def generateGeodynBindings(x, ndim):
dim = "Spheral::Dim< %i >" % ndim
me = "Spheral::Geodyn%id" % ndim
# Constructors.
x.add_constructor([
constrefparam("PhysicalConstants", "constants"),
param("double",
"minimumPressure",
default_value="-std::numeric_limits<double>::max()"),
param("double",
"maximumPressure",
default_value="std::numeric_limits<double>::max()"),
param("MaterialPressureMinType",
"minPressureType",
default_value="MaterialPressureMinType::PressureFloor")
])
# Generic parent interfaces.
generateEquationOfStateVirtualBindings(x, ndim, False)
generatePhysicsVirtualBindings(x, ndim, False)
generateStrengthModelVirtualBindings(x, ndim, False)
# Methods.
# Attributes.
return
def addConstantAccelerationMethods(self, x, ndim):
# Object names.
me = "Spheral::ConstantAcceleration%id" % ndim
dim = "Spheral::Dim<%i>" % ndim
vector = "Vector%id" % ndim
tensor = "Tensor%id" % ndim
symtensor = "SymTensor%id" % ndim
fieldbase = "Spheral::FieldBase%id" % ndim
intfield = "Spheral::IntField%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vectorfield = "Spheral::VectorField%id" % ndim
vector3dfield = "Spheral::Vector3dField%id" % ndim
tensorfield = "Spheral::TensorField%id" % ndim
thirdranktensorfield = "Spheral::ThirdRankTensorField%id" % ndim
vectordoublefield = "Spheral::VectorDoubleField%id" % ndim
vectorvectorfield = "Spheral::VectorVectorField%id" % ndim
vectorsymtensorfield = "Spheral::VectorSymTensorField%id" % ndim
symtensorfield = "Spheral::SymTensorField%id" % ndim
intfieldlist = "Spheral::IntFieldList%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
vectorfieldlist = "Spheral::VectorFieldList%id" % ndim
vector3dfieldlist = "Spheral::Vector3dFieldList%id" % ndim
tensorfieldlist = "Spheral::TensorFieldList%id" % ndim
symtensorfieldlist = "Spheral::SymTensorFieldList%id" % ndim
thirdranktensorfieldlist = "Spheral::ThirdRankTensorFieldList%id" % ndim
vectordoublefieldlist = "Spheral::VectorDoubleFieldList%id" % ndim
vectorvectorfieldlist = "Spheral::VectorVectorFieldList%id" % ndim
vectorsymtensorfieldlist = "Spheral::VectorSymTensorFieldList%id" % ndim
nodelist = "Spheral::NodeList%id" % ndim
state = "Spheral::State%id" % ndim
derivatives = "Spheral::StateDerivatives%id" % ndim
database = "Spheral::DataBase%id" % ndim
connectivitymap = "Spheral::ConnectivityMap%id" % ndim
key = "pair_NodeList%id_string" % ndim
vectorkeys = "vector_of_pair_NodeList%id_string" % ndim
# Constructors.
x.add_constructor([
param(vector, "a0"),
constrefparam(nodelist, "nodeList"),
constrefparam("vector_of_int", "indices")
])
x.add_constructor(
[param(vector, "a0"),
constrefparam(nodelist, "nodeList")])
# Wrap the generic physics methods.
generatePhysicsVirtualBindings(x, ndim, False)
# Methods.
const_ref_return_value(x, me, "%s::nodeList" % me, nodelist, [],
"nodeList")
const_ref_return_value(x, me, "%s::flags" % me, intfield, [], "flags")
# Attributes.
x.add_instance_attribute("a0", vector, getter="a0", is_const=True)
return
def generateNBodyGravityBindings(self, x, ndim):
# Object names.
me = "Spheral::NBodyGravity%id" % ndim
dim = "Spheral::Dim<%i>" % ndim
vector = "Vector%id" % ndim
tensor = "Tensor%id" % ndim
symtensor = "SymTensor%id" % ndim
fieldbase = "Spheral::FieldBase%id" % ndim
intfield = "Spheral::IntField%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vectorfield = "Spheral::VectorField%id" % ndim
vector3dfield = "Spheral::Vector3dField%id" % ndim
tensorfield = "Spheral::TensorField%id" % ndim
thirdranktensorfield = "Spheral::ThirdRankTensorField%id" % ndim
vectordoublefield = "Spheral::VectorDoubleField%id" % ndim
vectorvectorfield = "Spheral::VectorVectorField%id" % ndim
vectorsymtensorfield = "Spheral::VectorSymTensorField%id" % ndim
symtensorfield = "Spheral::SymTensorField%id" % ndim
intfieldlist = "Spheral::IntFieldList%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
vectorfieldlist = "Spheral::VectorFieldList%id" % ndim
vector3dfieldlist = "Spheral::Vector3dFieldList%id" % ndim
tensorfieldlist = "Spheral::TensorFieldList%id" % ndim
symtensorfieldlist = "Spheral::SymTensorFieldList%id" % ndim
thirdranktensorfieldlist = "Spheral::ThirdRankTensorFieldList%id" % ndim
vectordoublefieldlist = "Spheral::VectorDoubleFieldList%id" % ndim
vectorvectorfieldlist = "Spheral::VectorVectorFieldList%id" % ndim
vectorsymtensorfieldlist = "Spheral::VectorSymTensorFieldList%id" % ndim
nodelist = "Spheral::NodeList%id" % ndim
state = "Spheral::State%id" % ndim
derivatives = "Spheral::StateDerivatives%id" % ndim
database = "Spheral::DataBase%id" % ndim
connectivitymap = "Spheral::ConnectivityMap%id" % ndim
key = "pair_NodeList%id_string" % ndim
vectorkeys = "vector_of_pair_NodeList%id_string" % ndim
# Constructors.
x.add_constructor([param("double", "plummerSofteningLength"),
param("double", "maxDeltaVelocity"),
param("double", "G"),
param("bool", "compatibleVelocityUpdate", default_value="false")])
# Wrap the generic physics methods.
generatePhysicsVirtualBindings(x, ndim, False)
# Methods.
const_ref_return_value(x, me, "%s::potential" % me, scalarfieldlist, [], "potential")
# Attributes.
x.add_instance_attribute("G", "double", getter="G", is_const=True)
x.add_instance_attribute("softeningLength", "double", getter="softeningLength", setter="softeningLength")
x.add_instance_attribute("compatibleVelocityUpdate", "bool", getter="compatibleVelocityUpdate", setter="compatibleVelocityUpdate")
return
def addLinearAccelerationMethods(self, x, ndim):
# Object names.
me = "LinearAcceleration%id" % ndim
dim = "Spheral::Dim<%i>" % ndim
vector = "Vector%id" % ndim
tensor = "Tensor%id" % ndim
symtensor = "SymTensor%id" % ndim
fieldbase = "Spheral::FieldBase%id" % ndim
intfield = "Spheral::IntField%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vectorfield = "Spheral::VectorField%id" % ndim
vector3dfield = "Spheral::Vector3dField%id" % ndim
tensorfield = "Spheral::TensorField%id" % ndim
thirdranktensorfield = "Spheral::ThirdRankTensorField%id" % ndim
vectordoublefield = "Spheral::VectorDoubleField%id" % ndim
vectorvectorfield = "Spheral::VectorVectorField%id" % ndim
vectorsymtensorfield = "Spheral::VectorSymTensorField%id" % ndim
symtensorfield = "Spheral::SymTensorField%id" % ndim
intfieldlist = "Spheral::IntFieldList%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
vectorfieldlist = "Spheral::VectorFieldList%id" % ndim
vector3dfieldlist = "Spheral::Vector3dFieldList%id" % ndim
tensorfieldlist = "Spheral::TensorFieldList%id" % ndim
symtensorfieldlist = "Spheral::SymTensorFieldList%id" % ndim
thirdranktensorfieldlist = "Spheral::ThirdRankTensorFieldList%id" % ndim
vectordoublefieldlist = "Spheral::VectorDoubleFieldList%id" % ndim
vectorvectorfieldlist = "Spheral::VectorVectorFieldList%id" % ndim
vectorsymtensorfieldlist = "Spheral::VectorSymTensorFieldList%id" % ndim
nodelist = "Spheral::NodeList%id" % ndim
state = "Spheral::State%id" % ndim
derivatives = "Spheral::StateDerivatives%id" % ndim
database = "Spheral::DataBase%id" % ndim
connectivitymap = "Spheral::ConnectivityMap%id" % ndim
key = "pair_NodeList%id_string" % ndim
vectorkeys = "vector_of_pair_NodeList%id_string" % ndim
# Constructors.
x.add_constructor([param("double", "a0"), param("double", "aslope")])
# Wrap the generic physics methods.
generatePhysicsVirtualBindings(x, ndim, False)
# Attributes.
x.add_instance_attribute("a0", "double", getter="a0", is_const=True)
x.add_instance_attribute("aslope",
"double",
getter="aslope",
is_const=True)
return
def generateStrainPorosityBindings(x, ndim):
me = "Spheral::StrainPorosity%id" % ndim
porouseos = "Spheral::PorousEquationOfState%id" % ndim
porousstrength = "Spheral::PorousStrengthModel%id" % ndim
nodelist = "Spheral::NodeList%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vector_of_boundary = "vector_of_Boundary%id" % ndim
fileio = "Spheral::FileIO"
# Constructors.
x.add_constructor([refparam(porouseos, "porousEOS"),
refparam(porousstrength, "porousStrength"),
constrefparam(nodelist, "nodeList"),
param("double", "phi0"),
param("double", "epsE"),
param("double", "epsX"),
param("double", "kappa"),
param("double", "gammaS0"),
param("double", "cS0"),
param("double", "c0")])
# Physics interface.
generatePhysicsVirtualBindings(x, ndim, False)
# Methods.
x.add_method("label", "std::string", [], is_const=True, is_virtual=True)
x.add_method("dumpState", None,
[refparam(fileio, "file"), refparam("std::string", "pathName")],
is_const=True, is_virtual=True)
x.add_method("restoreState", None,
[constrefparam(fileio, "file"), refparam("std::string", "pathName")],
is_virtual=True)
# Attributes.
x.add_instance_attribute("phi0", "double", getter="phi0", is_const=True)
x.add_instance_attribute("alpha0", "double", getter="alpha0", is_const=True)
x.add_instance_attribute("epsE", "double", getter="epsE", is_const=True)
x.add_instance_attribute("epsX", "double", getter="epsX", is_const=True)
x.add_instance_attribute("epsC", "double", getter="epsC", is_const=True)
x.add_instance_attribute("kappa", "double", getter="kappa", is_const=True)
x.add_instance_attribute("gammaS0", "double", getter="gammaS0", is_const=True)
x.add_instance_attribute("cS0", "double", getter="cS0", is_const=True)
x.add_instance_attribute("c0", "double", getter="c0", is_const=True)
const_ref_return_value(x, me, "%s::porousEOS" % me, porouseos, [], "porousEOS")
const_ref_return_value(x, me, "%s::nodeList" % me, nodelist, [], "nodeList")
const_ref_return_value(x, me, "%s::alpha" % me, scalarfield, [], "alpha")
const_ref_return_value(x, me, "%s::DalphaDt" % me, scalarfield, [], "DalphaDt")
const_ref_return_value(x, me, "%s::strain" % me, scalarfield, [], "strain")
const_ref_return_value(x, me, "%s::DstrainDt" % me, scalarfield, [], "DstrainDt")
return
def addMorrisMonaghanReducingViscosityMethods(self, x, ndim):
me = "Spheral::MorrisMonaghanReducingViscosity%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
artificialviscosity = "Spheral::ArtificialViscosity%id" % ndim
# Constructors.
x.add_constructor([
refparam(artificialviscosity, "q"),
param("double", "nhQ", default_value="5.0"),
param("double", "nhL", default_value="10.0"),
param("double", "aMin", default_value="0.1"),
param("double", "aMax", default_value="2.0")
])
# Add the abstract methods.
generatePhysicsVirtualBindings(x, ndim, False)
# Attributes
x.add_instance_attribute("nhQ", "double", getter="nhQ", setter="nhQ")
x.add_instance_attribute("nhL", "double", getter="nhL", setter="nhL")
x.add_instance_attribute("aMin",
"double",
getter="aMin",
setter="aMin")
x.add_instance_attribute("aMax",
"double",
getter="aMax",
setter="aMax")
# Methods.
const_ref_return_value(x, me, "%s::DrvAlphaDtQ" % me, scalarfieldlist,
[], "DrvAlphaDtQ")
const_ref_return_value(x, me, "%s::DrvAlphaDtL" % me, scalarfieldlist,
[], "DrvAlphaDtL")
return
def generateJohnsonCookDamageBindings(self, x, ndim):
me = "Spheral::JohnsonCookDamage%id" % ndim
dim = "Spheral::Dim<%i> " % ndim
solidnodelist = "Spheral::SolidNodeList%id" % ndim
vectordoublefield = "Spheral::VectorDoubleField%id" % ndim
database = "Spheral::DataBase%id" % ndim
state = "Spheral::State%id" % ndim
derivatives = "Spheral::StateDerivatives%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vectorfield = "Spheral::VectorField%id" % ndim
symtensorfield = "Spheral::SymTensorField%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
tablekernel = "Spheral::TableKernel%id" % ndim
fileio = "Spheral::FileIO"
# Constructors.
x.add_constructor([
refparam(solidnodelist, "nodeList"),
constrefparam(scalarfield, "D1"),
constrefparam(scalarfield, "D2"),
param("double", "D3"),
param("double", "D4"),
param("double", "D5"),
param("double", "epsilondot0"),
param("double", "Tcrit"),
param("double", "sigmamax"),
param("double", "efailmin")
])
# Physics interface.
generatePhysicsVirtualBindings(x, ndim, False)
# Methods.
x.add_method(
"applyGhostBoundaries",
None,
[refparam(state, "state"),
refparam(derivatives, "derivatives")],
is_virtual=True)
x.add_method(
"enforceBoundaries",
None,
[refparam(state, "state"),
refparam(derivatives, "derivatives")],
is_virtual=True)
x.add_function_as_method(
"const_reference_as_pointer",
retval(ptr(solidnodelist),
reference_existing_object=True), [param(me, "self")],
template_parameters=[me, solidnodelist,
"&%s::nodeList" % me],
foreign_cpp_namespace="Spheral",
custom_name="nodeList")
x.add_function_as_method(
"const_reference_as_pointer",
retval(ptr(scalarfield),
reference_existing_object=True), [param(me, "self")],
template_parameters=[me, scalarfield,
"&%s::failureStrain" % me],
foreign_cpp_namespace="Spheral",
custom_name="failureStrain")
x.add_function_as_method("const_reference_as_pointer",
retval(ptr(scalarfield),
reference_existing_object=True),
[param(me, "self")],
template_parameters=[
me, scalarfield,
"&%s::meltSpecificEnergy" % me
],
foreign_cpp_namespace="Spheral",
custom_name="meltSpecificEnergy")
x.add_function_as_method("const_reference_as_pointer",
retval(ptr(symtensorfield),
reference_existing_object=True),
[param(me, "self")],
template_parameters=[
me, symtensorfield,
"&%s::newEffectiveDamage" % me
],
foreign_cpp_namespace="Spheral",
custom_name="newEffectiveDamage")
x.add_function_as_method(
"const_reference_as_pointer",
retval(ptr(scalarfield),
reference_existing_object=True), [param(me, "self")],
template_parameters=[me, scalarfield,
"&%s::D1" % me],
foreign_cpp_namespace="Spheral",
custom_name="D1")
x.add_function_as_method(
"const_reference_as_pointer",
retval(ptr(scalarfield),
reference_existing_object=True), [param(me, "self")],
template_parameters=[me, scalarfield,
"&%s::D2" % me],
foreign_cpp_namespace="Spheral",
custom_name="D2")
x.add_method("label",
"std::string", [],
is_const=True,
is_virtual=True)
x.add_method(
"dumpState",
None,
[refparam(fileio, "FileIO"),
refparam("std::string", "pathName")],
is_const=True,
is_virtual=True)
x.add_method("restoreState",
None, [
constrefparam(fileio, "FileIO"),
refparam("std::string", "pathName")
],
is_virtual=True)
# Attributes.
x.add_instance_attribute("D3", "double", getter="D3", is_const=True)
x.add_instance_attribute("D4", "double", getter="D4", is_const=True)
x.add_instance_attribute("D5", "double", getter="D5", is_const=True)
x.add_instance_attribute("epsilondot0",
"double",
getter="epsilondot0",
is_const=True)
x.add_instance_attribute("Tcrit",
"double",
getter="Tcrit",
is_const=True)
x.add_instance_attribute("sigmamax",
"double",
getter="sigmamax",
is_const=True)
x.add_instance_attribute("efailmin",
"double",
getter="efailmin",
is_const=True)
return
def generateTensorDamageModelBindings(self, x, ndim):
me = "Spheral::TensorDamageModel%id" % ndim
dim = "Spheral::Dim<%i> " % ndim
solidnodelist = "Spheral::SolidNodeList%id" % ndim
vectordoublefield = "Spheral::VectorDoubleField%id" % ndim
database = "Spheral::DataBase%id" % ndim
state = "Spheral::State%id" % ndim
derivatives = "Spheral::StateDerivatives%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vectorfield = "Spheral::VectorField%id" % ndim
symtensorfield = "Spheral::SymTensorField%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
tablekernel = "Spheral::TableKernel%id" % ndim
fileio = "Spheral::FileIO"
# Constructors.
x.add_constructor([
refparam(solidnodelist, "nodeList"),
param("TensorStrainAlgorithm", "strainAlgorithm"),
param("EffectiveDamageAlgorithm", "effectiveDamageAlgorithm"),
param("bool", "useDamageGradient"),
constrefparam(tablekernel, "kernel"),
param("double", "crackGrowthMultiplier"),
param("EffectiveFlawAlgorithm", "flawAlgorithm"),
param("double", "criticalDamageThreshold"),
param("bool", "damageInCompression"),
refparam(vectordoublefield, "flaws")
])
# Physics interface.
generatePhysicsVirtualBindings(x, ndim, False)
# Methods.
x.add_method(
"applyGhostBoundaries",
None,
[refparam(state, "state"),
refparam(derivatives, "derivatives")],
is_virtual=True)
x.add_method(
"enforceBoundaries",
None,
[refparam(state, "state"),
refparam(derivatives, "derivatives")],
is_virtual=True)
x.add_function_as_method(
"const_reference_as_pointer",
retval(ptr(symtensorfield),
reference_existing_object=True), [param(me, "self")],
template_parameters=[me, symtensorfield,
"&%s::strain" % me],
foreign_cpp_namespace="Spheral",
custom_name="strain")
x.add_function_as_method("const_reference_as_pointer",
retval(ptr(symtensorfield),
reference_existing_object=True),
[param(me, "self")],
template_parameters=[
me, symtensorfield,
"&%s::effectiveStrain" % me
],
foreign_cpp_namespace="Spheral",
custom_name="effectiveStrain")
x.add_function_as_method(
"const_reference_as_pointer",
retval(ptr(scalarfield),
reference_existing_object=True), [param(me, "self")],
template_parameters=[me, scalarfield,
"&%s::DdamageDt" % me],
foreign_cpp_namespace="Spheral",
custom_name="DdamageDt")
x.add_function_as_method("const_reference_as_pointer",
retval(ptr(symtensorfield),
reference_existing_object=True),
[param(me, "self")],
template_parameters=[
me, symtensorfield,
"&%s::newEffectiveDamage" % me
],
foreign_cpp_namespace="Spheral",
custom_name="newEffectiveDamage")
x.add_function_as_method("const_reference_as_pointer",
retval(ptr(vectorfield),
reference_existing_object=True),
[param(me, "self")],
template_parameters=[
me, vectorfield,
"&%s::newDamageGradient" % me
],
foreign_cpp_namespace="Spheral",
custom_name="newDamageGradient")
x.add_method("label",
"std::string", [],
is_const=True,
is_virtual=True)
x.add_method(
"dumpState",
None,
[refparam(fileio, "FileIO"),
refparam("std::string", "pathName")],
is_const=True,
is_virtual=True)
x.add_method("restoreState",
None, [
constrefparam(fileio, "FileIO"),
refparam("std::string", "pathName")
],
is_virtual=True)
# Attributes.
x.add_instance_attribute("strainAlgorithm",
"TensorStrainAlgorithm",
getter="strainAlgorithm",
is_const=True)
x.add_instance_attribute("effectiveDamageAlgorithm",
"EffectiveDamageAlgorithm",
getter="effectiveDamageAlgorithm",
is_const=True)
x.add_instance_attribute("useDamageGradient",
"bool",
getter="useDamageGradient",
setter="useDamageGradient")
x.add_instance_attribute("damageInCompression",
"bool",
getter="damageInCompression",
setter="damageInCompression")
x.add_instance_attribute("criticalDamageThreshold",
"double",
getter="criticalDamageThreshold",
setter="criticalDamageThreshold")
return
def addCullenDehnenViscosityMethods(self, x, ndim):
me = "Spheral::CullenDehnenViscosity%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
artificialviscosity = "Spheral::ArtificialViscosity%id" % ndim
tablekernel = "Spheral::TableKernel%id" % ndim
vectorfieldlist = "Spheral::VectorFieldList%id" % ndim
# Constructors.
x.add_constructor([
refparam(artificialviscosity, "q"),
constrefparam(tablekernel, "W"),
param("double", "alphMax", default_value="2.0"),
param("double", "alphMin", default_value="0.02"),
param("double", "betaC", default_value="0.7"),
param("double", "betaD", default_value="0.05"),
param("double", "betaE", default_value="1.0"),
param("double", "fKern", default_value="0.33333"),
param("bool", "boolHopkins", default_value="true")
])
# Add the abstract methods.
generatePhysicsVirtualBindings(x, ndim, False)
# Attributes
x.add_instance_attribute("alphMax",
"double",
getter="alphMax",
setter="alphMax")
x.add_instance_attribute("alphMin",
"double",
getter="alphMin",
setter="alphMin")
x.add_instance_attribute("betaE",
"double",
getter="betaE",
setter="betaE")
x.add_instance_attribute("betaD",
"double",
getter="betaD",
setter="betaD")
x.add_instance_attribute("betaC",
"double",
getter="betaC",
setter="betaC")
x.add_instance_attribute("fKern",
"double",
getter="fKern",
setter="fKern")
x.add_instance_attribute("boolHopkins",
"bool",
getter="boolHopkins",
setter="boolHopkins")
# Methods.
const_ref_return_value(x, me, "%s::PrevDvDt" % me, vectorfieldlist, [],
"PrevDvDt")
const_ref_return_value(x, me, "%s::PrevDivV" % me, scalarfieldlist, [],
"PrevDivV")
const_ref_return_value(x, me, "%s::PrevDivV2" % me, scalarfieldlist,
[], "PrevDivV2")
const_ref_return_value(x, me, "%s::CullAlpha" % me, scalarfieldlist,
[], "CullAlpha")
const_ref_return_value(x, me, "%s::CullAlpha2" % me, scalarfieldlist,
[], "CullAlpha2")
const_ref_return_value(x, me, "%s::DalphaDt" % me, scalarfieldlist, [],
"DalphaDt")
const_ref_return_value(x, me, "%s::alphaLocal" % me, scalarfieldlist,
[], "alphaLocal")
return
def addPointPotentialMethods(self, x, ndim):
# Object names.
dim = "Spheral::Dim<%i>" % ndim
vector = "Vector%id" % ndim
tensor = "Tensor%id" % ndim
symtensor = "SymTensor%id" % ndim
fieldbase = "Spheral::FieldBase%id" % ndim
intfield = "Spheral::IntField%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vectorfield = "Spheral::VectorField%id" % ndim
vector3dfield = "Spheral::Vector3dField%id" % ndim
tensorfield = "Spheral::TensorField%id" % ndim
thirdranktensorfield = "Spheral::ThirdRankTensorField%id" % ndim
vectordoublefield = "Spheral::VectorDoubleField%id" % ndim
vectorvectorfield = "Spheral::VectorVectorField%id" % ndim
vectorsymtensorfield = "Spheral::VectorSymTensorField%id" % ndim
symtensorfield = "Spheral::SymTensorField%id" % ndim
intfieldlist = "Spheral::IntFieldList%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
vectorfieldlist = "Spheral::VectorFieldList%id" % ndim
vector3dfieldlist = "Spheral::Vector3dFieldList%id" % ndim
tensorfieldlist = "Spheral::TensorFieldList%id" % ndim
symtensorfieldlist = "Spheral::SymTensorFieldList%id" % ndim
thirdranktensorfieldlist = "Spheral::ThirdRankTensorFieldList%id" % ndim
vectordoublefieldlist = "Spheral::VectorDoubleFieldList%id" % ndim
vectorvectorfieldlist = "Spheral::VectorVectorFieldList%id" % ndim
vectorsymtensorfieldlist = "Spheral::VectorSymTensorFieldList%id" % ndim
nodelist = "Spheral::NodeList%id" % ndim
state = "Spheral::State%id" % ndim
derivatives = "Spheral::StateDerivatives%id" % ndim
database = "Spheral::DataBase%id" % ndim
connectivitymap = "Spheral::ConnectivityMap%id" % ndim
key = "pair_NodeList%id_string" % ndim
vectorkeys = "vector_of_pair_NodeList%id_string" % ndim
# Constructors.
x.add_constructor([
param("double", "G"),
param("double", "mass"),
param("double", "coreRadius"),
constrefparam(vector, "origin")
])
# Wrap the generic physics methods.
generatePhysicsVirtualBindings(x, ndim, False)
# Methods.
x.add_method("specificPotential",
"double", [constrefparam(vector, "r")],
is_const=True)
# Attributes.
x.add_instance_attribute("G", "double", getter="G", setter="setG")
x.add_instance_attribute("mass",
"double",
getter="mass",
setter="setMass")
x.add_instance_attribute("coreRadius",
"double",
getter="coreRadius",
setter="setCoreRadius")
x.add_instance_attribute("origin",
vector,
getter="origin",
setter="setOrigin")
x.add_instance_attribute("deltaPotentialFraction",
"double",
getter="deltaPotentialFraction",
setter="setDeltaPotentialFraction")
return
def generateTreeGravityBindings(self, x, me, ndim):
# Object names.
dim = "Spheral::Dim<%i>" % ndim
vector = "Vector%id" % ndim
tensor = "Tensor%id" % ndim
symtensor = "SymTensor%id" % ndim
fieldbase = "Spheral::FieldBase%id" % ndim
intfield = "Spheral::IntField%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vectorfield = "Spheral::VectorField%id" % ndim
vector3dfield = "Spheral::Vector3dField%id" % ndim
tensorfield = "Spheral::TensorField%id" % ndim
thirdranktensorfield = "Spheral::ThirdRankTensorField%id" % ndim
vectordoublefield = "Spheral::VectorDoubleField%id" % ndim
vectorvectorfield = "Spheral::VectorVectorField%id" % ndim
vectorsymtensorfield = "Spheral::VectorSymTensorField%id" % ndim
symtensorfield = "Spheral::SymTensorField%id" % ndim
intfieldlist = "Spheral::IntFieldList%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
vectorfieldlist = "Spheral::VectorFieldList%id" % ndim
vector3dfieldlist = "Spheral::Vector3dFieldList%id" % ndim
tensorfieldlist = "Spheral::TensorFieldList%id" % ndim
symtensorfieldlist = "Spheral::SymTensorFieldList%id" % ndim
thirdranktensorfieldlist = "Spheral::ThirdRankTensorFieldList%id" % ndim
vectordoublefieldlist = "Spheral::VectorDoubleFieldList%id" % ndim
vectorvectorfieldlist = "Spheral::VectorVectorFieldList%id" % ndim
vectorsymtensorfieldlist = "Spheral::VectorSymTensorFieldList%id" % ndim
nodelist = "Spheral::NodeList%id" % ndim
state = "Spheral::State%id" % ndim
derivatives = "Spheral::StateDerivatives%id" % ndim
database = "Spheral::DataBase%id" % ndim
connectivitymap = "Spheral::ConnectivityMap%id" % ndim
key = "pair_NodeList%id_string" % ndim
vectorkeys = "vector_of_pair_NodeList%id_string" % ndim
# Constructors.
x.add_constructor([param("double", "G"),
param("double", "softeningLength"),
param("double", "opening", default_value="0.5"),
param("double", "ftimestep", default_value="0.1"),
param("GravityTimeStepType", "timeStepChoice", default_value="Spheral::GravityTimeStepType::AccelerationRatio")])
# Wrap the generic physics methods.
generatePhysicsVirtualBindings(x, ndim, False)
# Methods.
x.add_method("dumpTree", "std::string", [param("bool", "globalTree")], is_const=True)
x.add_method("dumpTreeStatistics", "std::string", [param("bool", "globalTree")], is_const=True)
const_ref_return_value(x, me, "%s::potential" % me, scalarfieldlist, [], "potential")
# Attributes.
x.add_instance_attribute("G", "double", getter="G", is_const=True)
x.add_instance_attribute("opening", "double", getter="opening", setter="opening")
x.add_instance_attribute("softeningLength", "double", getter="softeningLength", setter="softeningLength")
x.add_instance_attribute("ftimestep", "double", getter="ftimestep", setter="ftimestep")
x.add_instance_attribute("timeStepChoice", "GravityTimeStepType", getter="timeStepChoice", setter="timeStepChoice")
x.add_instance_attribute("xmin", vector, getter="xmin", is_const=True)
x.add_instance_attribute("xmax", vector, getter="xmax", is_const=True)
return
def generateVoronoiHourglassControlBindings(self, x, ndim):
# Object names.
me = "Spheral::VoronoiHourglassControl%id" % ndim
dim = "Spheral::Dim<%i>" % ndim
tablekernel = "Spheral::TableKernel%id" % ndim
intfieldlist = "Spheral::IntFieldList%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
vectorfieldlist = "Spheral::VectorFieldList%id" % ndim
vector3dfieldlist = "Spheral::Vector3dFieldList%id" % ndim
tensorfieldlist = "Spheral::TensorFieldList%id" % ndim
symtensorfieldlist = "Spheral::SymTensorFieldList%id" % ndim
thirdranktensorfieldlist = "Spheral::ThirdRankTensorFieldList%id" % ndim
# Constructors.
x.add_constructor([
constrefparam(tablekernel, "W"),
param("unsigned int", "order", default_value="1"),
param("unsigned int", "limiter", default_value="1"),
param("double", "fraction", default_value="0.5"),
param(intfieldlist,
"mask",
default_value=("%s(CopyFields)" % intfieldlist))
])
# Methods.
const_ref_return_value(x, me, "%s::mask" % me, intfieldlist, [],
"mask")
const_ref_return_value(x, me, "%s::kernel" % me, tablekernel, [],
"kernel")
const_ref_return_value(x, me, "%s::gradRho" % me, vectorfieldlist, [],
"gradRho")
const_ref_return_value(x, me, "%s::A" % me, scalarfieldlist, [], "A")
const_ref_return_value(x, me, "%s::B" % me, vectorfieldlist, [], "B")
const_ref_return_value(x, me, "%s::C" % me, vectorfieldlist, [], "C")
const_ref_return_value(x, me, "%s::D" % me, tensorfieldlist, [], "D")
const_ref_return_value(x, me, "%s::gradA" % me, vectorfieldlist, [],
"gradA")
const_ref_return_value(x, me, "%s::gradB" % me, tensorfieldlist, [],
"gradB")
const_ref_return_value(x, me, "%s::weight" % me, scalarfieldlist, [],
"weight")
# Attributes.
x.add_instance_attribute("order",
"unsigned int",
getter="order",
setter="order")
x.add_instance_attribute("limiter",
"unsigned int",
getter="limiter",
setter="limiter")
x.add_instance_attribute("fraction",
"double",
getter="fraction",
setter="fraction")
# Override the abstract interface.
generatePhysicsVirtualBindings(x, ndim, False)
return
def generateThirdMomentHourglassControlBindings(self, x, ndim):
# Object names.
me = "Spheral::ThirdMomentHourglassControl%id" % ndim
dim = "Spheral::Dim<%i>" % ndim
vector = "Vector%id" % ndim
tensor = "Tensor%id" % ndim
symtensor = "SymTensor%id" % ndim
fieldbase = "Spheral::FieldBase%id" % ndim
intfield = "Spheral::IntField%id" % ndim
scalarfield = "Spheral::ScalarField%id" % ndim
vectorfield = "Spheral::VectorField%id" % ndim
vector3dfield = "Spheral::Vector3dField%id" % ndim
tensorfield = "Spheral::TensorField%id" % ndim
thirdranktensorfield = "Spheral::ThirdRankTensorField%id" % ndim
vectordoublefield = "Spheral::VectorDoubleField%id" % ndim
vectorvectorfield = "Spheral::VectorVectorField%id" % ndim
vectorsymtensorfield = "Spheral::VectorSymTensorField%id" % ndim
symtensorfield = "Spheral::SymTensorField%id" % ndim
intfieldlist = "Spheral::IntFieldList%id" % ndim
scalarfieldlist = "Spheral::ScalarFieldList%id" % ndim
vectorfieldlist = "Spheral::VectorFieldList%id" % ndim
vector3dfieldlist = "Spheral::Vector3dFieldList%id" % ndim
tensorfieldlist = "Spheral::TensorFieldList%id" % ndim
symtensorfieldlist = "Spheral::SymTensorFieldList%id" % ndim
thirdranktensorfieldlist = "Spheral::ThirdRankTensorFieldList%id" % ndim
vectordoublefieldlist = "Spheral::VectorDoubleFieldList%id" % ndim
vectorvectorfieldlist = "Spheral::VectorVectorFieldList%id" % ndim
vectorsymtensorfieldlist = "Spheral::VectorSymTensorFieldList%id" % ndim
nodelist = "Spheral::NodeList%id" % ndim
state = "Spheral::State%id" % ndim
derivatives = "Spheral::StateDerivatives%id" % ndim
database = "Spheral::DataBase%id" % ndim
connectivitymap = "Spheral::ConnectivityMap%id" % ndim
key = "pair_NodeList%id_string" % ndim
vectorkeys = "vector_of_pair_NodeList%id_string" % ndim
tablekernel = "Spheral::TableKernel%id" % ndim
artificialviscosity = "Spheral::ArtificialViscosity%id" % ndim
fileio = "Spheral::FileIO"
# Constructors.
x.add_constructor([
constrefparam(database, "dataBase"),
constrefparam(tablekernel, "W"),
param("double", "multiplier", default_value="0.05"),
param("double", "maxAccelerationFactor", default_value="0.01")
])
# Attributes.
x.add_instance_attribute("multiplier",
"double",
getter="multiplier",
setter="multiplier")
x.add_instance_attribute("maxAccelerationFactor",
"double",
getter="maxAccelerationFactor",
setter="maxAccelerationFactor")
x.add_instance_attribute("thirdMoment",
thirdranktensorfieldlist,
getter="thirdMoment",
is_const=True)
# Override the abstract interface.
generatePhysicsVirtualBindings(x, ndim, False)
return