Array of Profiles integrated over the same time interval. More...

#include <Integration.h>

Inheritance diagram for Integration:

Classes
class	Expert
	Provides access to private and protected members of Integration. More...
class	Extension
class	Interface
	Provides a text interface to get and set Integration attributes. More...
class	Meta
	Stores otherwise shared attributes of orphaned Integrations. More...

Public Member Functions
	Integration ()
	Default constructor.
	Integration (const Integration &subint)
	Copy constructor.
Integration &	operator= (const Integration &subint)
	Assignment operator.
virtual	~Integration ()
	Destructor.
virtual Interface *	get_interface ()
	Return a text interface that can be used to access this instance.
void	zero ()
	Zero all the profiles, keeping all else the same.
MJD	get_start_time () const
	Get the MJD at the start of the integration (convenience interface)
MJD	get_end_time () const
	Get the MJD at the end of the integration (convenience interface)
double	get_centre_frequency (unsigned ichan) const
	Get the Profile centre frequency attribute of the given channel.
void	set_centre_frequency (unsigned ichan, double frequency)
	Set the Profile centre frequency attributes of the given channel.
float	get_weight (unsigned ichan) const
	Get the Profile weight attribute of the given channel.
void	set_weight (unsigned ichan, float weight)
	Set the Profile weight attributes of the given channel.
void	find_transitions (int &hi2lo, int &lo2hi, int &buffer) const
	Find the transitions between high and low states in total intensity.
void	find_peak_edges (int &rise, int &fall) const
	Find the bins in which the total intensity exceeds a threshold.
float	find_max_phase () const
	Returns the centre phase of the region with maximum total intensity.
float	find_min_phase (float dc=0.10) const
	Returns the centre phase of the region with minimum total intensity.
PhaseWeight *	baseline () const
	Return a new PhaseWeight instance with the baseline phase bins masked.
void	baseline_stats (std::vector< std::vector< Estimate< double > > > mean, std::vector< std::vector< double > > variance=0, const PhaseWeight *baseline=0) const
	Return the statistics of every profile baseline.
void	remove_baseline (const PhaseWeight *baseline=0)
	Remove the baseline from all profiles.
void	cal_levels (std::vector< std::vector< Estimate< double > > > &hi, std::vector< std::vector< Estimate< double > > > &lo) const
	Returns the mean hi/lo and variance of the mean hi/lo of every profile.
double	weighted_frequency (unsigned ch_start=0, unsigned ch_end=0) const
	Computes the weighted centre frequency of an interval of sub-channels.
double	effective_bandwidth (unsigned ch_start=0, unsigned ch_end=0) const
	Computes the effective bandwidth of an interval of sub-channels.
void	uniform_weight (float new_weight=1.0)
	Set the weight of each profile to the given number.
void	dedisperse ()
	Remove dispersion delays with respect to centre frequency.
void	defaraday ()
	Remove Faraday rotation with respect to centre frequency.
template<class T>
const T *	get () const
template<class T>
T *	get ()
template<class T>
T *	getadd ()
Archive Shared Attributes
By default, each Integration has the same observing parameters as all other Integrations in the Archive; therefore, it is not possible to set these attributes through the Integration base class interface.
double	get_centre_frequency () const
	Get the centre frequency (in MHz)
std::string	get_telescope () const
	Get the telescope name.
sky_coord	get_coordinates () const
	Get the source coordinates.
double	get_bandwidth () const
	Get the bandwidth (in MHz)
double	get_dispersion_measure () const
	Get the dispersion measure (in ${\rm pc\, cm}^{-3}$ )
bool	get_dedispersed () const
	Inter-channel dispersion delay has been removed.
double	get_rotation_measure () const
	Get the rotation measure (in ${\rm rad\, m}^{-2}$ )
bool	get_faraday_corrected () const
	Data has been corrected for ISM faraday rotation.
Signal::Basis	get_basis () const
	Get the feed configuration of the receiver.
Signal::State	get_state () const
	Get the polarimetric state of the profiles.
bool	get_absolute_dispersion_corrected () const
	Absolute inter-channel dispersive delay has been removed.
bool	get_absolute_birefringence_corrected () const
	Absolute inter-channel birefringence has been removed.
double	get_effective_dispersion_measure () const
	Get the effective dispersion measure that remains to be corrected.
double	get_effective_rotation_measure () const
	Get the effective rotation measure that remains to be corrected.
double	get_relative_dispersion_measure () const
	Get the relative dispersion measure that remains to be corrected.
double	get_relative_rotation_measure () const
	Get the relative rotation measure that remains to be corrected.
double	get_absolute_dispersion_measure () const
	Get the absolute dispersion measure that remains to be corrected.
double	get_absolute_rotation_measure () const
	Get the absolute rotation measure that remains to be corrected.
Copying and Cloning
The clone and total methods return pointers to new copy-constructed instances.
virtual Integration *	clone () const=0
	Return a new copy of self.
void	orphan ()
	Disconnect from parent archive (useful after cloning a working copy)
void	adopt (const Archive *)
	Connect to a new parent archive (also useful after cloning)
Integration *	total () const
	Return an orphaned pscrunched dedispersed fscrunched clone of self.
Integration Unique Attributes
These pure virtual methods provide access to the attributes that are unique to each Integration.
virtual MJD	get_epoch () const=0
	Get the epoch of the rising edge of bin zero.
virtual void	set_epoch (const MJD &mjd)=0
	Set the epoch of the rising edge of bin zero.
virtual double	get_duration () const=0
	Get the total time integrated (in seconds)
virtual void	set_duration (double seconds)=0
	Set the total time integrated (in seconds)
virtual double	get_folding_period () const=0
	Get the folding or topocentric pulsar period (in seconds)
virtual void	set_folding_period (double seconds)=0
	Set the folding or topocentric pulsar period (in seconds)
virtual double	get_gate_duty_cycle () const
	Get the fraction of the pulse period recorded (in turns)
virtual void	set_gate_duty_cycle (double turns)
	Set the fraction of the pulse period recorded (in turns)
Data Access
These methods provide access to the data contained in the Integration
Profile *	get_Profile (unsigned ipol, unsigned ichan)
	Returns a pointer to the Profile given by the specified indeces.
const Profile *	get_Profile (unsigned ipol, unsigned ichan) const
	Returns a const pointer to the Profile given by the specified indeces.
PolnProfile *	new_PolnProfile (unsigned ichan)
	Returns a pointer to a new PolnProfile containing references to Profiles.
PolnProfile *	new_PolnProfile (unsigned ichan) const
	Returns a pointer to a new PolnProfile containing clones of Profiles.
Stokes< float >	get_Stokes (unsigned ichan, unsigned ibin) const
	Return the Stokes 4-vector for the frequency channel and phase bin.
void	get_Stokes (std::vector< Stokes< float > > &S, unsigned iother, Signal::Dimension abscissa=Signal::Phase) const
	Returns a vector of Stokes parameters along the specified dimension.
Extension Interface
Additional algorithms or information can be made available through use of Extension classes.
virtual unsigned	get_nextension () const
	Return the number of extensions available.
virtual const Extension *	get_extension (unsigned iextension) const
	Return a pointer to the specified extension.
virtual Extension *	get_extension (unsigned iextension)
	Return a pointer to the specified extension.
template<class ExtensionType>
const ExtensionType *	get () const
	Template method searches for an Extension of the specified type.
template<class ExtensionType>
ExtensionType *	get ()
	Template method searches for an Extension of the specified type.
template<class ExtensionType>
ExtensionType *	getadd ()
	Template method returns an Extension of the specified type.
virtual void	add_extension (Extension *extension)
	Add an Extension to the Integration instance.
virtual std::string	list_extensions () const
	Return a comma-separated list of the short names of all extensions.
virtual void	edit_extensions (const std::string &name)
	Add or remove extensions with the specified short name.
Expert *	expert ()
	Provide access to the expert interface.
const Expert *	expert () const
	Provide access to the expert interface.
Profile::Strategies *	get_strategy () const
	Returns the strategy manager.
Public Member Functions inherited from Reference::Able
	Able (const Able &)
Able &	operator= (const Able &)
unsigned	get_reference_count () const
Public Member Functions inherited from Reference::HeapTracked
	HeapTracked (const HeapTracked &)
HeapTracked &	operator= (const HeapTracked &)
bool	__is_on_heap () const

Static Public Member Functions
static unsigned	get_instance_count ()
	returns the number of Integration instances
Static Public Member Functions inherited from Reference::Able
static size_t	get_instance_count ()
Static Public Member Functions inherited from Reference::HeapTracked
static void *	operator new (size_t size, void *ptr=0)
static void	operator delete (void location, void ptr)
static void	operator delete (void *location)
static size_t	get_heap_queue_size ()

Static Public Attributes
static unsigned	verbose = 0
	flag controls the amount output to stderr by Integration methods
static double	match_max_frequency_difference = 0.1
	Maximum centre frequency difference in Integration::mixable.

Dimension Attributes
The pure virtual methods are used by the Integration class to set the dimension attributes stored by the derived classes. Note that the dimensions of an Integration should be changed only through the resize method.
class	Archive
	The Extensions added to this Integration instance.
class	Extension
	The Extensions added to this Integration instance.
class	Calibrator
	The Extensions added to this Integration instance.
class	Expert
	The Extensions added to this Integration instance.
std::vector< Reference::To< Extension > >	extension
	The Extensions added to this Integration instance.
std::vector< std::vector< Reference::To< Profile > > >	profiles
	Data: npol by nchan profiles.
Reference::To< const Archive, false >	parent
	The Archive that manages this integration.
Reference::To< Meta >	orphaned
	The orphaned Integration's attributes.
Reference::To< Expert >	expert_interface
	Expert interface.
virtual unsigned	get_nchan () const=0
	Get the number of chans.
virtual unsigned	get_npol () const=0
	Get the number of polarization measurements.
virtual unsigned	get_nbin () const=0
	Get the number of bins in each profile.
virtual void	set_nbin (unsigned nbin)=0
	Set the number of pulsar phase bins.
virtual void	set_nchan (unsigned nchan)=0
	Set the number of frequency channels.
virtual void	set_npol (unsigned npol)=0
	Set the number of polarization measurements.
virtual void	resize (unsigned npol=0, unsigned nchan=0, unsigned nbin=0)
	Set the dimensions of the data container.
virtual void	insert (Integration *)
	Inserts Profiles from Integration into this.
virtual void	remove (unsigned ichan)
	Remove a channel from this Integration.
virtual void	remove (unsigned ichan_first, unsigned ichan_last)
	Remove an inclusive channel range from this Integration.
void	reverse_chan ()
	Reverse the order of frequency channels.
void	combine (const Integration *from)
	Combine from into this.
bool	mixable (const Integration *integ, std::string &reason) const
	Test if integration may be combined with this.
virtual void	copy (const Integration *subint, bool management=true)
	Copy the profiles and attributes through set_ get_ methods.
void	swap_profiles (unsigned ipol, unsigned ichan, unsigned jpol, unsigned jchan)
	Swap the two specified profiles.
void	rotate (double time)
	Rotate each profile by time (in seconds); updates the epoch attribute.
void	rotate_phase (double phase)
	Rotate each profile by phase; does not update the epoch attribute.
void	fold (unsigned nfold)
	Call Profile::fold on every profile.
void	bscrunch (unsigned nscrunch)
	Call Profile::bsrunch on every profile.
void	bscrunch_to_nbin (unsigned nbin)
	Call Profile::bsrunch_to_nbin on every profile.
void	fscrunch (unsigned nscrunch=0)
	Integrate profiles from neighbouring chans.
void	pscrunch ()
	Integrate profiles from single polarizations into one total intensity.
void	invint ()
	Transform from Stokes (I,Q,U,V) to the polarimetric invariant interval.
void	transform (const Jones< float > &response)
	Perform the congruence transformation on each polarimetric profile.
void	transform (const std::vector< Jones< float > > &response)
	Perform frequency response on each polarimetric profile.
void	convert_state (Signal::State state)
	Convert polarimetric data to the specified state.
virtual Profile *	new_Profile ()
	All new Profile instances are created through this method.
void	range_check (unsigned ipol, unsigned ichan) const
	Throw exception if ipol or ichan are out of range.

Additional Inherited Members
Protected Member Functions inherited from Reference::Able
Handle *	__reference (bool active) const
void	__dereference (bool auto_delete=true) const

Detailed Description

Array of Profiles integrated over the same time interval.

This class stores a two-dimensional array of pulse Profile instances as a function of polarization and frequency.

Member Function Documentation

◆ add_extension()

void Pulsar::Integration::add_extension ( Extension * ext )

virtual

Add an Extension to the Integration instance.

The derived class must ensure that only one instance of the Extension type is stored.

Returns: On successful addition, this method should return the pointer to the Extension, equal to the extension argument. If the Extension is not supported, this method should return a null pointer.

Derived classes need only define this method, as the non-const version implemented by the Integration base class simply calls this method.

◆ cal_levels()

void Pulsar::Integration::cal_levels	(	std::vector< std::vector< Estimate< double > > > &	hi,
		std::vector< std::vector< Estimate< double > > > &	lo ) const

Returns the mean hi/lo and variance of the mean hi/lo of every profile.

Returns the mean (and variance of the mean) off the on and off pulse cal levels.

◆ combine()

void Pulsar::Integration::combine ( const Integration * from )

protected

Combine from into this.

Users of this method should be aware that it does not keep full track of all the parameters of an Integration. It is designed to be used for low level arithmetic style addition only, not fully consistent combination. The supplied tscrunch routines should be used for such purposes.

This method is provided for experimental purposes and should not be used lightly. If the time spans of the two combined subints are not contiguous, several parameters in the result are no longer meaningful. Also, there is no way of knowing whether the profiles are aligned in phase. Developers who use this operator should perform the necessary rotations at the archive level (where the polyco resides) before summing the data in the Integrations.

Referenced by Pulsar::ColdPlasma< Calculator, History >::range().

◆ copy()

void Pulsar::Integration::copy	(	const Integration *	subint,
		bool	management = true )

protectedvirtual

Copy the profiles and attributes through set_ get_ methods.

Copy the common information from another Integration

◆ dedisperse()

void Pulsar::Integration::dedisperse ( )

Remove dispersion delays with respect to centre frequency.

Calls Dispersion::transform

◆ defaraday()

void Pulsar::Integration::defaraday ( )

Remove Faraday rotation with respect to centre frequency.

Calls FaradayRotation::transform

◆ find_max_phase()

float Pulsar::Integration::find_max_phase ( ) const

Returns the centre phase of the region with maximum total intensity.

Calls Integration::total
Calls Profile::find_max_phase on the total intensity

◆ find_min_phase()

float Pulsar::Integration::find_min_phase ( float dc = 0.10 ) const

Returns the centre phase of the region with minimum total intensity.

Calls Integration::total
Calls Profile::find_min_phase on the total intensity

◆ find_peak_edges()

void Pulsar::Integration::find_peak_edges	(	int &	rise,
		int &	fall ) const

Find the bins in which the total intensity exceeds a threshold.

Calls Integration::total
Calls Profile::find_peak_edges on the total intensity

◆ find_transitions()

void Pulsar::Integration::find_transitions	(	int &	hi2lo,
		int &	lo2hi,
		int &	buf ) const

Find the transitions between high and low states in total intensity.

Calls Integration::total
Calls Profile::find_transitions on the total intensity

◆ fscrunch()

void Pulsar::Integration::fscrunch ( unsigned nscrunch = 0 )

protected

Integrate profiles from neighbouring chans.

Parameters

nscrunch number of neighbouring frequency channels to integrate; if zero, then all channels are integrated into one

◆ get() [1/2]

template<class T>

T * Pulsar::Integration::get ( )

e.g. Integration* integration; MyExtension* ext = integration->get<MyExtension>();

◆ get() [2/2]

template<class T>

const T * Pulsar::Integration::get ( ) const

e.g. const Integration* integration; const MyExtension* ext = integration->get<MyExtension>();

◆ get_absolute_birefringence_corrected()

bool Pulsar::Integration::get_absolute_birefringence_corrected ( ) const

Absolute inter-channel birefringence has been removed.

Auxiliary inter-channel birefringence has been removed.

◆ get_absolute_dispersion_corrected()

bool Pulsar::Integration::get_absolute_dispersion_corrected ( ) const

Absolute inter-channel dispersive delay has been removed.

Auxiliary inter-channel dispersion delay has been removed.

◆ get_centre_frequency()

double Pulsar::Integration::get_centre_frequency ( unsigned ichan ) const

Get the Profile centre frequency attribute of the given channel.

Get the centre frequency of the given channel.

Parameters

ichan the index of the channel to get

Returns: the frequency of the given channel in MHz

◆ get_effective_dispersion_measure()

double Pulsar::Integration::get_effective_dispersion_measure ( ) const

Get the effective dispersion measure that remains to be corrected.

Returns the sum of get_relative_dispersion_measure and get_absolute_dispersion_measure.

◆ get_effective_rotation_measure()

double Pulsar::Integration::get_effective_rotation_measure ( ) const

Get the effective rotation measure that remains to be corrected.

Returns the sum of get_relative_rotation_measure and get_absolute_rotation_measure.

◆ get_extension() [1/2]

Pulsar::Integration::Extension * Pulsar::Integration::get_extension ( unsigned iext )

virtual

Return a pointer to the specified extension.

Simply calls get_extension const

◆ get_extension() [2/2]

const Pulsar::Integration::Extension * Pulsar::Integration::get_extension ( unsigned iext ) const

virtual

Return a pointer to the specified extension.

Derived classes need only define this method, as the non-const version implemented by the Integration base class simply calls this method.

◆ get_nbin()

virtual unsigned Pulsar::Integration::get_nbin ( ) const

pure virtual

Get the number of bins in each profile.

This attribute may be set only through Integration::resize

◆ get_nchan()

virtual unsigned Pulsar::Integration::get_nchan ( ) const

pure virtual

Get the number of chans.

This attribute may be set only through Integration::resize

◆ get_npol()

virtual unsigned Pulsar::Integration::get_npol ( ) const

pure virtual

Get the number of polarization measurements.

This attribute may be set only through Integration::resize

◆ get_Stokes() [1/2]

void Pulsar::Integration::get_Stokes	(	std::vector< Stokes< float > > &	S,
		unsigned	iother,
		Signal::Dimension	abscissa = Signal::Phase ) const

Returns a vector of Stokes parameters along the specified dimension.

The vector of Stokes parameters may be calculated with either pulse phase or observing frequency as the abscissa.

Return values

S	a vector of Stokes parameters as a function of the given dimension

Parameters

iother	the index in the other dimension from which to draw S
abscissa	the dimension of the vector abscissa

By default, "get_Stokes (S, ichan);" will return the polarimetric profile from chan, ichan. To get the polarimetric spectra from the middle of the pulse profile, for example, call "get_Stokes (S, get_nbin()/2, Axis::Frequency);"

◆ get_Stokes() [2/2]

Stokes< float > Pulsar::Integration::get_Stokes	(	unsigned	ichan,
		unsigned	ibin ) const

Return the Stokes 4-vector for the frequency channel and phase bin.

Return values

Stokes 4-vector for the given frequency channel and phase bin

Parameters

ichan	the frequency channel
ibin	the phase bin

Precondition: The Integration must contain full polarimetric information. That is, get_state must return either Signal::Stokes or Signal::Coherence. An exception is thrown otherwise.

◆ get_weight()

float Pulsar::Integration::get_weight ( unsigned ichan ) const

Get the Profile weight attribute of the given channel.

Get the weight of the given channel.

Parameters

ichan the index of the channel to get

Returns: the weight of the given channel

◆ getadd()

template<class T>

T * Pulsar::Integration::getadd ( )

If the specified extension type T does not exist, an atempt is made to add it using add_extension.

◆ invint()

void Pulsar::Integration::invint ( )

protected

Transform from Stokes (I,Q,U,V) to the polarimetric invariant interval.

Precondition: The profile baselines must have been removed (unchecked).

◆ mixable()

bool Pulsar::Integration::mixable	(	const Integration *	integ,
		std::string &	reason ) const

protected

Test if integration may be combined with this.

This function defines the set of observing and processing parameters that should be equal (within certain limits) before two Integrations may be combined using operators.

Parameters

integ pointer to Integration to be compared with this

Return values

reason if match fails, describes why in English

Returns: true if archive matches this

◆ new_PolnProfile()

Pulsar::PolnProfile * Pulsar::Integration::new_PolnProfile ( unsigned ichan )

Returns a pointer to a new PolnProfile containing references to Profiles.

Returns a pointer to a new PolnProfile instance specified by ichan.

◆ new_Profile()

Pulsar::Profile * Pulsar::Integration::new_Profile ( )

protectedvirtual

All new Profile instances are created through this method.

By over-riding this method, inherited types may re-define the type of Profile to which the elements of the profiles vector point.

◆ remove_baseline()

void Pulsar::Integration::remove_baseline ( const PhaseWeight * baseline = 0 )

Remove the baseline from all profiles.

If baseline is not specified, this method calls Integration::baseline to find the baseline mask.

This mask is then used to remove the baseline from each of the profiles over all polarizations and frequencies. If the dispersion measure and folding period have been previously set, the baseline phase is shifted according to the dispersion relation.

◆ resize()

void Pulsar::Integration::resize	(	unsigned	new_npol = 0,
		unsigned	new_nchan = 0,
		unsigned	new_nbin = 0 )

protectedvirtual

Set the dimensions of the data container.

If any current dimension is greater than that requested, the Profiles will be deleted and the dimension resized. If any current dimension is smaller than that requested, the dimension will be resized and new Profiles will be constructed. If any of the supplied paramaters is equal to zero, the dimension is left unchanged.

◆ reverse_chan()

void Pulsar::Integration::reverse_chan ( )

protected

Reverse the order of frequency channels.

Reverse the order of frequency channels for each polarization.

◆ set_centre_frequency()

void Pulsar::Integration::set_centre_frequency	(	unsigned	ichan,
		double	frequency )

Set the Profile centre frequency attributes of the given channel.

Set the centre frequency of the given channel.

Parameters

ichan	the index of the channel to be set
frequency	the frequency of the given channel in MHz

◆ set_weight()

void Pulsar::Integration::set_weight	(	unsigned	ichan,
		float	weight )

Set the Profile weight attributes of the given channel.

Set the weight of the given channel.

Parameters

ichan	the index of the channel to be set
weight	the weight of the given channel

◆ total()

Pulsar::Integration * Pulsar::Integration::total ( ) const

Return an orphaned pscrunched dedispersed fscrunched clone of self.

This method is primarily designed for use by the Integration::find_* methods. After calling fscrunch, the resulting Profile may have a different centre frequency than that of the Integration. Therefore, the Profile is dedispersed to match the phase referenced at the frequency returned by Integration::get_centre_frequency.

◆ weighted_frequency()

double Pulsar::Integration::weighted_frequency	(	unsigned	chan_start = 0,
		unsigned	chan_end = 0 ) const

Computes the weighted centre frequency of an interval of sub-channels.

Returns: the new weighted centre frequency (in MHz, rounded to nearest kHz)

Parameters

chan_start	the first chan included in the calculation
chan_end	one more than the index of the last chan

Member Data Documentation

◆ match_max_frequency_difference

double Pulsar::Integration::match_max_frequency_difference = 0.1

static

Maximum centre frequency difference in Integration::mixable.

Maximum frequency difference in MHz

The documentation for this class was generated from the following files:

Integration.h
Integration.C
Integration_combine.C
Integration_insert.C
Integration_mixable.C
Integration_remove.C
Integration_resize.C
IntegrationExtension.h
Integration_cal_levels.C
Integration_convert_state.C
Integration_dedisperse.C
Integration_find.C
Integration_fscrunch.C
Integration_get_Stokes.C
Integration_invint.C
Integration_new_PolnProfile.C
Integration_orphan.C
Integration_remove_baseline.C
Integration_rotate.C
Integration_total.C
Integration_update_history.C
Integration_weighted_frequency.C
StrategySet.C
Integration_defaraday.C
Integration_transform.C

Classes

Public Member Functions

Static Public Member Functions

Static Public Attributes

Dimension Attributes

Additional Inherited Members

Detailed Description

Member Function Documentation

◆ add_extension()

◆ cal_levels()

◆ combine()

◆ copy()

◆ dedisperse()

◆ defaraday()

◆ find_max_phase()

◆ find_min_phase()

◆ find_peak_edges()

◆ find_transitions()

◆ fscrunch()

◆ get() [1/2]

◆ get() [2/2]

◆ get_absolute_birefringence_corrected()

◆ get_absolute_dispersion_corrected()

◆ get_centre_frequency()

◆ get_effective_dispersion_measure()

◆ get_effective_rotation_measure()

◆ get_extension() [1/2]

◆ get_extension() [2/2]

◆ get_nbin()

◆ get_nchan()

◆ get_npol()

◆ get_Stokes() [1/2]

◆ get_Stokes() [2/2]

◆ get_weight()

◆ getadd()

◆ invint()

◆ mixable()

◆ new_PolnProfile()

◆ new_Profile()

◆ remove_baseline()

◆ resize()

◆ reverse_chan()

◆ set_centre_frequency()

◆ set_weight()

◆ total()

◆ weighted_frequency()

Member Data Documentation

◆ match_max_frequency_difference