Module ojalgo

Package org.ojalgo.optimisation

Class ConfiguredIntegration<S extends Optimisation.Solver>

java.lang.Object

org.ojalgo.optimisation.ExpressionsBasedModel.Integration<S>

org.ojalgo.optimisation.ConfiguredIntegration<S>

All Implemented Interfaces:

Optimisation, Optimisation.Integration<ExpressionsBasedModel,S>

final class ConfiguredIntegration<S extends Optimisation.Solver>
extends ExpressionsBasedModel.Integration<S>

Nested Class Summary

Nested classes/interfaces inherited from interface org.ojalgo.optimisation.Optimisation

Optimisation.Constraint, Optimisation.ConstraintType, Optimisation.Integration<M extends Optimisation.Model,S extends Optimisation.Solver>, Optimisation.Model, Optimisation.Objective, Optimisation.Options, Optimisation.ProblemStructure, Optimisation.Result, Optimisation.Sense, Optimisation.Solver, Optimisation.State

Field Summary

Fields

Modifier and Type	Field	Description
private final Predicate<ExpressionsBasedModel>	myCapabilityPredicate
private final ExpressionsBasedModel.Integration<S>	myDelegate
private final Consumer<Optimisation.Options>	myOptionsModifier

Constructor Summary

Constructors

Constructor	Description
ConfiguredIntegration(ExpressionsBasedModel.Integration<S> delegate, Predicate<ExpressionsBasedModel> capabilityPredicate, Consumer<Optimisation.Options> optionsModifier)

Method Summary

Modifier and Type	Method	Description
S	build(ExpressionsBasedModel model)	An integration must be able to instantiate a solver that can handle (any) model instance.
boolean	isCapable(ExpressionsBasedModel model)
Optimisation.Result	toModelState(Optimisation.Result solverState, ExpressionsBasedModel model)	Convert solver state to model state.
Optimisation.Result	toSolverState(Optimisation.Result modelState, ExpressionsBasedModel model)	Convert model state to solver state.

Methods inherited from class org.ojalgo.optimisation.ExpressionsBasedModel.Integration

extractSolverState, getIndexInSolver, isSwitch, newValidator, setSwitch, withCapabilityPredicate, withOptionsModifier

Methods inherited from class java.lang.Object

clone, equals, finalize, getClass, hashCode, notify, notifyAll, toString, wait, wait, wait

Field Details

myCapabilityPredicate

private final Predicate<ExpressionsBasedModel> myCapabilityPredicate

myDelegate

private final ExpressionsBasedModel.Integration<S extends Optimisation.Solver> myDelegate

myOptionsModifier

private final Consumer<Optimisation.Options> myOptionsModifier

Constructor Details

ConfiguredIntegration

ConfiguredIntegration(ExpressionsBasedModel.Integration<S> delegate,
 Predicate<ExpressionsBasedModel> capabilityPredicate,
 Consumer<Optimisation.Options> optionsModifier)

Method Details

build

public S build(ExpressionsBasedModel model)

Description copied from interface: Optimisation.Integration

An integration must be able to instantiate a solver that can handle (any) model instance.

isCapable

public boolean isCapable(ExpressionsBasedModel model)

Returns:

true if this solver (integration) can handle the input model

toModelState

public Optimisation.Result toModelState(Optimisation.Result solverState,
 ExpressionsBasedModel model)

Description copied from interface: Optimisation.Integration

Convert solver state to model state. Transforming the solution (set of variable values) is the main concern. Adjusting the objective function value (if needed) is best handled elsewhere, and is not required here.

The required behaviour here depends on how Optimisation.Integration.build(Optimisation.Model) is implemented, and is the reverse mapping of Optimisation.Integration.toSolverState(Optimisation.Result, Optimisation.Model).

Specified by:

toModelState in interface Optimisation.Integration<ExpressionsBasedModel,S extends Optimisation.Solver>

Overrides:

toModelState in class ExpressionsBasedModel.Integration<S extends Optimisation.Solver>

toSolverState

public Optimisation.Result toSolverState(Optimisation.Result modelState,
 ExpressionsBasedModel model)

Description copied from interface: Optimisation.Integration

Convert model state to solver state. Transforming the solution (set of variable values) is the main concern. Adjusting the objective function value (if needed) is best handled elsewhere, and is not required here.

The required behaviour here depends on how Optimisation.Integration.build(Optimisation.Model) is implemented, and is the reverse mapping of Optimisation.Integration.toModelState(Result, Optimisation.Model).

Specified by:

toSolverState in interface Optimisation.Integration<ExpressionsBasedModel,S extends Optimisation.Solver>

Overrides:

toSolverState in class ExpressionsBasedModel.Integration<S extends Optimisation.Solver>