#include <indata.h>

Inheritance diagram for InData:

Collaboration diagram for InData:

Public Types
enum	RefType { RefDifferential =0, RefCommon =1, RefGround =2, RefOther =3 }

typedef InDataIterator	const_iterator

typedef InDataTimeIterator	const_range_iterator

Public Types inherited from CyclicSampleData< T >
typedef double	range_type

typedef LinearRangeIterator	const_range_iterator

Public Types inherited from CyclicArray< T >
typedef T	value_type

typedef T *	pointer

typedef T &	reference

typedef const T &	const_reference

typedef int	size_type

Public Member Functions
	InData (void)

	InData (int n, double step)

	InData (int n, int m, double step)

	InData (const InData *d)

	InData (const InData &data)

virtual	~InData (void)

const InData &	operator= (const InData &data)

const InData &	assign (const InData *data)

const InData &	assign (void)

void	copy (int first, int last, OutData &data, const string &name="") const

void	copy (double tbegin, double tend, OutData &data, const string &name="") const

void	copy (double time, SampleDataF &trace) const

void	copy (double time, SampleDataD &trace) const

string	errorMessage (void) const

int	writeBufferCapacity (void) const

void	setWriteBufferCapacity (int m)

void	clear (void)

virtual int	accessibleSize (void) const

int	currentIndex (void) const

double	currentTime (void) const

virtual int	minIndex (void) const

double	minTime (void) const

virtual double	minPos (void) const

int	maxIndex (void) const

double	maxTime (void) const

int	signalIndex (void) const

double	signalTime (void) const

void	setSignalIndex (int index)

void	setSignalTime (double time)

int	restartIndex (void) const

double	restartTime (void) const

void	setRestart (void)

void	setRestartTime (double restarttime)

void	update (void)

virtual int	readSize (void) const

double	minValue (void) const

double	maxValue (void) const

void	setMinValue (double minv)

void	setMaxValue (double maxv)

double	voltage (int index) const

double	getVoltage (double val) const

double	minVoltage (void) const

double	maxVoltage (void) const

void	setMinVoltage (double minv)

void	setMaxVoltage (double maxv)

const_iterator	begin (void) const

const_iterator	begin (double time) const

const_iterator	minBegin (void) const

const_iterator	end (void) const

const_range_iterator	timeBegin (void) const

const_range_iterator	timeBegin (double time) const

const_range_iterator	minTimeBegin (void) const

const_range_iterator	timeEnd (void) const

double	sampleRate (void) const

void	setSampleRate (double rate)

double	sampleInterval (void) const

void	setSampleInterval (double step)

double	delay (void) const

void	setDelay (double delay)

int	startSource (void) const

void	setStartSource (int startsource)

bool	priority (void) const

void	setPriority (bool priority=true)

bool	continuous (void) const

void	setContinuous (bool continuous=true)

int	device (void) const

void	setDevice (int device)

int	channel (void) const

void	setChannel (int channel)

void	setChannel (int channel, int device)

bool	rawChannel (void) const

bool	paramChannel (void) const

int	trace (void) const

void	setTrace (int trace)

string	ident (void) const

void	setIdent (const string &ident)

RefType	reference (void) const

string	referenceStr (void) const

void	setReference (RefType ref)

void	setReference (const string &ref)

bool	unipolar (void) const

void	setUnipolar (bool unipolar)

int	gainIndex (void) const

void	setGainIndex (int gainindex)

char *	gainData (void) const

void	setGainData (char *data)

float	scale (void) const

void	setScale (float scale)

string	unit (void) const

void	setUnit (const string &unit)

void	setUnit (float scale, const string &unit)

string	format (void) const

int	source (void) const

void	setSource (int source)

double	readTime (void) const

void	setReadTime (double time)

double	updateTime (void) const

void	setUpdateTime (double time)

int	mode (void) const

void	clearMode (void)

void	setMode (int flags)

void	addMode (int flags)

void	delMode (int flags)

Public Member Functions inherited from CyclicSampleData< T >
	CyclicSampleData (void)

	CyclicSampleData (int n, double stepsize=1.0)

	CyclicSampleData (int n, double offset, double stepsize)

	CyclicSampleData (double duration, double stepsize=1.0)

	CyclicSampleData (double duration, double offset, double stepsize)

	CyclicSampleData (CyclicSampleData< T > *csd)

	CyclicSampleData (const CyclicSampleData< T > &csd)

	~CyclicSampleData (void)

const CyclicSampleData< T > &	operator= (const CyclicSampleData< T > &a)

const CyclicSampleData< T > &	assign (const CyclicSampleData< T > &a)

const CyclicSampleData< T > &	assign (const CyclicSampleData< T > *a)

virtual void	resize (int n, const T &val=0)

virtual void	resize (double duration, const T &val=0)

virtual void	reserve (int n)

virtual void	reserve (double duration)

double	offset (void) const

void	setOffset (double offset)

double	stepsize (void) const

void	setStepsize (double stepsize)

void	setRange (const T &offset, const T &stepsize)

double	length (void) const

double	rangeFront (void) const

double	rangeBack (void) const

void	shift (double val)

void	scale (double scale)

double	pos (int i) const

double	interval (int indices) const

int	index (double pos) const

int	indices (double iv) const

bool	contains (double p) const

const CyclicArray< T > &	array (void) const

CyclicArray< T > &	array (void)

LinearRange	range (void)

T	min (int from, int upto) const

T	min (double from, double upto) const

T	min (double from) const

T	max (int from, int upto) const

T	max (double from, double upto) const

T	max (double from) const

void	minMax (T &min, T &max, int from, int upto) const

void	minMax (T &min, T &max, double from, double upto) const

void	minMax (T &min, T &max, double from) const

T	minAbs (int from, int upto) const

T	minAbs (double from, double upto) const

T	minAbs (double from) const

T	maxAbs (int from, int upto) const

T	maxAbs (double from, double upto) const

T	maxAbs (double from) const

numerical_traits< T >::mean_type	mean (int from, int upto) const

numerical_traits< T >::mean_type	mean (double from, double upto) const

template<typename R >
void	mean (double time, SampleData< R > &d, double width=0.0) const

numerical_traits< T > ::variance_type	variance (int from, int upto) const

numerical_traits< T > ::variance_type	variance (double from, double upto) const

template<typename R >
void	variance (double time, SampleData< R > &d, double width=0.0) const

numerical_traits< T > ::variance_type	stdev (int from, int upto) const

numerical_traits< T > ::variance_type	stdev (double from, double upto) const

template<typename R >
void	stdev (double time, SampleData< R > &d, double width=0.0) const

numerical_traits< T > ::variance_type	rms (int from, int upto) const

numerical_traits< T > ::variance_type	rms (double from, double upto) const

template<typename R >
void	rms (double time, SampleData< R > &d, double width=0.0) const

template<typename S >
void	hist (SampleData< S > &h, int from, int upto) const

template<typename S >
void	hist (SampleData< S > &h, double from, double upto) const

template<typename S >
void	hist (SampleData< S > &h) const

Public Member Functions inherited from CyclicArray< T >
	CyclicArray (void)

	CyclicArray (int n)

	CyclicArray (CyclicArray< T > *ca)

	CyclicArray (const CyclicArray< T > &ca)

virtual	~CyclicArray (void)

const CyclicArray< T > &	operator= (const CyclicArray< T > &a)

const CyclicArray< T > &	assign (const CyclicArray< T > &a)

const CyclicArray< T > &	assign (const CyclicArray< T > *a)

int	size (void) const

bool	empty (void) const

int	capacity (void) const

void	update (const CyclicArray< T > *a)

const T &	operator[] (int i) const

T &	operator[] (int i)

const T &	at (int i) const

T &	at (int i)

const T &	front (void) const

T &	front (void)

const T &	back (void) const

T &	back (void)

void	push (const T &val)

T	pop (void)

int	maxPush (void) const

T *	pushBuffer (void)

void	push (int n)

int	readIndex (void) const

T	read (void)

T	min (int from, int upto) const

T	max (int from, int upto) const

void	minMax (T &min, T &max, int from, int upto) const

T	minAbs (int from, int upto) const

T	maxAbs (int from, int upto) const

numerical_traits< T >::mean_type	mean (int from, int upto) const

numerical_traits< T > ::variance_type	variance (int from, int upto) const

numerical_traits< T > ::variance_type	stdev (int from, int upto) const

numerical_traits< T > ::variance_type	rms (int from, int upto) const

template<typename S >
void	hist (SampleData< S > &h, int from, int upto) const

template<typename S >
void	hist (SampleData< S > &h) const

const T *	readBuffer (int index, int &maxn) const

int	saveBinary (ostream &os, int index) const

int	loadBinary (istream &is, int index)

Public Member Functions inherited from DaqError
	DaqError (void)

void	clearError (void)

long long	error (void) const

void	setError (long long flags)

void	addError (long long flags)

void	delError (long long flags)

void	addDaqError (int de)

void	addAttError (int ae)

string	errorStr (void) const

void	setErrorStr (const string &strg)

void	addErrorStr (const string &strg)

void	setErrorStr (int errnum)

void	addErrorStr (int errnum)

string	errorText (void) const

bool	success (void) const

bool	failed (void) const

bool	busy (void) const

bool	overflow (void) const

bool	underflow (void) const

bool	attenuatorFailed (void) const

void	update (const DaqError *de)

Static Public Member Functions
static string	referenceStr (RefType ref)

static void	setDefaultDevice (int deviceid)

static int	defaultDevice (void)

Static Public Member Functions inherited from DaqError
static string	errorText (long long flags)

Static Public Attributes
static const int	ParamChannel = 1000

Static Public Attributes inherited from DaqError
static const long long	NoDevice = 1LL<<0

static const long long	DeviceNotOpen = 1LL<<1

static const long long	MultipleDevices = 1LL<<2

static const long long	InvalidStartSource = 1LL<<3

static const long long	MultipleStartSources = 1LL<<4

static const long long	InvalidDelay = 1LL<<5

static const long long	MultipleDelays = 1LL<<6

static const long long	MultiplePriorities = 1LL<<7

static const long long	InvalidSampleRate = 1LL<<8

static const long long	MultipleSampleRates = 1LL<<9

static const long long	InvalidContinuous = 1LL<<10

static const long long	MultipleContinuous = 1LL<<11

static const long long	MultipleRestart = 1LL<<12

static const long long	NoData = 1LL<<13

static const long long	MultipleBuffersizes = 1LL<<14

static const long long	InvalidBufferTime = 1LL<<15

static const long long	MultipleBufferTimes = 1LL<<16

static const long long	InvalidUpdateTime = 1LL<<17

static const long long	MultipleUpdateTimes = 1LL<<18

static const long long	InvalidTrace = 1LL<<19

static const long long	InvalidChannel = 1LL<<20

static const long long	MultipleChannels = 1LL<<21

static const long long	InvalidReference = 1LL<<22

static const long long	MultipleReferences = 1LL<<23

static const long long	InvalidDither = 1LL<<24

static const long long	MultipleDither = 1LL<<25

static const long long	InvalidReglitch = 1LL<<26

static const long long	MultipleReglitch = 1LL<<27

static const long long	InvalidGain = 1LL<<28

static const long long	MultipleGains = 1LL<<29

static const long long	Underflow = 1LL<<30

static const long long	Overflow = 1LL<<31

static const long long	CalibrationFailed = 1LL<<32

static const long long	InvalidChannelType = 1LL<<33

static const long long	InvalidChannelSequence = 1LL<<34

static const long long	Busy = 1LL<<35

static const long long	DeviceError = 1LL<<36

static const long long	OverflowUnderrun = 1LL<<37

static const long long	Unknown = 1LL<<38

static const long long	NoIntensity = 1LL<<39

static const long long	AttNotOpen = 1LL<<40

static const long long	AttInvalidDevice = 1LL<<41

static const long long	AttFailed = 1LL<<42

static const long long	AttUnderflow = 1LL<<43

static const long long	AttOverflow = 1LL<<44

static const long long	AttIntensityUnderflow = 1LL<<45

static const long long	AttIntensityOverflow = 1LL<<46

static const long long	AttIntensityFailed = 1LL<<47

Friends
ostream &	operator<< (ostream &str, const InData &id)

Additional Inherited Members
Protected Attributes inherited from CyclicSampleData< T >
double	Offset

double	Stepsize

Protected Attributes inherited from CyclicArray< T >
bool	Own

T *	Buffer

int	NBuffer

int	RCycles

int	R

int	LCycles

int	L

T	Val

T	Dummy

Detailed Description

A cyclic buffer for data acquired from a data acquisition board.

Author: Jan Benda

InData contains all data necessary to specify the acquisition of data from a data-acquisition board as well as a cyclic buffer for the read in data. The content of the data buffer can be accesed by the []-operators, and the at() functions.

To convert indices to the buffer into the corresponding time and vice versa use the functions pos(), interval(), index() and indices(). pos( int index ) returns the time corresponding to the data element with index index. index( double pos ) is the index of the data element at time pos given in seconds.

Since the buffer is cyclic it cannot contain all data, but only the last accessibleSize() read in data values. The index of the first accessible data element is returned by minIndex() and an iterator by minBegin(). The index behind the most recent data element is returned by currentIndex() and equals the size() of the buffer. signalIndex() returns the index of the output of the last signal and restartIndex() the index where the data acquisition was restarted.

The data are stored as floats in a secondary unit. Multiplication of the voltage obtained from the data acquisition board with scale() results in the data value stored in the InData buffer with an unit returned by unit().

The acquisition of the data is specified by sampleRate(), delay(), startSource(), priority(), continuous(), device(), channel(), reference(), unipolar(), gainIndex(), and updateTime(). Further, the InData has an identifier string ident(), a unique trace number trace() and mode() flags.

InputData inherits an error flag from the class DaqError. The error flag can be read with error() where errors of the last input operation are coded. With success() it can be checked whether the last input/output operation was successful. For more details, see DaqError.

Member Typedef Documentation

typedef InDataIterator const_iterator

Const iterator used to iterate through InData.

typedef InDataTimeIterator const_range_iterator

Const iterator used to iterate through InData.

Member Enumeration Documentation

enum RefType

Reference types for analog input lines.

Enumerator
RefDifferential	Differential input.
RefCommon	A "common" reference (the low inputs of all the channels are tied together, but are isolated from ground). Also called "nonreferenced single-ended".
RefGround	Referenced to ground. Also called "referenced single-ended".
RefOther	Any reference that does not fit into the above categories.

Constructor & Destructor Documentation

InData ( void )

Constructor.

InData	(	int	n,
		double	step
	)

Constructs an InData with capacity n, and sampling interval step.

InData	(	int	n,
		int	m,
		double	step
	)

Constructs an InData with capacity n, reserved elements for writing m, and sampling interval step.

References InData::setWriteBufferCapacity().

InData ( const InData * d )

Constructs an InData with the same settings as d and using the same buffer as d.

References InData::assign().

InData ( const InData & data )

Copy constructor.

~InData ( void )

virtual

Destructor.

Member Function Documentation

const InData & operator= ( const InData & data )

Assignment operator.

References CyclicSampleData< T >::assign().

const InData & assign ( const InData * data )

Make data internal reference to an InData and copy its properties and a pointer to its buffer to this.

References CyclicSampleData< T >::assign().

const InData & assign ( void )

Assign all properties from the internal reference to an InData instance to this.

See Also: update()

Referenced by InData::InData().

void copy	(	int	first,
		int	last,
		OutData &	data,
		const string &	name = `""`
	)		const

Copy the data from element first to element last to data. No amplitude information is stored into the description of data. Set the name of the description to name.

References Options::addNumber(), Options::addText(), OutData::clear(), Options::clear(), OutData::description(), InData::ident(), SampleData< T >::length(), InData::maxIndex(), InData::minIndex(), SampleData< T >::resize(), InData::sampleRate(), Options::setName(), OutData::setSampleRate(), Options::setType(), and SampleData< T >::size().

Referenced by InData::copy().

void copy	(	double	tbegin,
		double	tend,
		OutData &	data,
		const string &	name = `""`
	)		const

Copy the data from time tbegin to time tend seconds to data. No amplitude information is stored into the description of data. Set the name of the description to name.

References InData::copy(), and CyclicSampleData< T >::index().

void copy	(	double	time,
		SampleDataF &	trace
	)		const

Copy the data values from time + trace.leftMargin() to time + trace.rightMargin() to trace. The sample interval given by trace is used. If the sample intervals differ the values are obtained by linear interpolation. If time + trace.rightMargin() is larger than length() trace is appropriately truncated.

References CyclicSampleData< T >::index(), CyclicArray< T >::operator[](), CyclicSampleData< T >::pos(), SampleData< T >::pos(), SampleData< T >::rangeFront(), SampleData< T >::resize(), InData::sampleInterval(), CyclicArray< T >::size(), SampleData< T >::size(), and SampleData< T >::stepsize().

void copy	(	double	time,
		SampleDataD &	trace
	)		const

Copy the data values from time + trace.leftMargin() to time + trace.rightMargin() to trace. The sample interval given by trace is used. If the sample intervals differ the values are obtained by linear interpolation. If time + trace.rightMargin() is larger than length() trace is appropriately truncated.

References CyclicSampleData< T >::index(), CyclicArray< T >::operator[](), CyclicSampleData< T >::pos(), SampleData< T >::pos(), SampleData< T >::rangeFront(), SampleData< T >::resize(), InData::sampleInterval(), CyclicArray< T >::size(), SampleData< T >::size(), and SampleData< T >::stepsize().

string errorMessage ( void ) const

Return string with an error message: "Channel # on device #: error message". If there isn't any error, an empty string is returned.

References InData::channel(), InData::device(), DaqError::errorStr(), and DaqError::success().

int writeBufferCapacity ( void ) const

Returns: the size of the part of the buffer reserved for writing new data.

void setWriteBufferCapacity ( int m )

Set the capacity of the part of the bufer to be used for writing new data to m. If m is greater than capacity() it is set to capacity().

References CyclicArray< T >::capacity().

Referenced by InData::InData().

void clear ( void )

virtual

Empties the buffer and resets all indices.

Reimplemented from CyclicArray< T >.

References CyclicArray< T >::clear().

int accessibleSize ( void ) const

virtual

The number of data elements that are actually stored in the array and therefore are accessible.

Reimplemented from CyclicArray< T >.

References CyclicArray< T >::accessibleSize().

int currentIndex ( void ) const

Index + 1 where data end. Equals size().

See Also: currentTime()

References CyclicArray< T >::size().

double currentTime ( void ) const

Time in seconds where data end. Equals length().

See Also: currentIndex()

References CyclicSampleData< T >::pos(), and CyclicArray< T >::size().

Referenced by AudioMonitor::audioCallback(), InList::currentTime(), InList::currentTimeRaw(), and PlotTrace::displayData().

int minIndex ( void ) const

virtual

The index of the first accessible data element.

See Also: minTime()

Reimplemented from CyclicSampleData< T >.

References CyclicArray< T >::NBuffer, CyclicArray< T >::R, and CyclicArray< T >::RCycles.

Referenced by AudioMonitor::audioCallback(), InData::copy(), InData::minBegin(), and InData::minTimeBegin().

double minTime ( void ) const

The time in seconds corresponding to the first accessible data element.

See Also: minIndex()

References InData::minPos().

double minPos ( void ) const

virtual

The time in seconds corresponding to the first accessible data element. Same as minTime().

See Also: minIndex()

Reimplemented from CyclicSampleData< T >.

References CyclicSampleData< T >::minPos().

Referenced by InData::minTime().

int maxIndex ( void ) const

Maximum possible index.

See Also: maxTime()

Referenced by InData::copy(), and InData::maxTime().

double maxTime ( void ) const

Time in seconds corresponding to the maximum possible index.

See Also: maxIndex()

References InData::maxIndex(), and CyclicSampleData< T >::pos().

int signalIndex ( void ) const

Index of start of last signal. If there wasn't any signal yet, -1 is returned.

See Also: signalTime(), setSignalIndex(), setSignalTime()

double signalTime ( void ) const

Time in seconds of start of last signal. If there wasn't any signal yet, -1.0 is returned.

See Also: signalIndex(), setSignalIndex(), setSignalTime()

References CyclicSampleData< T >::pos().

void setSignalIndex ( int index )

Set index of start of last signal to index.

See Also: setSignalTime()

References CyclicSampleData< T >::index().

void setSignalTime ( double time )

Set time of start of last signal to time.

See Also: setSignalIndex()

References CyclicSampleData< T >::index().

int restartIndex ( void ) const

Index where aquisition was restarted.

See Also: restartTime(), setRestart()

double restartTime ( void ) const

Time in seconds where aquisition was restarted.

See Also: restartIndex(), setRestart()

References CyclicSampleData< T >::pos().

void setRestart ( void )

Set Restart-index to current size().

See Also: setRestartTime(), restartIndex(), restartTime()

References CyclicArray< T >::size().

void setRestartTime ( double restarttime )

Set Restart-index to the element at restarttime.

See Also: setRestart(), restartTime()

References CyclicSampleData< T >::index().

void update ( void )

Copy all indices from the internal reference to an InData instance to this.

See Also: assign()

References CyclicArray< T >::update(), and DaqError::update().

int readSize ( void ) const

virtual

The number of data elements available to be read from the buffer.

See Also: read(), readIndex(), size(), accessibleSize()

Reimplemented from CyclicArray< T >.

References CyclicArray< T >::readSize().

double minValue ( void ) const

Minimum possible value (in the secondary unit).

See Also: maxValue(), minVoltage(), setMinValue()

Referenced by InData::format().

double maxValue ( void ) const

Maximum possible value (in the secondary unit).

See Also: minValue(), maxVoltage(), setMaxValue()

Referenced by Acquire::adjustGain(), AudioMonitor::audioCallback(), InData::format(), and Acquire::maxValues().

void setMinValue ( double minv )

Set the minimum possible value to minv.

void setMaxValue ( double maxv )

Set the maximum possible value to maxv.

double voltage ( int index ) const

Get the voltage of the index -th element in Volt. index must be a valid index.

References CyclicArray< T >::operator[](), and InData::scale().

double getVoltage ( double val ) const

Returns the voltage corresponding to the value val in Volt.

References InData::scale().

double minVoltage ( void ) const

Minimum possible voltage value.

See Also: maxVoltage(), minValue(), setMinVoltage()

References InData::scale().

double maxVoltage ( void ) const

Maximum possible voltage value.

See Also: minVoltage(), maxValue(), setMaxVoltage()

References InData::scale().

Referenced by Acquire::maxVoltages().

void setMinVoltage ( double minv )

Set the minimum possible voltage value to minv.

See Also: setMaxVoltage(), setMinValue(), minValue()

References InData::scale().

void setMaxVoltage ( double maxv )

Set the maximum possible votlage value to maxv.

See Also: setMinVoltage(), setMaxValue(), maxValue()

References InData::scale().

InData::const_iterator begin ( void ) const

Returns an iterator pointing to the first data element.

InData::const_iterator begin ( double time ) const

Returns an iterator pointing to the element at time time seconds.

References CyclicSampleData< T >::index().

InData::const_iterator minBegin ( void ) const

Returns an iterator pointing to the first accessible element

See Also: minIndex().

References InData::minIndex().

InData::const_iterator end ( void ) const

Returns an iterator pointing behind the last element.

References CyclicArray< T >::size().

InDataTimeIterator timeBegin ( void ) const

Returns an iterator for the time associated with the data elements pointing to the first data element.

InDataTimeIterator timeBegin ( double time ) const

Returns an iterator for the time associated with the data elements pointing to the element at time time seconds.

References CyclicSampleData< T >::index().

InDataTimeIterator minTimeBegin ( void ) const

Returns an iterator for the time associated with the data elements pointing to the first accessible element

See Also: minIndex().

References InData::minIndex().

InDataTimeIterator timeEnd ( void ) const

Returns an iterator for the time associated with the data elements pointing behind the last element.

References CyclicArray< T >::size().

double sampleRate ( void ) const

The sampling rate of the input trace in Hertz

References CyclicSampleData< T >::stepsize().

Referenced by InData::copy().

void setSampleRate ( double rate )

Set the sampling rate of the input trace to rate Hertz

References CyclicSampleData< T >::setStepsize().

double sampleInterval ( void ) const

The sampling interval of the input trace in seconds. Same as stepszie().

References CyclicSampleData< T >::stepsize().

Referenced by InData::copy().

void setSampleInterval ( double step )

Set the sampling interval of the input trace to step seconds. Same as setStepsize().

References CyclicSampleData< T >::setStepsize().

double delay ( void ) const

Delay in seconds from start trigger to start of aquisition.

void setDelay ( double delay )

Set delay to delay (in seconds).

int startSource ( void ) const

The source for the start trigger of the data aquisition.

void setStartSource ( int startsource )

Set the source for the start trigger of the data aquisition to startsource.

bool priority ( void ) const

Returns true if the input trace has the priority to run even if there still is a data acquisition running.

Referenced by InData::setPriority().

void setPriority ( bool priority = true )

Set the priority of the input trace to priority. If priority is true then the input trace is processed even if there still is a data acquisition running. Otherwise the input trace is not processed and returns with an error.

References InData::priority().

bool continuous ( void ) const

Is aquisition performed in continuous mode?

Referenced by InData::setContinuous().

void setContinuous ( bool continuous = true )

Set continuous mode of data aquisition to continuous.

References InData::continuous().

int device ( void ) const

The id of the input device.

See Also: channel(), setChannel(), setDevice()

Referenced by Acquire::adjustGain(), InData::errorMessage(), InList::errorText(), Acquire::maxValues(), Acquire::maxVoltages(), InData::setChannel(), InData::setDevice(), and Acquire::setGain().

void setDevice ( int device )

Set the device id to device. You only need to specify an input device if more than one output devices are available and the data should be acquired from an input device other than the default one.

See Also: channel(), setChannel(), device()

References InData::device().

Referenced by FilterDetectors::createTracesEvents().

int channel ( void ) const

The number of the channel on the specified device that is used for input.

See Also: setChannel(), device(), setDevice()

Referenced by Acquire::adjustGain(), InData::errorMessage(), InList::errorText(), Acquire::maxValues(), Acquire::maxVoltages(), InData::setChannel(), and Acquire::setGain().

void setChannel ( int channel )

Set the number of the channel on the specified device that should be used for input to channel. Default is the first ('0') channel.

See Also: channel(), device(), setDevice()

References InData::channel().

Referenced by FilterDetectors::createTracesEvents().

void setChannel	(	int	channel,
		int	device
	)

Set the number of the channel to channel and the device to device.

See Also: channel(), device(), setDevice()

References InData::channel(), and InData::device().

bool rawChannel ( void ) const

true if this is a channel sampling from a acquisition device.

See Also: paramChannel()

References InData::ParamChannel.

bool paramChannel ( void ) const

true if this is a channel sampling from model or status variables.

See Also: rawChannel()

References InData::ParamChannel.

int trace ( void ) const

The trace-number.

Referenced by InData::setTrace().

void setTrace ( int trace )

Set the trace number to trace.

References InData::trace().

string ident ( void ) const

The description of the input trace.

Referenced by RELACSPlugin::adjustGain(), InData::copy(), and InData::setIdent().

void setIdent ( const string & ident )

Set the description of the input trace to ident.

References InData::ident().

Referenced by PlotTrace::displayIndex().

InData::RefType reference ( void ) const

The reference for the input line. Possible return values are RefDifferential, RefCommon, RefGround, RefOther.

See Also: referenceStr(), setReference()

string referenceStr ( void ) const

The reference for the input line as a string.

See Also: reference(), setReference()

Referenced by InputConfig::fillCells(), InputConfig::insertRows(), and RELACSWidget::RELACSWidget().

string referenceStr ( RefType ref )

static

The reference type ref as a string.

See Also: reference(), setReference()

void setReference ( InData::RefType ref )

Set the reference of the input line to ref. Possible values are RefDifferential, RefCommon, RefGround, RefOther. Defaults to RefDifferential.

See Also: reference(), referenceStr()

void setReference ( const string & ref )

Set the reference of the input line to ref. Possible values are "differential", "common", "ground", "other".

See Also: reference(), referenceStr()

References InData::RefDifferential, and InData::RefOther.

bool unipolar ( void ) const

True if only positive values are acquired.

Referenced by Acquire::adjustGain(), Acquire::maxValues(), Acquire::maxVoltages(), Acquire::setGain(), and InData::setUnipolar().

void setUnipolar ( bool unipolar )

Set the polarity of the input trace to unipolar. If unipolar is true only positive values are acquired, if it is false positive and negative values are acquired. By default acquisition is bipolar.

References InData::unipolar().

int gainIndex ( void ) const

Returns the gain index that is used to select the gain of the input trace on the data acquisition board.

See Also: setGainIndex(), scale(), setScale(), unit(), setUnit()

Referenced by Acquire::adjustGain().

void setGainIndex ( int gainindex )

Set the gain index to gainindex. The gain index selects the gain of the input trace on the data acquisition board.

See Also: gainIndex(), scale(), setScale(), unit(), setUnit()

char * gainData ( void ) const

Returns the data to be used by AnalogInput for converting raw data to voltage.

See Also: setGainData(), gainIndex()

void setGainData ( char * data )

Set the data to be used by AnalogInput for converting raw data to voltage to data.

See Also: gainData(), setGainIndex()

float scale ( void ) const

The scale factor used for scaling the voltage data to a secondary unit.

See Also: setScale(), unit(), setUnit()

Referenced by InData::getVoltage(), Acquire::maxValues(), InData::maxVoltage(), InData::minVoltage(), InData::setMaxVoltage(), InData::setMinVoltage(), InData::setScale(), InData::setUnit(), and InData::voltage().

void setScale ( float scale )

Set the scale factor to scale. The scale factor scale is used to scale the voltage data to a secondary unit.

See Also: scale(), unit(), setUnit()

References InData::scale().

string unit ( void ) const

The secondary unit.

See Also: setUnit(), scale(), setScale()

Referenced by InData::setUnit().

void setUnit ( const string & unit )

Set the secondary unit to unit.

See Also: unit(), scale(), setScale()

References InData::unit().

void setUnit	(	float	scale,
		const string &	unit
	)

Set the specifications of a secondary unit. The voltage data are scaled by scale to get the data in the secondary unit unit.

See Also: unit(), scale(), setScale()

References InData::scale(), and InData::unit().

string format ( void ) const

Return a format string that is appropriate for writing out the data values.

References relacs::ceil(), relacs::log10(), InData::maxValue(), InData::minValue(), and CyclicSampleData< T >::range().

int source ( void ) const

Returns 0 if the data are acquired, 1 if the data are filtered from an InData, 2 if the data are filtered from an EventData.

See Also: setSource()

Referenced by RELACSPlugin::adjustGain(), and InData::setSource().

void setSource ( int source )

Set the source of the data to source.

See Also: source()

References InData::source().

double readTime ( void ) const

The maximum time in seconds the hardware driver can buffer data.

See Also: setReadTime(), updateTime()

void setReadTime ( double time )

Set the maximum time the hardware driver should buffer the data before they are transferred to the AnalogInput implementation to time seconds. If time is zero or negative, the default buffer time of the driver is used for the size of the driver's buffer.

See Also: readTime(), setUpdateTime()

double updateTime ( void ) const

The maximum time in seconds the AnalogInput implementation buffers data internally before they are converted to the secondary unit and written to the InData buffer.

See Also: setUpdateTime(), readTime()

void setUpdateTime ( double time )

Set the maximum time the AnalogInput implementaion should buffer the data internally before they are converted to the secondary unit and written into the InData buffer to time seconds. If time is zero or negative, the capacity() is used for the size of this buffer.