net.finmath.montecarlo.interestrate
Class LIBORMarketModel
- java.lang.Object
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- net.finmath.montecarlo.model.AbstractModel
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- net.finmath.montecarlo.interestrate.LIBORMarketModel
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- All Implemented Interfaces:
- LIBORMarketModelInterface, AbstractModelInterface
public class LIBORMarketModel extends AbstractModel implements LIBORMarketModelInterface
Implements a (generalized) LIBOR market model with some drift approximation methods.
In its default case the class specifies a multi-factor LIBOR market model in its log-normal formulation, that is Lj = exp(Yj) where \[ dY_{j} = \mu_{j} dt + \lambda_{1,j} dW_{1} + \ldots + \lambda_{m,j} dW_{m} \]
The model uses anAbstractLIBORCovarianceModelfor the specification of (λ1,j,...,λm,j) as a covariance model. SeeAbstractModelInterfacefor details on the implemented interface
However, the class is more general:- The model may be log-normal or normal specification with a given local volatility.
- The class implements different measure(drift) / numeraire pairs: terminal measure and spot measure.
- The class allows to configure a discounting curve (e.g. for "OIS discounting") using a simple deterministic zero spread. In this case, the numeraire \( N(t) \) is adjusted by \( \exp( \int_0^t -\lambda(\tau) d\tau ) \).
The class specifies a LIBOR market model, that is Lj = f(Yj) where- f is f(x) = exp(x) (default, log-normal LIBOR Market Model) or
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f is f(x) = x (normal model, used if
property.set("stateSpace","NORMAL"))
dYj = μj dt + λ1,j dW1 + ... + λm,j dWm
seeAbstractModelInterfacefor details on the implemented interface.
The model uses anAbstractLIBORCovarianceModelas a covariance model. If the covariance model is of typeAbstractLIBORCovarianceModelParametrica calibration to swaptions can be performed.
Note that λ may still depend on L, hence generating a log-normal dynamic for L even if the stateSpace property has been set to NORMAL.
The mappropertiesallows to configure the model. The following keys may be used:-
measure: Possible values:-
SPOT: Simulate under spot measure. In this case, the single curve numeraire is \( N(T_{i}) = \prod_{j=0}^{i-1} (1 + L(T_{j},T_{j+1};T_{j}) (T_{j+1}-T_{j})) \). -
TERMINAL: Simulate under terminal measure. In this case, the single curve numeraire is \( N(T_{i}) = P(T_{n};T_{i}) = \prod_{j=i}^{n-1} (1 + L(T_{j},T_{j+1};T_{i}) (T_{j+1}-T_{j}))^{-1} \).
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stateSpace: Possible values:-
LOGNORMAL: The state space transform is set to exp, i.e., L = exp(Y). When the covariance model is deterministic, then this is the classical lognormal LIBOR market model. Note that the covariance model may still provide a local volatility function. -
NORMAL: The state space transform is set to identity, i.e., L = Y. When the covariance model is deterministic, then this is a normal LIBOR market model. Note that the covariance model may still provide a local volatility function.
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liborCap: An optionalDoublevalue applied as a cap to the LIBOR rates. May be used to limit the simulated valued to prevent values attaining POSITIVE_INFINITY and numerical problems. To disable the cap, setliborCaptoDouble.POSITIVE_INFINITY.
The main task of this class is to calculate the risk-neutral drift and the corresponding numeraire given the covariance model. The calibration of the covariance structure is not part of this class. For the calibration of parametric models of the instantaneous covariance seeAbstractLIBORCovarianceModelParametric.getCloneCalibrated(LIBORMarketModelInterface, AbstractLIBORMonteCarloProduct[], double[], double[], Map).
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Nested Class Summary
Nested Classes Modifier and Type Class and Description static classLIBORMarketModel.CalibrationItemstatic classLIBORMarketModel.Driftapproximationstatic classLIBORMarketModel.Measurestatic classLIBORMarketModel.StateSpace
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Constructor Summary
Constructors Constructor and Description LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, AnalyticModelInterface analyticModel, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel, LIBORMarketModel.CalibrationItem[] calibrationItems, java.util.Map<java.lang.String,?> properties)Creates a LIBOR Market Model for given covariance.LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, AbstractLIBORCovarianceModel covarianceModel)Creates a LIBOR Market Model for given covariance.LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, AbstractLIBORCovarianceModel covarianceModel, AbstractSwaptionMarketData swaptionMarketData)Creates a LIBOR Market Model using a given covariance model and calibrating this model to given swaption volatility data.LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel)Creates a LIBOR Market Model for given covariance.LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel, AbstractSwaptionMarketData swaptionMarketData)Creates a LIBOR Market Model for given covariance.LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel, AbstractSwaptionMarketData swaptionMarketData, java.util.Map<java.lang.String,?> properties)Creates a LIBOR Market Model for given covariance.LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel, LIBORMarketModel.CalibrationItem[] calibrationItems, java.util.Map<java.lang.String,?> properties)Creates a LIBOR Market Model for given covariance.
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Method Summary
All Methods Instance Methods Concrete Methods Modifier and Type Method and Description RandomVariableInterfaceapplyStateSpaceTransform(int componentIndex, RandomVariableInterface randomVariable)Applied the state space transform fi to the given state random variable such that Yi → fi(Yi) =: Xi.java.lang.Objectclone()AnalyticModelInterfacegetAnalyticModel()Return the associated analytic model, a collection of market date object like discount curve, forward curve and volatility surfaces.LIBORMarketModelgetCloneWithModifiedCovarianceModel(AbstractLIBORCovarianceModel covarianceModel)Create a new object implementing LIBORMarketModelInterface, using the new covariance model.LIBORMarketModelgetCloneWithModifiedData(java.util.Map<java.lang.String,java.lang.Object> dataModified)Create a new object implementing LIBORMarketModelInterface, using the new data.AbstractLIBORCovarianceModelgetCovarianceModel()Return the covariance model.DiscountCurveInterfacegetDiscountCurve()Return the discount curve associated the forwards.RandomVariableInterface[]getDrift(int timeIndex, RandomVariableInterface[] realizationAtTimeIndex, RandomVariableInterface[] realizationPredictor)Return the complete vector of the drift for the time index timeIndex, given that current state is realizationAtTimeIndex.LIBORMarketModel.DriftapproximationgetDriftApproximationMethod()RandomVariableInterface[]getFactorLoading(int timeIndex, int componentIndex, RandomVariableInterface[] realizationAtTimeIndex)This method has to be implemented to return the factor loadings, i.e.ForwardCurveInterfacegetForwardRateCurve()Return the initial forward rate curve.RandomVariableInterface[]getInitialState()Returns the initial value of the state variable of the process Y, not to be confused with the initial value of the model X (which is the state space transform applied to this state value.double[][][]getIntegratedLIBORCovariance()Returns the integrated instantaneous log-forward rate covariance, i.e., \int_0^t_i d log(L_j) d log(L_k) dt.RandomVariableInterfacegetLIBOR(int timeIndex, int liborIndex)doublegetLiborPeriod(int timeIndex)The period start corresponding to a given forward rate discretization index.TimeDiscretizationInterfacegetLiborPeriodDiscretization()The tenor time discretization of the forward rate curve.intgetLiborPeriodIndex(double time)Same as java.util.Arrays.binarySearch(liborPeriodDiscretization,time).LIBORMarketModel.MeasuregetMeasure()intgetNumberOfComponents()Returns the number of componentsintgetNumberOfLibors()Get the number of LIBORs in the LIBOR discretization.RandomVariableInterfacegetNumeraire(double time)Return the numeraire at a given time.AbstractSwaptionMarketDatagetSwaptionMarketData()Return the swaption market data used for calibration (if any, may be null).java.lang.StringtoString()-
Methods inherited from class net.finmath.montecarlo.model.AbstractModel
getInitialValue, getMonteCarloWeights, getNumberOfFactors, getProcess, getProcessValue, getTime, getTimeDiscretization, getTimeIndex, setProcess
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Methods inherited from class java.lang.Object
equals, getClass, hashCode, notify, notifyAll, wait, wait, wait
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Methods inherited from interface net.finmath.montecarlo.model.AbstractModelInterface
getNumberOfFactors, getProcess, getTimeDiscretization, setProcess
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Constructor Detail
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LIBORMarketModel
public LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, AnalyticModelInterface analyticModel, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel, LIBORMarketModel.CalibrationItem[] calibrationItems, java.util.Map<java.lang.String,?> properties) throws CalculationException
Creates a LIBOR Market Model for given covariance.
If calibrationItems in non-empty and the covariance model is a parametric model, the covariance will be replaced by a calibrate version of the same model, i.e., the LIBOR Market Model will be calibrated.
The mappropertiesallows to configure the model. The following keys may be used:-
measure: Possible values:-
SPOT(String): Simulate under spot measure. -
TERMINAL(String): Simulate under terminal measure.
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stateSpace: Possible values:-
LOGNORMAL(String): Simulate L = exp(Y). -
NORMAL(String): Simulate L = Y.
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liborCap: An optionalDoublevalue applied as a cap to the LIBOR rates. May be used to limit the simulated valued to prevent values attaining POSITIVE_INFINITY and numerical problems. To disable the cap, setliborCaptoDouble.POSITIVE_INFINITY. -
calibrationParameters: Possible values:-
Map<String,Object>a parameter map with the following key/value pairs:-
accuracy:Doublespecifying the required solver accuracy. -
maxIterations:Integerspecifying the maximum iterations for the solver.
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- Parameters:
liborPeriodDiscretization- The discretization of the interest rate curve into forward rates (tenor structure).analyticModel- The associated analytic model of this model (containing the associated market data objects like curve).forwardRateCurve- The initial values for the forward rates.discountCurve- The discount curve to use. This will create an LMM model with a deterministic zero-spread discounting adjustment.covarianceModel- The covariance model to use.calibrationItems- The vector of calibration items (a union of a product, target value and weight) for the objective function sum weight(i) * (modelValue(i)-targetValue(i).properties- Key value map specifying properties likemeasureandstateSpace.- Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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LIBORMarketModel
public LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, AbstractLIBORCovarianceModel covarianceModel) throws CalculationException
Creates a LIBOR Market Model for given covariance.- Parameters:
liborPeriodDiscretization- The discretization of the interest rate curve into forward rates (tenor structure).forwardRateCurve- The initial values for the forward rates.covarianceModel- The covariance model to use.- Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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LIBORMarketModel
public LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel) throws CalculationException
Creates a LIBOR Market Model for given covariance.- Parameters:
liborPeriodDiscretization- The discretization of the interest rate curve into forward rates (tenor structure).forwardRateCurve- The initial values for the forward rates.discountCurve- The discount curve to use. This will create an LMM model with a deterministic zero-spread discounting adjustment.covarianceModel- The covariance model to use.- Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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LIBORMarketModel
public LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, AbstractLIBORCovarianceModel covarianceModel, AbstractSwaptionMarketData swaptionMarketData) throws CalculationException
Creates a LIBOR Market Model using a given covariance model and calibrating this model to given swaption volatility data.- Parameters:
liborPeriodDiscretization- The discretization of the interest rate curve into forward rates (tenor structure).forwardRateCurve- The initial values for the forward rates.covarianceModel- The covariance model to use.swaptionMarketData- The set of swaption values to calibrate to.- Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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LIBORMarketModel
public LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel, AbstractSwaptionMarketData swaptionMarketData) throws CalculationException
Creates a LIBOR Market Model for given covariance.- Parameters:
liborPeriodDiscretization- The discretization of the interest rate curve into forward rates (tenor structure).forwardRateCurve- The initial values for the forward rates.discountCurve- The discount curve to use. This will create an LMM model with a deterministic zero-spread discounting adjustment.covarianceModel- The covariance model to use.swaptionMarketData- The set of swaption values to calibrate to.- Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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LIBORMarketModel
public LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel, AbstractSwaptionMarketData swaptionMarketData, java.util.Map<java.lang.String,?> properties) throws CalculationException
Creates a LIBOR Market Model for given covariance.- Parameters:
liborPeriodDiscretization- The discretization of the interest rate curve into forward rates (tenor structure).forwardRateCurve- The initial values for the forward rates.discountCurve- The discount curve to use. This will create an LMM model with a deterministic zero-spread discounting adjustment.covarianceModel- The covariance model to use.swaptionMarketData- The set of swaption values to calibrate to.properties- Key value map specifying properties likemeasureandstateSpace.- Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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LIBORMarketModel
public LIBORMarketModel(TimeDiscretizationInterface liborPeriodDiscretization, ForwardCurveInterface forwardRateCurve, DiscountCurveInterface discountCurve, AbstractLIBORCovarianceModel covarianceModel, LIBORMarketModel.CalibrationItem[] calibrationItems, java.util.Map<java.lang.String,?> properties) throws CalculationException
Creates a LIBOR Market Model for given covariance.
If calibrationItems in non-empty and the covariance model is a parametric model, the covariance will be replaced by a calibrate version of the same model, i.e., the LIBOR Market Model will be calibrated.
The mappropertiesallows to configure the model. The following keys may be used:-
measure: Possible values:-
SPOT(String): Simulate under spot measure. -
TERMINAL(String): Simulate under terminal measure.
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stateSpace: Possible values:-
LOGNORMAL(String): Simulate L = exp(Y). -
NORMAL(String): Simulate L = Y.
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calibrationParameters: Possible values:-
Map<String,Object>a parameter map with the following key/value pairs:-
accuracy:Doublespecifying the required solver accuracy. -
maxIterations:Integerspecifying the maximum iterations for the solver.
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- Parameters:
liborPeriodDiscretization- The discretization of the interest rate curve into forward rates (tenor structure).forwardRateCurve- The initial values for the forward rates.discountCurve- The discount curve to use. This will create an LMM model with a deterministic zero-spread discounting adjustment.covarianceModel- The covariance model to use.calibrationItems- The vector of calibration items (a union of a product, target value and weight) for the objective function sum weight(i) * (modelValue(i)-targetValue(i).properties- Key value map specifying properties likemeasureandstateSpace.- Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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Method Detail
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getNumeraire
public RandomVariableInterface getNumeraire(double time) throws CalculationException
Return the numeraire at a given time. The numeraire is provided for interpolated points. If requested on points which are not part of the tenor discretization, the numeraire uses a linear interpolation of the reciprocal value. See ISBN 0470047224 for details.- Specified by:
getNumerairein interfaceAbstractModelInterface- Parameters:
time- Time time t for which the numeraire should be returned N(t).- Returns:
- The numeraire at the specified time as
RandomVariableInterface - Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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getInitialState
public RandomVariableInterface[] getInitialState()
Description copied from interface:AbstractModelInterfaceReturns the initial value of the state variable of the process Y, not to be confused with the initial value of the model X (which is the state space transform applied to this state value.- Specified by:
getInitialStatein interfaceAbstractModelInterface- Returns:
- The initial value of the state variable of the process Y(t=0).
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getDrift
public RandomVariableInterface[] getDrift(int timeIndex, RandomVariableInterface[] realizationAtTimeIndex, RandomVariableInterface[] realizationPredictor)
Return the complete vector of the drift for the time index timeIndex, given that current state is realizationAtTimeIndex. Note: The random variable returned is a defensive copy and may be modified. The drift will be zero for rates being already fixed.- Specified by:
getDriftin interfaceAbstractModelInterface- Parameters:
timeIndex- Time index i for which the drift should be returned μ(ti).realizationAtTimeIndex- Time current forward rate vector at time index i which should be used in the calculation.realizationPredictor- The given realization attimeIndex+1or null of no predictor is available.- Returns:
- The drift vector μ(ti) as
RandomVariable[] - See Also:
The calculation of the drift is consistent with the calculation of the numeraire ingetNumeraire.
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getFactorLoading
public RandomVariableInterface[] getFactorLoading(int timeIndex, int componentIndex, RandomVariableInterface[] realizationAtTimeIndex)
Description copied from interface:AbstractModelInterfaceThis method has to be implemented to return the factor loadings, i.e. the coefficient vector
λj = (λ1,j, ..., λm,j) such that X = f(Y) and
dYj = μj dt + λ1,j dW1 + ... + λm,j dWm
in an m-factor model. Here j denotes index of the component of the resulting process.- Specified by:
getFactorLoadingin interfaceAbstractModelInterface- Parameters:
timeIndex- The time index (related to the model times discretization).componentIndex- The index j of the driven component.realizationAtTimeIndex- The realization of X at the time corresponding to timeIndex (in order to implement local and stochastic volatlity models).- Returns:
- The factor loading for given factor and component.
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applyStateSpaceTransform
public RandomVariableInterface applyStateSpaceTransform(int componentIndex, RandomVariableInterface randomVariable)
Description copied from interface:AbstractModelInterfaceApplied the state space transform fi to the given state random variable such that Yi → fi(Yi) =: Xi.- Specified by:
applyStateSpaceTransformin interfaceAbstractModelInterface- Parameters:
componentIndex- The component index i.randomVariable- The state random variable Yi.- Returns:
- New random variable holding the result of the state space transformation.
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getDriftApproximationMethod
public LIBORMarketModel.Driftapproximation getDriftApproximationMethod()
- Returns:
- Returns the driftApproximationMethod.
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getLIBOR
public RandomVariableInterface getLIBOR(int timeIndex, int liborIndex) throws CalculationException
- Specified by:
getLIBORin interfaceLIBORMarketModelInterface- Throws:
CalculationException
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getNumberOfComponents
public int getNumberOfComponents()
Description copied from interface:AbstractModelInterfaceReturns the number of components- Specified by:
getNumberOfComponentsin interfaceAbstractModelInterface- Returns:
- The number of components
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getNumberOfLibors
public int getNumberOfLibors()
Description copied from interface:LIBORMarketModelInterfaceGet the number of LIBORs in the LIBOR discretization.- Specified by:
getNumberOfLiborsin interfaceLIBORMarketModelInterface- Returns:
- The number of LIBORs in the LIBOR discretization
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getLiborPeriod
public double getLiborPeriod(int timeIndex)
Description copied from interface:LIBORMarketModelInterfaceThe period start corresponding to a given forward rate discretization index.- Specified by:
getLiborPeriodin interfaceLIBORMarketModelInterface- Parameters:
timeIndex- The index corresponding to a given time (interpretation is start of period)- Returns:
- The period start corresponding to a given forward rate discretization index.
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getLiborPeriodIndex
public int getLiborPeriodIndex(double time)
Description copied from interface:LIBORMarketModelInterfaceSame as java.util.Arrays.binarySearch(liborPeriodDiscretization,time). Will return a negative value if the time is not found, but then -index-1 corresponds to the index of the smallest time greater than the given one.- Specified by:
getLiborPeriodIndexin interfaceLIBORMarketModelInterface- Parameters:
time- The period start.- Returns:
- The index corresponding to a given time (interpretation is start of period)
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getLiborPeriodDiscretization
public TimeDiscretizationInterface getLiborPeriodDiscretization()
Description copied from interface:LIBORMarketModelInterfaceThe tenor time discretization of the forward rate curve.- Specified by:
getLiborPeriodDiscretizationin interfaceLIBORMarketModelInterface- Returns:
- The tenor time discretization of the forward rate curve.
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getMeasure
public LIBORMarketModel.Measure getMeasure()
- Returns:
- Returns the measure.
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getIntegratedLIBORCovariance
public double[][][] getIntegratedLIBORCovariance()
Description copied from interface:LIBORMarketModelInterfaceReturns the integrated instantaneous log-forward rate covariance, i.e., \int_0^t_i d log(L_j) d log(L_k) dt. The array returned has the parametrization [i][j][k], i.e.,integratedLIBORCovariance[timeIndex][componentIndex1][componentIndex2].- Specified by:
getIntegratedLIBORCovariancein interfaceLIBORMarketModelInterface- Returns:
- The integrated instantaneous log-LIBOR covariance.
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clone
public java.lang.Object clone()
- Overrides:
clonein classjava.lang.Object
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getAnalyticModel
public AnalyticModelInterface getAnalyticModel()
Description copied from interface:LIBORMarketModelInterfaceReturn the associated analytic model, a collection of market date object like discount curve, forward curve and volatility surfaces.- Specified by:
getAnalyticModelin interfaceLIBORMarketModelInterface- Returns:
- The associated analytic model.
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getDiscountCurve
public DiscountCurveInterface getDiscountCurve()
Description copied from interface:LIBORMarketModelInterfaceReturn the discount curve associated the forwards.- Specified by:
getDiscountCurvein interfaceLIBORMarketModelInterface- Returns:
- the discount curve associated the forwards.
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getForwardRateCurve
public ForwardCurveInterface getForwardRateCurve()
Description copied from interface:LIBORMarketModelInterfaceReturn the initial forward rate curve.- Specified by:
getForwardRateCurvein interfaceLIBORMarketModelInterface- Returns:
- the forward rate curve
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getSwaptionMarketData
public AbstractSwaptionMarketData getSwaptionMarketData()
Return the swaption market data used for calibration (if any, may be null).- Returns:
- The swaption market data used for calibration (if any, may be null).
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getCovarianceModel
public AbstractLIBORCovarianceModel getCovarianceModel()
Description copied from interface:LIBORMarketModelInterfaceReturn the covariance model.- Specified by:
getCovarianceModelin interfaceLIBORMarketModelInterface- Returns:
- The covariance model.
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getCloneWithModifiedCovarianceModel
public LIBORMarketModel getCloneWithModifiedCovarianceModel(AbstractLIBORCovarianceModel covarianceModel)
Description copied from interface:LIBORMarketModelInterfaceCreate a new object implementing LIBORMarketModelInterface, using the new covariance model.- Specified by:
getCloneWithModifiedCovarianceModelin interfaceLIBORMarketModelInterface- Parameters:
covarianceModel- A covariance model- Returns:
- A new
LIBORMarketModelusing the specified covariance model.
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getCloneWithModifiedData
public LIBORMarketModel getCloneWithModifiedData(java.util.Map<java.lang.String,java.lang.Object> dataModified) throws CalculationException
Description copied from interface:LIBORMarketModelInterfaceCreate a new object implementing LIBORMarketModelInterface, using the new data.- Specified by:
getCloneWithModifiedDatain interfaceLIBORMarketModelInterface- Parameters:
dataModified- A map with values to be used in constructions (keys are identical to parameter names of the constructors).- Returns:
- A new object implementing LIBORMarketModelInterface, using the new data.
- Throws:
CalculationException- Thrown if the valuation fails, specific cause may be available via thecause()method.
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toString
public java.lang.String toString()
- Overrides:
toStringin classjava.lang.Object
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