointer to element about to utilize the trim.

Returns: None.

§ CAPT_readLTA()

IQ16_t CAPT_readLTA ( uint8_t ui8Block )

Read LTA value from Block.

Parameters

ui8Block = select block

Returns: IQ16_t of the LTA

Macros

Functions

Detailed Description

Macro Definition Documentation

§ CAPT_TIMER_SRC_ACLK

§ CAPT_TIMER_SRC_VLOCLK

§ CAPT_TIMER_CLKDIV__1

§ CAPT_TIMER_CLKDIV__2

§ CAPT_TIMER_CLKDIV__4

§ CAPT_TIMER_CLKDIV__8

§ CAPT_TIMER_CLKDIV__16

§ CAPT_TIMER_CLKDIV__32

§ CAPT_TIMER_CLKDIV__64

§ CAPT_TIMER_CLKDIV__128

§ CAPT_COUNTER__16

§ CAPT_COUNTER__32

§ CAPT_COUNTER__64

§ CAPT_COUNTER__128

§ CAPT_COUNTER__256

§ CAPT_COUNTER__512

§ CAPT_COUNTER__1024

§ CAPT_COUNTER__2048

§ CAPT_COUNTER__DISABLED

§ CAPT_OSC_FREQ_DEFAULT

§ CAPT_OSC_FREQ_16MHZ

§ CAPT_OSC_FREQ_14P7MHZ

§ CAPT_OSC_FREQ_13P1MHZ

§ CAPT_OSC_FREQ_11P2MHZ

§ CAPT_REFERENCE_CAP__SELF_1P0PF

§ CAPT_REFERENCE_CAP__SELF_1P1PF

§ CAPT_REFERENCE_CAP__SELF_1P5PF

§ CAPT_REFERENCE_CAP__SELF_5P0PF

§ CAPT_REFERENCE_CAP__SELF_5P1PF

§ CAPT_REFERENCE_CAP__SELF_5P5PF

§ CAPT_REFERENCE_CAP__MUTUAL_0P1PFM_1P0PF

§ CAPT_REFERENCE_CAP__MUTUAL_0P5PFM_1P0PF

§ CAPT_REFERENCE_CAP__MUTUAL_0P1PFM_5P0PF

§ CAPT_REFERENCE_CAP__MUTUAL_0P5PFM_5P0PF

§ CAPT_COARSEGAIN_0

§ CAPT_COARSEGAIN_1

§ CAPT_COARSEGAIN_2

§ CAPT_COARSEGAIN_3

§ CAPT_COARSEGAIN_4

§ CAPT_COARSEGAIN_5

§ CAPT_COARSEGAIN_6

§ CAPT_COARSEGAIN_7

§ CAPT_COARSEGAIN_MIN

§ CAPT_COARSEGAIN_MAX

§ CAPT_FINEGAIN_0

§ CAPT_FINEGAIN_1

§ CAPT_FINEGAIN_2

§ CAPT_FINEGAIN_3

§ CAPT_FINEGAIN_4

§ CAPT_FINEGAIN_5

§ CAPT_FINEGAIN_6

§ CAPT_FINEGAIN_7

§ CAPT_FINEGAIN_8

§ CAPT_FINEGAIN_9

§ CAPT_FINEGAIN_10

§ CAPT_FINEGAIN_11

§ CAPT_FINEGAIN_12

§ CAPT_FINEGAIN_13

§ CAPT_FINEGAIN_14

§ CAPT_FINEGAIN_15

§ CAPT_FINEGAIN_16

§ CAPT_FINEGAIN_17

§ CAPT_FINEGAIN_18

§ CAPT_FINEGAIN_19

§ CAPT_FINEGAIN_MIN

§ CAPT_FINEGAIN_MAX

§ CAPT_OFFSETTAP_MIN

§ CAPT_OFFSETTAP_MAX

§ CAPT_OFFSETSCALE__VERYSMALL

§ CAPT_OFFSETSCALE__SMALL

§ CAPT_OFFSETSCALE__LARGE

§ CAPT_OFFSETSCALE__VERYLARGE

§ CAPT_OFFSETSCALE_MIN

§ CAPT_OFFSETSCALE_MAX

§ CAPT_END_OF_CONVERSION_INTERRUPT

§ CAPT_DETECTION_INTERRUPT