Uses of Interface
pulse.search.Optimisable

Packages that use Optimisable

Package	Description
pulse.baseline	Contains classes for describing and evaluating the baseline signal of a HeatingCurve or its subclasses.
pulse.input	Introduces internal data structures that (a) are created as a result of parsing specific types of input files, such as: experimental heating curves, metadata, and property curves (e.g.
pulse.math	Provides general math functionality that is used when finding the direction (a Vector) of the minimum, including operations with vector and matrices.
pulse.math.filters
pulse.problem.statements	Introduces various problem statements for the heat conduction problem in the laser flash experiment.
pulse.problem.statements.model
pulse.search

Uses of Optimisable in pulse.baseline

Classes in pulse.baseline that implement Optimisable

Modifier and Type	Class	Description
class	AdjustableBaseline	A baseline that can shift in the vertical direction.
class	Baseline	An abstract class for baseline calculations.
class	FlatBaseline	A flat baseline.
class	LinearBaseline	A linear Baseline which specifies the intercept and slope parameters.
class	SinusoidalBaseline	A multiple-harmonic baseline.

Uses of Optimisable in pulse.input

Classes in pulse.input that implement Optimisable

Modifier and Type	Class	Description
class	Range	The actual physical range defined as a Segment with minimum and maximum values.

Uses of Optimisable in pulse.math

Classes in pulse.math that implement Optimisable

Modifier and Type	Class	Description
class	Harmonic	Harmonic class.

Uses of Optimisable in pulse.math.filters

Classes in pulse.math.filters that implement Optimisable

Modifier and Type	Class	Description
class	OptimisablePolyline

Uses of Optimisable in pulse.problem.statements

Classes in pulse.problem.statements that implement Optimisable

Modifier and Type	Class	Description
class	ClassicalProblem	The simplest problem statement supported in PULsE, which is formulated in the dimensionless form and with linearised boundary conditions.
class	ClassicalProblem2D	The complete problem statement for a fully two-dimensional problem, which includes side heat losses, a variable field of view and variable pulse-to-diameter ratio.
class	DiathermicMedium	The diathermic model is based on the following propositions: - A cylindrically shaped sample is completely transparent to thermal radiation; - The front~(laser-facing) and rear (detector-facing) sides of the sample are coated by a thin grey absorber; - The coatings are in perfect thermal contact with the bulk material; - The side surface is free from any coating.
class	NonlinearProblem
class	ParticipatingMedium
class	PenetrationProblem
class	Problem	A Problem is an abstract class defining the general rules for handling heat conduction problems, and also providing access to the basic properties used in the calculation with one of the DifferenceSchemes.
class	TwoTemperatureModel

Uses of Optimisable in pulse.problem.statements.model

Classes in pulse.problem.statements.model that implement Optimisable

Modifier and Type	Class	Description
class	AbsorptionModel
class	BeerLambertAbsorption
class	Insulator
class	ThermoOpticalProperties

Uses of Optimisable in pulse.search

Classes in pulse.search with type parameters of type Optimisable

Modifier and Type	Class	Description
class	SimpleOptimisationTask<T extends PropertyHolder & Optimisable>	Generic optimisation class.