int TriKota::ThyraDirectApplicInterface::derived_map_ac(const Dakota::String& ac_name)
{
if (App != Teuchos::null) {
// Test for consistency of problem definition between ModelEval and Dakota
TEST_FOR_EXCEPTION(numVars > numParameters, std::logic_error,
"TriKota_Dakota Adapter Error: ");
TEST_FOR_EXCEPTION(numFns > numResponses, std::logic_error,
"TriKota_Dakota Adapter Error: ");
TEST_FOR_EXCEPTION(hessFlag, std::logic_error,
"TriKota_Dakota Adapter Error: ");
MEB::InArgs<double> inArgs = App->createInArgs();
MEB::OutArgs<double> outArgs = App->createOutArgs();
TEST_FOR_EXCEPTION(gradFlag && !supportsSensitivities, std::logic_error,
"TriKota_Dakota Adapter Error: ");
// Load parameters from Dakota to ModelEval data structure
{
Thyra::DetachedVectorView<double> my_p(model_p);
for (unsigned int i=0; i<numVars; i++) my_p[i]=xC[i];
}
// Evaluate model
inArgs.set_p(0,model_p);
outArgs.set_g(0,model_g);
if (gradFlag) outArgs.set_DgDp(0,0,
MEB::DerivativeMultiVector<double>(model_dgdp,orientation));
App->evalModel(inArgs, outArgs);
Thyra::DetachedVectorView<double> my_g(model_g);
for (unsigned int j=0; j<numFns; j++) fnVals[j]= my_g[j];
if (gradFlag) {
if (orientation == MEB::DERIV_MV_BY_COL) {
for (unsigned int j=0; j<numVars; j++) {
Thyra::DetachedVectorView<double>
my_dgdp_j(model_dgdp->col(j));
for (unsigned int i=0; i<numFns; i++) fnGrads[i][j]= my_dgdp_j[i];
}
}
else {
for (unsigned int j=0; j<numFns; j++) {
Thyra::DetachedVectorView<double>
my_dgdp_j(model_dgdp->col(j));
for (unsigned int i=0; i<numVars; i++) fnGrads[j][i]= my_dgdp_j[i];
}
}
}
}
else {
TEST_FOR_EXCEPTION(parallelLib.parallel_configuration().ea_parallel_level().server_intra_communicator()
!= MPI_COMM_NULL, std::logic_error,
"\nTriKota Parallelism Error: ModelEvaluator=null, but analysis_comm != MPI_COMMM_NULL");
}
return 0;
}
TEUCHOS_UNIT_TEST( Rythmos_ForwardSensitivityExplicitModelEvaluator, evalModel ) {
typedef Thyra::ModelEvaluatorBase MEB;
RCP<ForwardSensitivityExplicitModelEvaluator<double> > model =
forwardSensitivityExplicitModelEvaluator<double>();
RCP<SinCosModel> innerModel = sinCosModel(false);
double a = 0.4;
double f = 1.5;
double L = 1.6;
{
RCP<ParameterList> pl = Teuchos::parameterList();
pl->set("Accept model parameters",true);
pl->set("Implicit model formulation",false);
pl->set("Coeff a", a );
pl->set("Coeff f", f );
pl->set("Coeff L", L );
innerModel->setParameterList(pl);
}
model->initializeStructure(innerModel, 0 );
RCP<VectorBase<double> > x;
MEB::InArgs<double> pointInArgs; // Used to change the solution for re-evaluation
RCP<StepperBase<double> > stepper; // Used for initializePointState
{
pointInArgs = innerModel->createInArgs();
pointInArgs.set_t(0.1);
x = Thyra::createMember(innerModel->get_x_space());
{
Thyra::DetachedVectorView<double> x_view( *x );
x_view[0] = 2.0;
x_view[1] = 3.0;
}
pointInArgs.set_x(x);
RCP<VectorBase<double> > p0 = Thyra::createMember(innerModel->get_p_space(0));
{
Thyra::DetachedVectorView<double> p0_view( *p0 );
p0_view[0] = a;
p0_view[1] = f;
p0_view[2] = L;
}
pointInArgs.set_p(0,p0);
{
// Create a stepper with these initial conditions to use to call
// initializePointState on this ME:
stepper = forwardEulerStepper<double>();
stepper->setInitialCondition(pointInArgs);
model->initializePointState(Teuchos::inOutArg(*stepper),false);
}
}
MEB::InArgs<double> inArgs = model->createInArgs();
RCP<VectorBase<double> > x_bar = Thyra::createMember(model->get_x_space());
RCP<Thyra::DefaultMultiVectorProductVector<double> >
s_bar = Teuchos::rcp_dynamic_cast<Thyra::DefaultMultiVectorProductVector<double> >(
x_bar, true
);
RCP<Thyra::MultiVectorBase<double> >
S = s_bar->getNonconstMultiVector();
// Fill S with data
{
TEST_EQUALITY_CONST( S->domain()->dim(), 3 );
TEST_EQUALITY_CONST( S->range()->dim(), 2 );
RCP<VectorBase<double> > S0 = S->col(0);
RCP<VectorBase<double> > S1 = S->col(1);
RCP<VectorBase<double> > S2 = S->col(2);
TEST_EQUALITY_CONST( S0->space()->dim(), 2 );
TEST_EQUALITY_CONST( S1->space()->dim(), 2 );
TEST_EQUALITY_CONST( S2->space()->dim(), 2 );
Thyra::DetachedVectorView<double> S0_view( *S0 );
S0_view[0] = 7.0;
S0_view[1] = 8.0;
Thyra::DetachedVectorView<double> S1_view( *S1 );
S1_view[0] = 9.0;
S1_view[1] = 10.0;
Thyra::DetachedVectorView<double> S2_view( *S2 );
S2_view[0] = 11.0;
S2_view[1] = 12.0;
}
inArgs.set_x(x_bar);
MEB::OutArgs<double> outArgs = model->createOutArgs();
RCP<VectorBase<double> > f_bar = Thyra::createMember(model->get_f_space());
RCP<Thyra::DefaultMultiVectorProductVector<double> >
f_sens = Teuchos::rcp_dynamic_cast<Thyra::DefaultMultiVectorProductVector<double> >(
f_bar, true
);
RCP<Thyra::MultiVectorBase<double> >
F_sens = f_sens->getNonconstMultiVector().assert_not_null();
V_S(Teuchos::outArg(*f_bar),0.0);
outArgs.set_f(f_bar);
inArgs.set_t(0.1);
model->evalModel(inArgs,outArgs);
// Verify F_sens = df/dx*S = df/dp
// df/dx = [ 0 1 ]
// [ -(f/L)*(f/L) 0 ]
// S = [ 7 9 11 ] x = [ 2 ]
// [ 8 10 12 ] [ 3 ]
// df/dp = [ 0 0 0 ]
// [ (f/L)*(f/L) 2*f/(L*L)*(a-x_0) -2*f*f/(L*L*L)*(a-x_0) ]
// F_sens_0 =
// [ 8 ]
// [ -7*(f/L)*(f/L)+(f*f)/(L*L) ]
// F_sens_1 =
// [ 10 ]
// [ -9*(f/L)*(f/L)+2*f/(L*L)*(a-x_0) ]
// F_sens_2 =
// [ 12 ]
// [ -11*(f/L)*(f/L)-2*f*f/(L*L*L)*(a-x_0) ]
//
double tol = 1.0e-10;
{
TEST_EQUALITY_CONST( F_sens->domain()->dim(), 3 );
TEST_EQUALITY_CONST( F_sens->range()->dim(), 2 );
RCP<VectorBase<double> > F_sens_0 = F_sens->col(0);
RCP<VectorBase<double> > F_sens_1 = F_sens->col(1);
RCP<VectorBase<double> > F_sens_2 = F_sens->col(2);
TEST_EQUALITY_CONST( F_sens_0->space()->dim(), 2 );
TEST_EQUALITY_CONST( F_sens_1->space()->dim(), 2 );
TEST_EQUALITY_CONST( F_sens_2->space()->dim(), 2 );
Thyra::DetachedVectorView<double> F_sens_0_view( *F_sens_0 );
TEST_FLOATING_EQUALITY( F_sens_0_view[0], 8.0, tol );
TEST_FLOATING_EQUALITY( F_sens_0_view[1], -7.0*(f/L)*(f/L)+(f*f)/(L*L), tol );
Thyra::DetachedVectorView<double> F_sens_1_view( *F_sens_1 );
TEST_FLOATING_EQUALITY( F_sens_1_view[0], 10.0, tol );
TEST_FLOATING_EQUALITY( F_sens_1_view[1], -9*(f/L)*(f/L)+2*f/(L*L)*(a-2.0), tol );
Thyra::DetachedVectorView<double> F_sens_2_view( *F_sens_2 );
TEST_FLOATING_EQUALITY( F_sens_2_view[0], 12.0, tol );
TEST_FLOATING_EQUALITY( F_sens_2_view[1], -11*(f/L)*(f/L)-2*f*f/(L*L*L)*(a-2.0), tol );
}
// Now change x and evaluate again.
{
Thyra::DetachedVectorView<double> x_view( *x );
x_view[0] = 20.0;
x_view[1] = 21.0;
}
// We need to call initializePointState again due to the vector
// being cloned inside.
stepper->setInitialCondition(pointInArgs);
model->initializePointState(Teuchos::inOutArg(*stepper),false);
model->evalModel(inArgs,outArgs);
{
TEST_EQUALITY_CONST( F_sens->domain()->dim(), 3 );
TEST_EQUALITY_CONST( F_sens->range()->dim(), 2 );
RCP<VectorBase<double> > F_sens_0 = F_sens->col(0);
RCP<VectorBase<double> > F_sens_1 = F_sens->col(1);
RCP<VectorBase<double> > F_sens_2 = F_sens->col(2);
TEST_EQUALITY_CONST( F_sens_0->space()->dim(), 2 );
TEST_EQUALITY_CONST( F_sens_1->space()->dim(), 2 );
TEST_EQUALITY_CONST( F_sens_2->space()->dim(), 2 );
Thyra::DetachedVectorView<double> F_sens_0_view( *F_sens_0 );
TEST_FLOATING_EQUALITY( F_sens_0_view[0], 8.0, tol );
TEST_FLOATING_EQUALITY( F_sens_0_view[1], -7.0*(f/L)*(f/L)+(f*f)/(L*L), tol );
Thyra::DetachedVectorView<double> F_sens_1_view( *F_sens_1 );
TEST_FLOATING_EQUALITY( F_sens_1_view[0], 10.0, tol );
TEST_FLOATING_EQUALITY( F_sens_1_view[1], -9*(f/L)*(f/L)+2*f/(L*L)*(a-20.0), tol );
Thyra::DetachedVectorView<double> F_sens_2_view( *F_sens_2 );
TEST_FLOATING_EQUALITY( F_sens_2_view[0], 12.0, tol );
TEST_FLOATING_EQUALITY( F_sens_2_view[1], -11*(f/L)*(f/L)-2*f*f/(L*L*L)*(a-20.0), tol );
}
}
int main(int argc, char *argv[])
{
using std::endl;
typedef double Scalar;
typedef double ScalarMag;
using Teuchos::describe;
using Teuchos::RCP;
using Teuchos::rcp;
using Teuchos::rcp_implicit_cast;
using Teuchos::rcp_dynamic_cast;
using Teuchos::as;
using Teuchos::ParameterList;
using Teuchos::CommandLineProcessor;
typedef Teuchos::ParameterList::PrintOptions PLPrintOptions;
typedef Thyra::ModelEvaluatorBase MEB;
typedef Thyra::DefaultMultiVectorProductVectorSpace<Scalar> DMVPVS;
using Thyra::productVectorBase;
bool result, success = true;
Teuchos::GlobalMPISession mpiSession(&argc,&argv);
RCP<Epetra_Comm> epetra_comm;
#ifdef HAVE_MPI
epetra_comm = rcp( new Epetra_MpiComm(MPI_COMM_WORLD) );
#else
epetra_comm = rcp( new Epetra_SerialComm );
#endif // HAVE_MPI
RCP<Teuchos::FancyOStream>
out = Teuchos::VerboseObjectBase::getDefaultOStream();
try {
//
// Read commandline options
//
CommandLineProcessor clp;
clp.throwExceptions(false);
clp.addOutputSetupOptions(true);
std::string paramsFileName = "";
clp.setOption( "params-file", ¶msFileName,
"File name for XML parameters" );
std::string extraParamsString = "";
clp.setOption( "extra-params", &extraParamsString,
"Extra XML parameters" );
std::string extraParamsFile = "";
clp.setOption( "extra-params-file", &extraParamsFile, "File containing extra parameters in XML format.");
double maxStateError = 1e-6;
clp.setOption( "max-state-error", &maxStateError,
"The maximum allowed error in the integrated state in relation to the exact state solution" );
double finalTime = 1e-3;
clp.setOption( "final-time", &finalTime,
"Final integration time (initial time is 0.0)" );
int numTimeSteps = 10;
clp.setOption( "num-time-steps", &numTimeSteps,
"Number of (fixed) time steps. If <= 0.0, then variable time steps are taken" );
bool useBDF = false;
clp.setOption( "use-BDF", "use-BE", &useBDF,
"Use BDF or Backward Euler (BE)" );
bool useIRK = false;
clp.setOption( "use-IRK", "use-other", &useIRK,
"Use IRK or something" );
bool doFwdSensSolve = false;
clp.setOption( "fwd-sens-solve", "state-solve", &doFwdSensSolve,
"Do the forward sensitivity solve or just the state solve" );
bool doFwdSensErrorControl = false;
clp.setOption( "fwd-sens-err-cntrl", "no-fwd-sens-err-cntrl", &doFwdSensErrorControl,
"Do error control on the forward sensitivity solve or not" );
double maxRestateError = 0.0;
clp.setOption( "max-restate-error", &maxRestateError,
"The maximum allowed error between the state integrated by itself verses integrated along with DxDp" );
double maxSensError = 1e-4;
clp.setOption( "max-sens-error", &maxSensError,
"The maximum allowed error in the integrated sensitivity in relation to"
" the finite-difference sensitivity" );
Teuchos::EVerbosityLevel verbLevel = Teuchos::VERB_DEFAULT;
setVerbosityLevelOption( "verb-level", &verbLevel,
"Top-level verbosity level. By default, this gets deincremented as you go deeper into numerical objects.",
&clp );
bool testExactSensitivity = false;
clp.setOption( "test-exact-sens", "no-test-exact-sens", &testExactSensitivity,
"Test the exact sensitivity with finite differences or not." );
bool dumpFinalSolutions = false;
clp.setOption(
"dump-final-solutions", "no-dump-final-solutions", &dumpFinalSolutions,
"Determine if the final solutions are dumpped or not." );
CommandLineProcessor::EParseCommandLineReturn parse_return = clp.parse(argc,argv);
if( parse_return != CommandLineProcessor::PARSE_SUCCESSFUL ) return parse_return;
if ( Teuchos::VERB_DEFAULT == verbLevel )
verbLevel = Teuchos::VERB_LOW;
const Teuchos::EVerbosityLevel
solnVerbLevel = ( dumpFinalSolutions ? Teuchos::VERB_EXTREME : verbLevel );
//
// Get the base parameter list that all other parameter lists will be read
// from.
//
RCP<ParameterList>
paramList = Teuchos::parameterList();
if (paramsFileName.length())
updateParametersFromXmlFile( paramsFileName, paramList.ptr() );
if(extraParamsFile.length())
Teuchos::updateParametersFromXmlFile( "./"+extraParamsFile, paramList.ptr() );
if (extraParamsString.length())
updateParametersFromXmlString( extraParamsString, paramList.ptr() );
if (testExactSensitivity) {
paramList->sublist(DiagonalTransientModel_name).set("Exact Solution as Response",true);
}
paramList->validateParameters(*getValidParameters(),0); // Only validate top level lists!
//
// Create the Stratimikos linear solver factory.
//
// This is the linear solve strategy that will be used to solve for the
// linear system with the W.
//
Stratimikos::DefaultLinearSolverBuilder linearSolverBuilder;
linearSolverBuilder.setParameterList(sublist(paramList,Stratimikos_name));
RCP<Thyra::LinearOpWithSolveFactoryBase<Scalar> >
W_factory = createLinearSolveStrategy(linearSolverBuilder);
//
// Create the underlying EpetraExt::ModelEvaluator
//
RCP<EpetraExt::DiagonalTransientModel>
epetraStateModel = EpetraExt::diagonalTransientModel(
epetra_comm,
sublist(paramList,DiagonalTransientModel_name)
);
*out <<"\nepetraStateModel valid options:\n";
epetraStateModel->getValidParameters()->print(
*out, PLPrintOptions().indent(2).showTypes(true).showDoc(true)
);
//
// Create the Thyra-wrapped ModelEvaluator
//
RCP<Thyra::ModelEvaluator<double> >
stateModel = epetraModelEvaluator(epetraStateModel,W_factory);
*out << "\nParameter names = " << *stateModel->get_p_names(0) << "\n";
//
// Create the Rythmos stateStepper
//
RCP<Rythmos::TimeStepNonlinearSolver<double> >
nonlinearSolver = Rythmos::timeStepNonlinearSolver<double>();
RCP<ParameterList>
nonlinearSolverPL = sublist(paramList,TimeStepNonlinearSolver_name);
nonlinearSolverPL->get("Default Tol",1e-3*maxStateError); // Set default if not set
nonlinearSolver->setParameterList(nonlinearSolverPL);
RCP<Rythmos::StepperBase<Scalar> > stateStepper;
if (useBDF) {
stateStepper = rcp(
new Rythmos::ImplicitBDFStepper<double>(
stateModel, nonlinearSolver
)
);
}
else if (useIRK) {
// We need a separate LOWSFB object for the IRK stepper
RCP<Thyra::LinearOpWithSolveFactoryBase<Scalar> >
irk_W_factory = createLinearSolveStrategy(linearSolverBuilder);
RCP<Rythmos::RKButcherTableauBase<double> > irkbt = Rythmos::createRKBT<double>("Backward Euler");
stateStepper = Rythmos::implicitRKStepper<double>(
stateModel, nonlinearSolver, irk_W_factory, irkbt
);
}
else {
stateStepper = rcp(
new Rythmos::BackwardEulerStepper<double>(
stateModel, nonlinearSolver
)
);
}
*out <<"\nstateStepper:\n" << describe(*stateStepper,verbLevel);
*out <<"\nstateStepper valid options:\n";
stateStepper->getValidParameters()->print(
*out, PLPrintOptions().indent(2).showTypes(true).showDoc(true)
);
stateStepper->setParameterList(sublist(paramList,RythmosStepper_name));
//
// Setup finite difference objects that will be used for tests
//
Thyra::DirectionalFiniteDiffCalculator<Scalar> fdCalc;
fdCalc.setParameterList(sublist(paramList,FdCalc_name));
fdCalc.setOStream(out);
fdCalc.setVerbLevel(verbLevel);
//
// Use a StepperAsModelEvaluator to integrate the state
//
const MEB::InArgs<Scalar>
state_ic = stateModel->getNominalValues();
*out << "\nstate_ic:\n" << describe(state_ic,verbLevel);
RCP<Rythmos::IntegratorBase<Scalar> > integrator;
{
RCP<ParameterList>
integratorPL = sublist(paramList,RythmosIntegrator_name);
integratorPL->set( "Take Variable Steps", as<bool>(numTimeSteps < 0) );
integratorPL->set( "Fixed dt", as<double>((finalTime - state_ic.get_t())/numTimeSteps) );
RCP<Rythmos::IntegratorBase<Scalar> >
defaultIntegrator = Rythmos::controlledDefaultIntegrator<Scalar>(
Rythmos::simpleIntegrationControlStrategy<Scalar>(integratorPL)
);
integrator = defaultIntegrator;
}
RCP<Rythmos::StepperAsModelEvaluator<Scalar> >
stateIntegratorAsModel = Rythmos::stepperAsModelEvaluator(
stateStepper, integrator, state_ic
);
stateIntegratorAsModel->setVerbLevel(verbLevel);
*out << "\nUse the StepperAsModelEvaluator to integrate state x(p,finalTime) ... \n";
RCP<Thyra::VectorBase<Scalar> > x_final;
{
Teuchos::OSTab tab(out);
x_final = createMember(stateIntegratorAsModel->get_g_space(0));
eval_g(
*stateIntegratorAsModel,
0, *state_ic.get_p(0),
finalTime,
0, &*x_final
);
*out
<< "\nx_final = x(p,finalTime) evaluated using stateIntegratorAsModel:\n"
<< describe(*x_final,solnVerbLevel);
}
//
// Test the integrated state against the exact analytical state solution
//
RCP<const Thyra::VectorBase<Scalar> >
exact_x_final = create_Vector(
epetraStateModel->getExactSolution(finalTime),
stateModel->get_x_space()
);
result = Thyra::testRelNormDiffErr(
"exact_x_final", *exact_x_final, "x_final", *x_final,
"maxStateError", maxStateError, "warningTol", 1.0, // Don't warn
&*out, solnVerbLevel
);
if (!result) success = false;
//
// Solve and test the forward sensitivity computation
//
if (doFwdSensSolve) {
//
// Create the forward sensitivity stepper
//
RCP<Rythmos::ForwardSensitivityStepper<Scalar> > stateAndSensStepper =
Rythmos::forwardSensitivityStepper<Scalar>();
if (doFwdSensErrorControl) {
stateAndSensStepper->initializeDecoupledSteppers(
stateModel, 0, stateModel->getNominalValues(),
stateStepper, nonlinearSolver,
integrator->cloneIntegrator(), finalTime
);
}
else {
stateAndSensStepper->initializeSyncedSteppers(
stateModel, 0, stateModel->getNominalValues(),
stateStepper, nonlinearSolver
);
// The above call will result in stateStepper and nonlinearSolver being
// cloned. This helps to ensure consistency between the state and
// sensitivity computations!
}
//
// Set the initial condition for the state and forward sensitivities
//
RCP<Thyra::VectorBase<Scalar> > s_bar_init
= createMember(stateAndSensStepper->getFwdSensModel()->get_x_space());
assign( s_bar_init.ptr(), 0.0 );
RCP<Thyra::VectorBase<Scalar> > s_bar_dot_init
= createMember(stateAndSensStepper->getFwdSensModel()->get_x_space());
assign( s_bar_dot_init.ptr(), 0.0 );
// Above, I believe that these are the correct initial conditions for
// s_bar and s_bar_dot given how the EpetraExt::DiagonalTransientModel
// is currently implemented!
RCP<const Rythmos::StateAndForwardSensitivityModelEvaluator<Scalar> >
stateAndSensModel = stateAndSensStepper->getStateAndFwdSensModel();
MEB::InArgs<Scalar>
state_and_sens_ic = stateAndSensStepper->getModel()->createInArgs();
// Copy time, parameters etc.
state_and_sens_ic.setArgs(state_ic);
// Set initial condition for x_bar = [ x; s_bar ]
state_and_sens_ic.set_x(
stateAndSensModel->create_x_bar_vec(state_ic.get_x(),s_bar_init)
);
// Set initial condition for x_bar_dot = [ x_dot; s_bar_dot ]
state_and_sens_ic.set_x_dot(
stateAndSensModel->create_x_bar_vec(state_ic.get_x_dot(),s_bar_dot_init)
);
*out << "\nstate_and_sens_ic:\n" << describe(state_and_sens_ic,verbLevel);
stateAndSensStepper->setInitialCondition(state_and_sens_ic);
//
// Use a StepperAsModelEvaluator to integrate the state+sens
//
RCP<Rythmos::StepperAsModelEvaluator<Scalar> >
stateAndSensIntegratorAsModel = Rythmos::stepperAsModelEvaluator(
rcp_implicit_cast<Rythmos::StepperBase<Scalar> >(stateAndSensStepper),
integrator, state_and_sens_ic
);
stateAndSensIntegratorAsModel->setVerbLevel(verbLevel);
*out << "\nUse the StepperAsModelEvaluator to integrate state + sens x_bar(p,finalTime) ... \n";
RCP<Thyra::VectorBase<Scalar> > x_bar_final;
{
Teuchos::OSTab tab(out);
x_bar_final = createMember(stateAndSensIntegratorAsModel->get_g_space(0));
eval_g(
*stateAndSensIntegratorAsModel,
0, *state_ic.get_p(0),
finalTime,
0, &*x_bar_final
);
*out
<< "\nx_bar_final = x_bar(p,finalTime) evaluated using stateAndSensIntegratorAsModel:\n"
<< describe(*x_bar_final,solnVerbLevel);
}
//
// Test that the state computed above is same as computed initially!
//
*out << "\nChecking that x(p,finalTime) computed as part of x_bar above is the same ...\n";
{
Teuchos::OSTab tab(out);
RCP<const Thyra::VectorBase<Scalar> >
x_in_x_bar_final = productVectorBase<Scalar>(x_bar_final)->getVectorBlock(0);
result = Thyra::testRelNormDiffErr<Scalar>(
"x_final", *x_final,
"x_in_x_bar_final", *x_in_x_bar_final,
"maxRestateError", maxRestateError,
"warningTol", 1.0, // Don't warn
&*out, solnVerbLevel
);
if (!result) success = false;
}
//
// Compute DxDp using finite differences
//
*out << "\nApproximating DxDp(p,t) using directional finite differences of integrator for x(p,t) ...\n";
RCP<Thyra::MultiVectorBase<Scalar> > DxDp_fd_final;
{
Teuchos::OSTab tab(out);
MEB::InArgs<Scalar>
fdBasePoint = stateIntegratorAsModel->createInArgs();
fdBasePoint.set_t(finalTime);
fdBasePoint.set_p(0,stateModel->getNominalValues().get_p(0));
DxDp_fd_final = createMembers(
stateIntegratorAsModel->get_g_space(0),
stateIntegratorAsModel->get_p_space(0)->dim()
);
typedef Thyra::DirectionalFiniteDiffCalculatorTypes::SelectedDerivatives
SelectedDerivatives;
MEB::OutArgs<Scalar> fdOutArgs =
fdCalc.createOutArgs(
*stateIntegratorAsModel,
SelectedDerivatives().supports(MEB::OUT_ARG_DgDp,0,0)
);
fdOutArgs.set_DgDp(0,0,DxDp_fd_final);
// Silence the model evaluators that are called. The fdCal object
// will show all of the inputs and outputs for each call.
stateStepper->setVerbLevel(Teuchos::VERB_NONE);
stateIntegratorAsModel->setVerbLevel(Teuchos::VERB_NONE);
fdCalc.calcDerivatives(
*stateIntegratorAsModel, fdBasePoint,
stateIntegratorAsModel->createOutArgs(), // Don't bother with function value
fdOutArgs
);
*out
<< "\nFinite difference DxDp_fd_final = DxDp(p,finalTime): "
<< describe(*DxDp_fd_final,solnVerbLevel);
}
//
// Test that the integrated sens and the F.D. sens are similar
//
*out << "\nChecking that integrated DxDp(p,finalTime) and finite-diff DxDp(p,finalTime) are similar ...\n";
{
Teuchos::OSTab tab(out);
RCP<const Thyra::VectorBase<Scalar> >
DxDp_vec_final = Thyra::productVectorBase<Scalar>(x_bar_final)->getVectorBlock(1);
RCP<const Thyra::VectorBase<Scalar> >
DxDp_fd_vec_final = Thyra::multiVectorProductVector(
rcp_dynamic_cast<const Thyra::DefaultMultiVectorProductVectorSpace<Scalar> >(
DxDp_vec_final->range()
),
DxDp_fd_final
);
result = Thyra::testRelNormDiffErr(
"DxDp_vec_final", *DxDp_vec_final,
"DxDp_fd_vec_final", *DxDp_fd_vec_final,
"maxSensError", maxSensError,
"warningTol", 1.0, // Don't warn
&*out, solnVerbLevel
);
if (!result) success = false;
}
}
}
TEUCHOS_STANDARD_CATCH_STATEMENTS(true,*out,success);
if(success)
*out << "\nEnd Result: TEST PASSED" << endl;
else
*out << "\nEnd Result: TEST FAILED" << endl;
return ( success ? 0 : 1 );
} // end main() [Doxygen looks for this!]
