Uses of Class pulse.problem.statements.ClassicalProblem (PULsE 1.98 API)

Packages that use ClassicalProblem
Package	Description
pulse.problem.schemes.solvers	Contains various finite-difference solvers for the different problem statements available.
pulse.problem.statements	Introduces various problem statements for the heat conduction problem in the laser flash experiment.

Uses of ClassicalProblem in pulse.problem.schemes.solvers

Classes in pulse.problem.schemes.solvers with type parameters of type ClassicalProblem
Modifier and Type	Class	Description
`class`	`ImplicitLinearisedSolver<T extends ClassicalProblem>`	Performs a fully-dimensionless calculation for the `LinearisedProblem`.

Methods in pulse.problem.schemes.solvers with parameters of type ClassicalProblem
Modifier and Type	Method	Description
`void`	ExplicitLinearisedSolver.`solve(ClassicalProblem problem)`
`void`	ImplicitLinearisedSolver.`solve(ClassicalProblem problem)`
`void`	MixedLinearisedSolver.`solve(ClassicalProblem problem)`

Uses of ClassicalProblem in pulse.problem.statements

Subclasses of ClassicalProblem in pulse.problem.statements
Modifier and Type	Class	Description
`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`	`TwoTemperatureModel`