void FluidGui::soundFontUpClicked()
{
int row = soundFonts->currentRow();
if (row <= 0)
return;
QStringList sfonts = fluid()->soundFonts();
sfonts.swap(row, row-1);
fluid()->loadSoundFonts(sfonts);
sfonts = fluid()->soundFonts();
soundFonts->clear();
soundFonts->addItems(sfonts);
soundFonts->setCurrentRow(row-1);
}
void FluidGui::soundFontDownClicked()
{
int rows = soundFonts->count();
int row = soundFonts->currentRow();
if (row + 1 >= rows)
return;
QStringList sfonts = fluid()->soundFonts();
sfonts.swap(row, row+1);
fluid()->loadSoundFonts(sfonts);
sfonts = fluid()->soundFonts();
soundFonts->clear();
soundFonts->addItems(sfonts);
soundFonts->setCurrentRow(row+1);
}
local SrcLineList
inclHandleIf(String property)
{
Scope("inclHandleIf");
IfState fluid(ifState);
SrcLineList result = listNil(SrcLine);
if (INCLUDING(ifState)) {
SrcLine sl = SysCmdLine(true);
if (INCL_IsAssert(&localAssertList, property)) {
ifState = ActiveIf;
result = addSysCmd(inclFileContents(),sl);
}
else {
ifState = InactiveIf;
result = addSysCmd(inclFileContents(),sl);
}
}
else {
ifState = FormerlyActiveIf;
result = inclFileContents();
}
Return(result);
}
boost::shared_ptr<PhysicsFluid> createFluid(int type, int maxParticles, float fluidStaticRestitution, float fluidStaticAdhesion, float fluidDynamicRestitution, float fluidDynamicAdhesion, float fluidDamping, float fluidStiffness, float fluidViscosity, float fluidKernelRadiusMultiplier, float fluidRestParticlesPerMeter, float fluidRestDensity, float fluidMotionLimit, int fluidPacketSizeMultiplier, int collGroup)
{
boost::shared_ptr<PhysicsFluid> fluid(new PhysicsFluid());
fluidActorList.push_back(fluid.get());
FluidData data;
data.fluid = fluid;
data.type = type;
data.maxParticles = maxParticles;
data.fluidStaticRestitution = fluidStaticRestitution;
data.fluidStaticAdhesion = fluidStaticAdhesion;
data.fluidDynamicRestitution = fluidDynamicRestitution;
data.fluidDynamicAdhesion = fluidDynamicAdhesion;
data.fluidDamping = fluidDamping;
data.fluidStiffness = fluidStiffness;
data.fluidViscosity = fluidViscosity;
data.fluidKernelRadiusMultiplier = fluidKernelRadiusMultiplier;
data.fluidRestParticlesPerMeter = fluidRestParticlesPerMeter;
data.fluidRestDensity = fluidRestDensity;
data.fluidMotionLimit = fluidMotionLimit;
data.fluidPacketSizeMultiplier = fluidPacketSizeMultiplier;
data.collisionGroup = collGroup;
fluidList.push_back(data);
return fluid;
}
Foam::tmp<Foam::volScalarField> Foam::diameterModels::IATEsource::Eo() const
{
const uniformDimensionedVectorField& g =
phase().U().db().lookupObject<uniformDimensionedVectorField>("g");
return
mag(g)*sqr(phase().d())
*(otherPhase().rho() - phase().rho())
/fluid().sigma();
}
void FluidGui::soundFontDeleteClicked()
{
int row = soundFonts->currentRow();
if (row >= 0) {
QString s(soundFonts->item(row)->text());
fluid()->removeSoundFont(s);
delete soundFonts->takeItem(row);
}
updateUpDownButtons();
}
void FluidGui::soundFontAddClicked()
{
QFileInfoList l = fluid()->sfFiles();
ListDialog ld;
foreach (const QFileInfo& fi, l)
ld.add(fi.fileName(), fi.absoluteFilePath());
if (!ld.exec())
return;
QString sfName = ld.name();
QString sfPath = ld.path();
int n = soundFonts->count();
QStringList sl;
for (int i = 0; i < n; ++i) {
QListWidgetItem* item = soundFonts->item(i);
sl.append(item->text());
}
if (sl.contains(sfPath)) {
QMessageBox::warning(this,
tr("MuseScore"),
QString(tr("Soundfont %1 already loaded")).arg(sfPath));
}
else {
bool loaded = fluid()->addSoundFont(sfPath);
if (!loaded) {
QMessageBox::warning(this,
tr("MuseScore"),
QString(tr("cannot load soundfont %1")).arg(sfPath));
}
else {
soundFonts->insertItem(0, sfName);
emit sfChanged();
}
}
updateUpDownButtons();
}
Foam::tmp<Foam::volScalarField> Foam::diameterModels::IATEsource::Ur() const
{
const uniformDimensionedVectorField& g =
phase().U().db().lookupObject<uniformDimensionedVectorField>("g");
return
sqrt(2.0)
*pow025
(
fluid().sigma()*mag(g)
*(otherPhase().rho() - phase().rho())
/sqr(otherPhase().rho())
)
*pow(max(1 - phase(), scalar(0)), 1.75);
}
Foam::tmp<Foam::volScalarField> Foam::diameterModels::IATEsource::We() const
{
return otherPhase().rho()*sqr(Ur())*phase().d()/fluid().sigma();
}
local Foam
gen0GenerBodyFun(AbSyn iter, TForm tf)
{
Scope("genBody0");
FoamList topLines;
Bool flag;
GenerGenInfo fluid(gen0GenInfo);
GenBoundCalc calc = NULL;
AbSyn body = iter->abGenerate.body;
AbSyn bound = iter->abGenerate.count;
FoamTag retType = gen0Type(tf, NULL);
Foam fluid(gen0GenVars);
GenFoamState saved;
Foam foam, clos, stmt;
Foam done, step, bnd, value;
gen0GenInfo = NULL;
#ifdef GenerBetterGuesses
if (!bound || abTag(bound) == AB_Nothing) {
calc = gen0MakeBoundInit(body);
gen0ComputeGeners();
}
#endif
flag = gen0AddImportPlace(&topLines);
clos = gen0ProgClosEmpty();
foam = gen0ProgInitEmpty("generBaseFn", body);
saved = gen0ProgSaveState(PT_Gener);
gen0GenVars = gen0MakeGenerVars(tf);
step = gen0GenerStepFun(body, tf);
done = gen0GenerDoneFun();
value = gen0GenerValueFun(retType, tf);
bnd = gen0GenerBoundFun(bound, calc);
stmt = foamNewReturn(foamNew(FOAM_Values, 4, done, step, value, bnd));
gen0AddStmt(stmt, body);
gen0UseStackedFormat(int0);
gen0ProgPushFormat(int0);
gen0ProgFiniEmpty(foam, FOAM_NOp, int0);
foam->foamProg.format = gen0MakeGenerRetFormat();
gen0AddLexLevels(foam, 1);
foam->foamProg.infoBits = IB_SIDE | IB_INLINEME;
foamOptInfo(foam) = inlInfoNew(NULL, foam, NULL, false);
if (gen0GenInfo) stoFree(gen0GenInfo);
gen0ProgRestoreState(saved);
if (flag) gen0ResetImportPlace(topLines);
stmt = foamNewSet(yieldPlaceVar, foamNewSInt(int0));
gen0AddStmt(stmt, iter);
foamFree(gen0GenVars);
gen0GenVars = NULL;
Return(clos);
}
local SrcLineList
inclFile(String fname, Bool reincluding, Bool top, long *pnlines)
{
Scope("inclFile");
SrcLineList sll;
Hash fhash;
FileName fn;
FileState o_fileState;
IfState fluid(ifState);
String curdir;
o_fileState = fileState; /* no fluid(struct) */
ifState = NoIf;
fileState.lineNumber = 0;
fn = inclFind(fname, fileState.curDir);
if (fn != 0) {
fileState.curDir = strCopy(fnameDir(fn));
fileState.curFile = strCopy(fnameUnparseStatic(fn));
fileState.curFname = fn;
}
curdir = fileState.curDir;
if (fn == 0) {
fileState = o_fileState;
if (top) {
comsgFatal(NULL, ALDOR_F_CantOpen, fname);
NotReached(sll = 0);
}
else
sll = inclError(ALDOR_F_CantOpen, fname);
}
else {
fhash = fileHash(fn);
fname = strCopy (fnameUnparseStatic(fn));
if (!reincluding && listMemq(Hash)(includedFileCodes, fhash)) {
sll = listNil(SrcLine);
}
else if (listMemq(Hash)(fileState.fileCodes, fhash)) {
String s = inclActiveFileChain
(fileState.fileNames, "->");
fileState = o_fileState;
sll = inclError(ALDOR_E_InclInfinite, s);
strFree(s);
}
else {
includedFileCodes =
listCons(Hash) (fhash,includedFileCodes);
fileState.fileCodes =
listCons(Hash) (fhash,fileState.fileCodes);
fileState.fileNames =
listCons(String)(fname,fileState.fileNames);
fileState.infile = fileRdOpen(fn);
sll = inclFileContents();
listFreeCons(Hash) (fileState.fileCodes);
listFreeCons(String)(fileState.fileNames);
fclose(fileState.infile);
}
fnameFree(fn);
strFree(curdir);
/*!! curFile is used in src lines */
strFree(fname);
}
if (pnlines) *pnlines = fileState.lineNumber;
fileState = o_fileState;
Return(sll);
}
void FluidGui::synthesizerChanged()
{
QStringList sfonts = fluid()->soundFonts();
soundFonts->clear();
soundFonts->addItems(sfonts);
}
TEST( SDCFsiTest, reuse )
{
std::vector<int> nbIter;
for ( int nbReuse = 0; nbReuse < 3; nbReuse++ )
{
scalar r0 = 0.2;
scalar a0 = M_PI * r0 * r0;
scalar u0 = 0.1;
scalar p0 = 0;
scalar dt = 0.01;
int N = 20;
scalar L = 1;
scalar T = 1;
scalar dx = L / N;
scalar rho = 1.225;
scalar E = 490;
scalar h = 1.0e-3;
scalar cmk = std::sqrt( E * h / (2 * rho * r0) );
scalar c0 = std::sqrt( cmk * cmk - p0 / (2 * rho) );
scalar kappa = c0 / u0;
bool parallel = false;
int extrapolation = 0;
scalar tol = 1.0e-5;
int maxIter = 50;
scalar initialRelaxation = 1.0e-3;
int maxUsedIterations = 50;
scalar singularityLimit = 1.0e-13;
int reuseInformationStartingFromTimeIndex = 0;
bool scaling = false;
bool updateJacobian = false;
scalar beta = 0.1;
int minIter = 5;
ASSERT_NEAR( kappa, 10, 1.0e-13 );
ASSERT_TRUE( dx > 0 );
std::shared_ptr<tubeflow::SDCTubeFlowFluidSolver> fluid( new tubeflow::SDCTubeFlowFluidSolver( a0, u0, p0, dt, cmk, N, L, T, rho ) );
std::shared_ptr<tubeflow::SDCTubeFlowSolidSolver> solid( new tubeflow::SDCTubeFlowSolidSolver( a0, cmk, p0, rho, L, N ) );
shared_ptr<RBFFunctionInterface> rbfFunction;
shared_ptr<RBFInterpolation> rbfInterpolator;
shared_ptr<RBFCoarsening> rbfInterpToCouplingMesh;
shared_ptr<RBFCoarsening> rbfInterpToMesh;
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToCouplingMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
shared_ptr<MultiLevelSolver> fluidSolver( new MultiLevelSolver( fluid, fluid, rbfInterpToCouplingMesh, rbfInterpToMesh, 0, 0 ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToCouplingMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
shared_ptr<MultiLevelSolver> solidSolver( new MultiLevelSolver( solid, fluid, rbfInterpToCouplingMesh, rbfInterpToMesh, 1, 0 ) );
std::shared_ptr< std::list<std::shared_ptr<ConvergenceMeasure> > > convergenceMeasures;
convergenceMeasures = std::shared_ptr<std::list<std::shared_ptr<ConvergenceMeasure> > >( new std::list<std::shared_ptr<ConvergenceMeasure> > );
convergenceMeasures->push_back( std::shared_ptr<ConvergenceMeasure>( new RelativeConvergenceMeasure( 0, false, tol ) ) );
convergenceMeasures->push_back( std::shared_ptr<ConvergenceMeasure>( new MinIterationConvergenceMeasure( 0, false, minIter ) ) );
shared_ptr<MultiLevelFsiSolver> fsi( new MultiLevelFsiSolver( fluidSolver, solidSolver, convergenceMeasures, parallel, extrapolation ) );
shared_ptr<PostProcessing> postProcessing( new AndersonPostProcessing( fsi, maxIter, initialRelaxation, maxUsedIterations, nbReuse, singularityLimit, reuseInformationStartingFromTimeIndex, scaling, beta, updateJacobian ) );
std::shared_ptr<sdc::SDCFsiSolverInterface> sdcFluidSolver = std::dynamic_pointer_cast<sdc::SDCFsiSolverInterface>( fluid );
std::shared_ptr<sdc::SDCFsiSolverInterface> sdcSolidSolver = std::dynamic_pointer_cast<sdc::SDCFsiSolverInterface>( solid );
assert( sdcFluidSolver );
assert( sdcSolidSolver );
std::shared_ptr<fsi::SDCFsiSolver> fsiSolver( new fsi::SDCFsiSolver( sdcFluidSolver, sdcSolidSolver, postProcessing, extrapolation ) );
int nbNodes = 3;
std::shared_ptr<fsi::quadrature::IQuadrature<scalar> > quadrature;
quadrature = std::shared_ptr<fsi::quadrature::IQuadrature<scalar> >( new fsi::quadrature::Uniform<scalar>( nbNodes ) );
std::shared_ptr<sdc::SDC> sdc( new sdc::SDC( fsiSolver, quadrature, 1.0e-10, nbNodes, nbNodes ) );
sdc->run();
nbIter.push_back( fsi->nbIter );
}
int iprev;
int index = 0;
for ( int i : nbIter )
{
std::cout << "nbIter = " << i << std::endl;
if ( index > 0 )
ASSERT_LE( i, iprev );
iprev = i;
index++;
}
}
TEST( SDIRKFsiSolidTest, linearized )
{
scalar r0 = 3.0e-3;
scalar h = 3.0e-4;
scalar L = 0.126;
scalar rho_s = 1000;
scalar E0 = 4.0e5;
scalar G = 4.0e5;
scalar nu = 0.5;
scalar a0 = M_PI * r0 * r0;
scalar u0 = 0.26;
scalar p0 = 0;
int N = 5;
scalar T = 1;
scalar rho_f = 1060;
scalar E = 490;
scalar cmk = std::sqrt( E * h / (2 * rho_f * r0) );
bool parallel = false;
int extrapolation = 0;
scalar tol = 1.0e-8;
int maxIter = 50;
scalar initialRelaxation = 1.0e-3;
int maxUsedIterations = 50;
int nbReuse = 0;
scalar singularityLimit = 1.0e-13;
int reuseInformationStartingFromTimeIndex = 0;
bool scaling = false;
scalar beta = 0.01;
bool updateJacobian = false;
int minIter = 5;
int nbComputations = 3;
std::deque<std::shared_ptr<tubeflow::SDCTubeFlowFluidSolver> > fluidSolvers;
std::deque<std::shared_ptr<tubeflow::SDCTubeFlowLinearizedSolidSolver> > solidSolvers;
std::deque<int> nbTimeStepsList;
for ( int iComputation = 0; iComputation < nbComputations; iComputation++ )
{
int nbTimeSteps = 120 * std::pow( 2, iComputation );
std::cout << "nbTimeSteps = " << nbTimeSteps << std::endl;
scalar dt = T / nbTimeSteps;
std::shared_ptr<tubeflow::SDCTubeFlowFluidSolver> fluid( new tubeflow::SDCTubeFlowFluidSolver( a0, u0, p0, dt, cmk, N, L, T, rho_f ) );
std::shared_ptr<tubeflow::SDCTubeFlowLinearizedSolidSolver> solid( new tubeflow::SDCTubeFlowLinearizedSolidSolver( N, nu, rho_s, h, L, dt, G, E0, r0, T ) );
shared_ptr<RBFFunctionInterface> rbfFunction;
shared_ptr<RBFInterpolation> rbfInterpolator;
shared_ptr<RBFCoarsening> rbfInterpToCouplingMesh;
shared_ptr<RBFCoarsening> rbfInterpToMesh;
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToCouplingMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
shared_ptr<MultiLevelSolver> fluidSolver( new MultiLevelSolver( fluid, fluid, rbfInterpToCouplingMesh, rbfInterpToMesh, 0, 0 ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToCouplingMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
shared_ptr<MultiLevelSolver> solidSolver( new MultiLevelSolver( solid, fluid, rbfInterpToCouplingMesh, rbfInterpToMesh, 1, 0 ) );
std::shared_ptr< std::list<std::shared_ptr<ConvergenceMeasure> > > convergenceMeasures;
convergenceMeasures = std::shared_ptr<std::list<std::shared_ptr<ConvergenceMeasure> > >( new std::list<std::shared_ptr<ConvergenceMeasure> >() );
convergenceMeasures->push_back( std::shared_ptr<ConvergenceMeasure>( new RelativeConvergenceMeasure( 0, true, tol ) ) );
convergenceMeasures->push_back( std::shared_ptr<ConvergenceMeasure>( new MinIterationConvergenceMeasure( 0, false, minIter ) ) );
shared_ptr<MultiLevelFsiSolver> fsi( new MultiLevelFsiSolver( fluidSolver, solidSolver, convergenceMeasures, parallel, extrapolation ) );
shared_ptr<PostProcessing> postProcessing( new AndersonPostProcessing( fsi, maxIter, initialRelaxation, maxUsedIterations, nbReuse, singularityLimit, reuseInformationStartingFromTimeIndex, scaling, beta, updateJacobian ) );
std::shared_ptr<sdc::SDCFsiSolverInterface> sdcFluidSolver = std::dynamic_pointer_cast<sdc::SDCFsiSolverInterface>( fluid );
std::shared_ptr<sdc::SDCFsiSolverInterface> sdcSolidSolver = std::dynamic_pointer_cast<sdc::SDCFsiSolverInterface>( solid );
assert( sdcFluidSolver );
assert( sdcSolidSolver );
std::shared_ptr<fsi::SDCFsiSolver> fsiSolver( new fsi::SDCFsiSolver( sdcFluidSolver, sdcSolidSolver, postProcessing, extrapolation ) );
std::shared_ptr<sdc::AdaptiveTimeStepper> adaptiveTimeStepper( new sdc::AdaptiveTimeStepper( false ) );
std::string method = "ESDIRK53PR";
std::shared_ptr<sdc::ESDIRK> esdirk( new sdc::ESDIRK( fsiSolver, method, adaptiveTimeStepper ) );
esdirk->run();
fluidSolvers.push_back( fluid );
solidSolvers.push_back( solid );
nbTimeStepsList.push_back( nbTimeSteps );
}
std::cout << "solid" << std::endl;
for ( int i = 0; i < 2; i++ )
{
fsi::vector ref;
if ( i == 0 )
ref = solidSolvers.back()->r;
else
ref = solidSolvers.back()->u;
std::deque<scalar> errors;
for ( int iComputation = 0; iComputation < nbComputations - 1; iComputation++ )
{
fsi::vector data;
if ( i == 0 )
data = solidSolvers.at( iComputation )->r;
else
data = solidSolvers.at( iComputation )->u;
scalar error = (ref - data).norm() / ref.norm();
errors.push_back( error );
}
for ( int iComputation = 0; iComputation < nbComputations - 2; iComputation++ )
{
scalar order = ( std::log10( errors.at( iComputation ) ) - std::log10( errors.at( iComputation + 1 ) ) ) / ( std::log10( nbTimeStepsList.at( iComputation + 1 ) ) - std::log10( nbTimeStepsList.at( iComputation ) ) );
std::cout << "order = " << order << std::endl;
if ( i == 0 )
ASSERT_NEAR( order, 3, 0.1 );
}
}
std::cout << "fluid" << std::endl;
for ( int i = 0; i < 3; i++ )
{
fsi::vector ref;
if ( i == 0 )
ref = fluidSolvers.back()->u;
if ( i == 1 )
ref = fluidSolvers.back()->a;
if ( i == 2 )
ref = fluidSolvers.back()->p;
std::deque<scalar> errors;
for ( int iComputation = 0; iComputation < nbComputations - 1; iComputation++ )
{
fsi::vector data;
if ( i == 0 )
data = fluidSolvers.at( iComputation )->u;
if ( i == 1 )
data = fluidSolvers.at( iComputation )->a;
if ( i == 2 )
data = fluidSolvers.at( iComputation )->p;
scalar error = (ref - data).norm() / ref.norm();
errors.push_back( error );
}
for ( int iComputation = 0; iComputation < nbComputations - 2; iComputation++ )
{
scalar order = ( std::log10( errors.at( iComputation ) ) - std::log10( errors.at( iComputation + 1 ) ) ) / ( std::log10( nbTimeStepsList.at( iComputation + 1 ) ) - std::log10( nbTimeStepsList.at( iComputation ) ) );
std::cout << "order = " << order << std::endl;
if ( i == 1 || i == 2 )
ASSERT_NEAR( order, 3, 0.1 );
}
}
}
virtual void SetUp()
{
scalar r0 = 3.0e-3;
scalar h = 3.0e-4;
scalar L = 0.126;
scalar rho_s = 1000;
scalar E0 = 4.0e5;
scalar G = 4.0e5;
scalar nu = 0.5;
scalar a0 = M_PI * r0 * r0;
scalar u0 = 0.26;
scalar p0 = 0;
scalar dt = 1;
int N = 5;
scalar T = 1;
scalar rho_f = 1060;
scalar E = 490;
scalar cmk = std::sqrt( E * h / (2 * rho_f * r0) );
bool parallel = false;
int extrapolation = 0;
scalar tol = 1.0e-3;
int maxIter = 20;
scalar initialRelaxation = 1.0e-3;
int maxUsedIterations = 50;
int nbReuse = 0;
scalar singularityLimit = 1.0e-13;
int reuseInformationStartingFromTimeIndex = 0;
bool scaling = false;
bool updateJacobian = false;
scalar beta = 0.5;
int minIter = 5;
std::shared_ptr<tubeflow::SDCTubeFlowFluidSolver> fluid( new tubeflow::SDCTubeFlowFluidSolver( a0, u0, p0, dt, cmk, N, L, T, rho_f ) );
std::shared_ptr<fsi::BaseMultiLevelSolver> solid;
solid = std::shared_ptr<fsi::BaseMultiLevelSolver>( new tubeflow::SDCTubeFlowLinearizedSolidSolver( N, nu, rho_s, h, L, dt, G, E0, r0, T ) );
assert( solid );
shared_ptr<RBFFunctionInterface> rbfFunction;
shared_ptr<RBFInterpolation> rbfInterpolator;
shared_ptr<RBFCoarsening> rbfInterpToCouplingMesh;
shared_ptr<RBFCoarsening> rbfInterpToMesh;
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToCouplingMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
shared_ptr<MultiLevelSolver> fluidSolver( new MultiLevelSolver( fluid, fluid, rbfInterpToCouplingMesh, rbfInterpToMesh, 0, 0 ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToCouplingMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
shared_ptr<MultiLevelSolver> solidSolver( new MultiLevelSolver( solid, fluid, rbfInterpToCouplingMesh, rbfInterpToMesh, 1, 0 ) );
std::shared_ptr< std::list<std::shared_ptr<ConvergenceMeasure> > > convergenceMeasures;
convergenceMeasures = std::shared_ptr<std::list<std::shared_ptr<ConvergenceMeasure> > >( new std::list<std::shared_ptr<ConvergenceMeasure> >() );
convergenceMeasures->push_back( std::shared_ptr<ConvergenceMeasure>( new RelativeConvergenceMeasure( 0, true, tol ) ) );
convergenceMeasures->push_back( std::shared_ptr<ConvergenceMeasure>( new MinIterationConvergenceMeasure( 0, false, minIter ) ) );
shared_ptr<MultiLevelFsiSolver> fsi( new MultiLevelFsiSolver( fluidSolver, solidSolver, convergenceMeasures, parallel, extrapolation ) );
shared_ptr<PostProcessing> postProcessing( new AndersonPostProcessing( fsi, maxIter, initialRelaxation, maxUsedIterations, nbReuse, singularityLimit, reuseInformationStartingFromTimeIndex, scaling, beta, updateJacobian ) );
std::shared_ptr<sdc::SDCFsiSolverInterface> sdcFluidSolver = std::dynamic_pointer_cast<sdc::SDCFsiSolverInterface>( fluid );
std::shared_ptr<sdc::SDCFsiSolverInterface> sdcSolidSolver = std::dynamic_pointer_cast<sdc::SDCFsiSolverInterface>( solid );
assert( sdcFluidSolver );
assert( sdcSolidSolver );
std::shared_ptr<fsi::SDCFsiSolver> fsiSolver( new fsi::SDCFsiSolver( sdcFluidSolver, sdcSolidSolver, postProcessing, extrapolation ) );
std::shared_ptr<sdc::AdaptiveTimeStepper> adaptiveTimeStepper( new sdc::AdaptiveTimeStepper( false ) );
std::string method = "ESDIRK53PR";
esdirk = std::shared_ptr<sdc::ESDIRK> ( new sdc::ESDIRK( fsiSolver, method, adaptiveTimeStepper ) );
}
void RadioRT::run() {
Timer timer;
timer.start();
Fluid fluid(params.inputfile, params.ndims, params.ncells, params.sideLength);
if (params.integratingRL) {
fluid.updateLineData(params.nlevel, params.frequency, params.turb_broad);
fluid.updateDepartureCoeffs("config/bsubn.txt");
}
if (params.theta < -90.0 || params.theta > 90.0)
throw std::runtime_error("RadioRT::run: theta is out of range (0 <= th <= 180).");
if (params.phi < 0.0 || params.phi > 360.0)
throw std::runtime_error("RadioRT::run: phi is out of range (0 <= ph <= 360).");
if (params.theta < 90.0)
fluid.flip();
// Set the number of pixels in the ray-traced image (npixels[0] and npixels[1])
std::array<int, 2> npixels;
npixels[0] = params.ncells[0] * params.resolutionScale;
npixels[1] = params.ncells[1] * params.resolutionScale;
if (params.geometry == "cylindrical") {
npixels[0] *= 2;
}
//convert theta and phi to radians
double theta_rad = Converter::DEG_2_RAD(params.theta);
double phi_rad = Converter::DEG_2_RAD(params.phi);
// Calculate frequencies.
std::vector<double> freqs;
double channelWidth = params.bandwidth / params.nchannels;
for (int i = 0; i < params.nchannels; ++i)
freqs.push_back(params.frequency + (i + 0.5) * channelWidth - (params.bandwidth / 2.0));
// make the image on the plane of the sky and return it in the array image(npixels[0],npixels[1]) (units are erg/s/cm^2/Hz/ster).
// The opacity is returned in the array tau(npixels[0],npixels[1])
RayTracer raytracer;
raytracer.setIntegratingFF(params.integratingFF);
raytracer.setIntegratingRL(params.integratingRL);
raytracer.setImageDimensions(npixels[0], npixels[1]);
raytracer.setSampling(params.sampling);
raytracer.setFrequencies(freqs);
raytracer.setDopplerShifted(params.dopplerShifted);
raytracer.setLineOfSightVelocity(params.vLOS);
raytracer.setDopplerIntMinPhiInc(params.doppShiftPhiIncr);
RayTracerData data;
if (params.geometry == "cylindrical")
data = raytracer.rayTraceAxiSymm(fluid, std::abs(theta_rad));
else
data = raytracer.rayTrace3D(fluid, std::abs(theta_rad), phi_rad);
if (params.theta < 90.0)
data.flip();
// Scale to correct units and work out total flux
double pixsize = data.fac * fluid.getDeltaX(); // pixel size [cm].
double pixrad = pixsize / (Units::milli() * params.dist * Converter::PC_2_CM(1)); // pixel size [radians].
double pixdeg = Converter::RAD_2_DEG(pixrad); // pixel size [degrees].
double pixarcm = pixdeg * 60.0; // pixel size [arcminutes].
double pixarcs = pixarcm * 60.0; // pixel size [arcseconds].
double pixmas = Units::milli() * pixarcs; // pixel size [milliarcseconds].
data.intensityFF *= Units::milli() * Converter::CGS_2_JY(1) * pixrad * pixrad; //mJy
data.intensityRL *= Units::milli() * Converter::CGS_2_JY(1) * pixrad * pixrad;
data.fluxFF.mul(Units::milli() * Converter::CGS_2_JY(1) * pixrad * pixrad);
data.fluxRL.mul(Units::milli() * Converter::CGS_2_JY(1) * pixrad * pixrad);
data.emissionMeasureFF.mul(Converter::CM_2_PC(1.0));
data.emissionMeasureRL.mul(Converter::CM_2_PC(1.0));
if (params.integratingFF) {
WriteFITS::wfits(params.outputDirectory + "odepth_ff", "", data.tauFF, params, pixdeg, pixsize, fluid.getDeltaX());
WriteFITS::wfits(params.outputDirectory + "emeasure_ff", "cm**6/pc", data.emissionMeasureFF, params, pixdeg, pixsize, fluid.getDeltaX());
WriteFITS::wfits(params.outputDirectory + "intensity_pixel_ff", "mJy/pixel", data.fluxFF, params, pixdeg, pixsize, fluid.getDeltaX(), data.intensityFF);
}
if (params.integratingRL) {
WriteFITS::wfits(params.outputDirectory + "odepth_rl", "", data.tauRL, params, pixdeg, pixsize, fluid.getDeltaX());
WriteFITS::wfits(params.outputDirectory + "emeasure_rl", "cm**6/pc", data.emissionMeasureRL, params, pixdeg, pixsize, fluid.getDeltaX());
WriteFITS::wfits(params.outputDirectory + "intensity_pixel_rl", "mJy/pixel", data.fluxRL, params, pixdeg, pixsize, fluid.getDeltaX(), data.intensityRL);
}
}
MStatus
simpleFluidEmitter::fluidEmitter(
const MObject& fluidObject,
const MMatrix& worldMatrix,
int plugIndex
)
//==============================================================================
//
// Description:
//
// Callback function that gets called once per frame by each fluid
// into which this emitter is emitting. Emits values directly into
// the fluid object. The MFnFluid object passed to this routine is
// not pointing to a DAG object, it is pointing to an internal fluid
// data structure that the fluid node is constructing, eventually to
// be set into the fluid's output attribute.
//
// Parameters:
//
// fluid: fluid into which we are emitting
// worldMatrix: object->world matrix for the fluid
// plugIndex: identifies which fluid connected to the emitter
// we are emitting into
//
// Returns:
//
// MS::kSuccess if the method wishes to override the default
// emitter behaviour
// MS::kUnknownParameter if the method wishes to have the default
// emitter behaviour execute after this routine
// exits.
//
// Notes:
//
// The method first does some work common to all emitter types, then
// calls one of 4 different methods to actually do the emission.
// The methods are:
//
// omniEmitter: omni-directional emitter from a point,
// or from the vertices of an owner object.
//
// volumeEmitter: emits from the surface of an exact cube, sphere,
// cone, cylinder, or torus.
//
// surfaceEmitter: emits from the surface of an owner object.
//
//==============================================================================
{
// make sure the fluid is valid. If it isn't, return MS::kSuccess, indicating
// that no work needs to be done. If we return a failure code, then the default
// fluid emitter code will try to run, which is pointless if the fluid is not
// valid.
//
MFnFluid fluid( fluidObject );
if( fluid.object() != MObject::kNullObj )
{
return MS::kSuccess;
}
// get a data block for the emitter, so we can get attribute values
//
MDataBlock block = forceCache();
// figure out the time interval for emission for the given fluid
//
double dTime = getDeltaTime( plugIndex, block ).as(MTime::kSeconds);
if( dTime == 0.0 )
{
// shouldn't happen, but if the time interval is 0, then no fluid should
// be emitted
return MS::kSuccess;
}
// if currentTime <= startTime, return. The startTime is connected to
// the target fluid object.
//
MTime cTime = getCurrentTime( block );
MTime sTime = getStartTime( plugIndex, block );
// if we are at or before the start time, reset the random number
// state to the appropriate seed value for the given fluid
//
if( cTime < sTime )
{
resetRandomState( plugIndex, block );
return MS::kSuccess;
}
// check to see if we need to emit anything into the target fluid.
// if the emission rate is 0, or if the fluid doesn't have a grid
// for one of the quantities, then we needn't do any emission
//
// emission rates
double density = fluidDensityEmission( block );
double heat = fluidHeatEmission( block );
double fuel = fluidFuelEmission( block );
bool doColor = fluidEmitColor( block );
// fluid grid settings
MFnFluid::FluidMethod densityMode, tempMode, fuelMode;
MFnFluid::ColorMethod colorMode;
MFnFluid::FluidGradient grad;
MFnFluid::FalloffMethod falloffMode;
fluid.getDensityMode( densityMode, grad );
fluid.getTemperatureMode( tempMode, grad );
fluid.getFuelMode( fuelMode, grad );
fluid.getColorMode( colorMode );
fluid.getFalloffMode( falloffMode );
// see if we need to emit density, heat, fuel, or color
bool densityToEmit = (density != 0.0) && ((densityMode == MFnFluid::kDynamicGrid)||(densityMode == MFnFluid::kStaticGrid));
bool heatToEmit = (heat != 0.0) && ((tempMode == MFnFluid::kDynamicGrid)||(tempMode == MFnFluid::kStaticGrid));
bool fuelToEmit = (fuel != 0.0) && ((fuelMode == MFnFluid::kDynamicGrid)||(fuelMode == MFnFluid::kStaticGrid));
bool colorToEmit = doColor && ((colorMode == MFnFluid::kDynamicColorGrid)||(colorMode == MFnFluid::kStaticColorGrid));
bool falloffEmit = (falloffMode == MFnFluid::kStaticFalloffGrid);
// nothing to emit, do nothing
//
if( !densityToEmit && !heatToEmit && !fuelToEmit && !colorToEmit && !falloffEmit )
{
return MS::kSuccess;
}
// get the dropoff rate for the fluid
//
double dropoff = fluidDropoff( block );
// modify the dropoff rate to account for fluids that have
// been scaled in worldspace - larger scales mean slower
// falloffs and vice versa
//
MTransformationMatrix xform( worldMatrix );
double xformScale[3];
xform.getScale( xformScale, MSpace::kWorld );
double dropoffScale = sqrt( xformScale[0]*xformScale[0] +
xformScale[1]*xformScale[1] +
xformScale[2]*xformScale[2] );
if( dropoffScale > 0.1 )
{
dropoff /= dropoffScale;
}
// retrieve the current random state from the "randState" attribute, and
// store it in the member variable "randState". We will use this member
// value numerous times via the randgen() method. Once we are done emitting,
// we will set the random state back into the attribute via setRandomState().
//
getRandomState( plugIndex, block );
// conversion value used to map user input emission rates into internal
// values.
//
double conversion = 0.01;
MEmitterType emitterType = getEmitterType( block );
switch( emitterType )
{
case kOmni:
omniFluidEmitter( fluid, worldMatrix, plugIndex, block, dTime,
conversion, dropoff );
break;
case kVolume:
volumeFluidEmitter( fluid, worldMatrix, plugIndex, block, dTime,
conversion, dropoff );
break;
case kSurface:
surfaceFluidEmitter( fluid, worldMatrix, plugIndex, block, dTime,
conversion, dropoff );
break;
default:
break;
}
// store the random state back into the datablock
//
setRandomState( plugIndex, block );
return MS::kSuccess;
}
TEST( SDCFsiTest, order )
{
int N = 5;
scalar r0 = 0.2;
scalar a0 = M_PI * r0 * r0;
scalar u0 = 0.1;
scalar p0 = 0;
scalar L = 1;
scalar T = 1;
scalar dx = L / N;
scalar rho = 1.225;
scalar E = 490;
scalar h = 1.0e-3;
scalar cmk = std::sqrt( E * h / (2 * rho * r0) );
scalar c0 = std::sqrt( cmk * cmk - p0 / (2 * rho) );
scalar kappa = c0 / u0;
bool parallel = false;
int extrapolation = 0;
scalar tol = 1.0e-5;
int maxIter = 20;
scalar initialRelaxation = 1.0e-3;
int maxUsedIterations = 50;
int nbReuse = 0;
scalar singularityLimit = 1.0e-13;
int reuseInformationStartingFromTimeIndex = 0;
bool scaling = false;
scalar beta = 0.01;
bool updateJacobian = false;
int minIter = 5;
ASSERT_NEAR( kappa, 10, 1.0e-13 );
ASSERT_TRUE( dx > 0 );
int nbComputations = 5;
std::deque<std::shared_ptr<tubeflow::SDCTubeFlowFluidSolver> > fluidSolvers;
std::deque<int> nbTimeStepsList;
for ( int iComputation = 0; iComputation < nbComputations; iComputation++ )
{
int nbTimeSteps = 4 * std::pow( 2, iComputation );
std::cout << "nbTimeSteps = " << nbTimeSteps << std::endl;
scalar dt = T / nbTimeSteps;
std::shared_ptr<tubeflow::SDCTubeFlowFluidSolver> fluid( new tubeflow::SDCTubeFlowFluidSolver( a0, u0, p0, dt, cmk, N, L, T, rho ) );
std::shared_ptr<tubeflow::SDCTubeFlowSolidSolver> solid( new tubeflow::SDCTubeFlowSolidSolver( a0, cmk, p0, rho, L, N ) );
shared_ptr<RBFFunctionInterface> rbfFunction;
shared_ptr<RBFInterpolation> rbfInterpolator;
shared_ptr<RBFCoarsening> rbfInterpToCouplingMesh;
shared_ptr<RBFCoarsening> rbfInterpToMesh;
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToCouplingMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
shared_ptr<MultiLevelSolver> fluidSolver( new MultiLevelSolver( fluid, fluid, rbfInterpToCouplingMesh, rbfInterpToMesh, 0, 0 ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToCouplingMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
rbfFunction = shared_ptr<RBFFunctionInterface>( new TPSFunction() );
rbfInterpolator = shared_ptr<RBFInterpolation>( new RBFInterpolation( rbfFunction ) );
rbfInterpToMesh = shared_ptr<RBFCoarsening> ( new RBFCoarsening( rbfInterpolator ) );
shared_ptr<MultiLevelSolver> solidSolver( new MultiLevelSolver( solid, fluid, rbfInterpToCouplingMesh, rbfInterpToMesh, 1, 0 ) );
std::shared_ptr< std::list<std::shared_ptr<ConvergenceMeasure> > > convergenceMeasures;
convergenceMeasures = std::shared_ptr<std::list<std::shared_ptr<ConvergenceMeasure> > >( new std::list<std::shared_ptr<ConvergenceMeasure> > );
convergenceMeasures->push_back( std::shared_ptr<ConvergenceMeasure>( new ResidualRelativeConvergenceMeasure( 0, false, tol ) ) );
convergenceMeasures->push_back( std::shared_ptr<ConvergenceMeasure>( new MinIterationConvergenceMeasure( 0, false, minIter ) ) );
shared_ptr<MultiLevelFsiSolver> fsi( new MultiLevelFsiSolver( fluidSolver, solidSolver, convergenceMeasures, parallel, extrapolation ) );
shared_ptr<PostProcessing> postProcessing( new AndersonPostProcessing( fsi, maxIter, initialRelaxation, maxUsedIterations, nbReuse, singularityLimit, reuseInformationStartingFromTimeIndex, scaling, beta, updateJacobian ) );
std::shared_ptr<sdc::SDCFsiSolverInterface> sdcFluidSolver = std::dynamic_pointer_cast<sdc::SDCFsiSolverInterface>( fluid );
std::shared_ptr<sdc::SDCFsiSolverInterface> sdcSolidSolver = std::dynamic_pointer_cast<sdc::SDCFsiSolverInterface>( solid );
assert( sdcFluidSolver );
assert( sdcSolidSolver );
std::shared_ptr<fsi::SDCFsiSolver> fsiSolver( new fsi::SDCFsiSolver( sdcFluidSolver, sdcSolidSolver, postProcessing, extrapolation ) );
int nbNodes = 3;
std::shared_ptr<fsi::quadrature::IQuadrature<scalar> > quadrature;
quadrature = std::shared_ptr<fsi::quadrature::IQuadrature<scalar> >( new fsi::quadrature::GaussLobatto<scalar>( nbNodes ) );
std::shared_ptr<sdc::SDC> sdc( new sdc::SDC( fsiSolver, quadrature, 1.0e-13, 10, 200 ) );
sdc->run();
ASSERT_TRUE( sdc->isConverged() );
fluidSolvers.push_back( fluid );
nbTimeStepsList.push_back( nbTimeSteps );
}
for ( int i = 0; i < 2; i++ )
{
fsi::vector ref;
if ( i == 0 )
ref = fluidSolvers.back()->u;
else
ref = fluidSolvers.back()->a;
std::deque<scalar> errors;
for ( int iComputation = 0; iComputation < nbComputations - 1; iComputation++ )
{
fsi::vector data;
if ( i == 0 )
data = fluidSolvers.at( iComputation )->u;
else
data = fluidSolvers.at( iComputation )->a;
scalar error = (ref - data).norm() / data.norm();
std::cout << "error = " << error << std::endl;
errors.push_back( error );
}
for ( int iComputation = 0; iComputation < nbComputations - 2; iComputation++ )
{
scalar order = ( std::log10( errors.at( iComputation ) ) - std::log10( errors.at( iComputation + 1 ) ) ) / ( std::log10( nbTimeStepsList.at( iComputation + 1 ) ) - std::log10( nbTimeStepsList.at( iComputation ) ) );
std::cout << "order = " << order << std::endl;
ASSERT_GE( order, 3.8 );
}
}
}