void
PFCRFFVariablesAction::act()
{
#ifdef DEBUG
Moose::err << "Inside the PFCRFFVariablesAction Object\n";
Moose::err << "VariableBase: " << _L_name_base << "\torder: " << getParam<MooseEnum>("order")
<< "\tfamily: " << getParam<MooseEnum>("family") << std::endl;
#endif
// Loop through the number of L variables
for (unsigned int l = 0; l < _num_L; ++l)
{
// Create L base name
std::string L_name = _L_name_base + Moose::stringify(l);
// Create real L variable
const std::string real_name = L_name + "_real";
_problem->addVariable(real_name,
FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>(getParam<MooseEnum>("family"))),
getParam<Real>("scaling"));
if (l > 0)
{
// Create imaginary L variable IF l > 0
std::string imag_name = L_name + "_imag";
_problem->addVariable(
imag_name,
FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>(getParam<MooseEnum>("family"))),
getParam<Real>("scaling"));
}
}
}
ConservedAction::ConservedAction(const InputParameters & params)
: Action(params),
_solve_type(getParam<MooseEnum>("solve_type").getEnum<SolveType>()),
_var_name(name()),
_scaling(getParam<Real>("scaling"))
{
switch (_solve_type)
{
case SolveType::DIRECT:
_fe_type = FEType(Utility::string_to_enum<Order>("THIRD"),
Utility::string_to_enum<FEFamily>("HERMITE"));
if (!parameters().isParamSetByAddParam("order") &&
!parameters().isParamSetByAddParam("family"))
mooseWarning("Order and family autoset to third and hermite in ConservedAction");
break;
case SolveType::REVERSE_SPLIT:
case SolveType::FORWARD_SPLIT:
_fe_type = FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>(getParam<MooseEnum>("family")));
// Set name of chemical potential variable
_chempot_name = "chem_pot_" + _var_name;
break;
default:
mooseError("Incorrect solve_type in ConservedAction");
}
}
Assembly::Assembly(SystemBase & sys, CouplingMatrix * & cm, THREAD_ID tid) :
_sys(sys),
_cm(cm),
_dof_map(_sys.dofMap()),
_tid(tid),
_mesh(sys.mesh()),
_mesh_dimension(_mesh.dimension()),
_current_qrule(NULL),
_current_qrule_volume(NULL),
_current_qrule_arbitrary(NULL),
_current_qrule_face(NULL),
_current_qface_arbitrary(NULL),
_current_qrule_neighbor(NULL),
_current_elem(NULL),
_current_side(0),
_current_side_elem(NULL),
_current_neighbor_elem(NULL),
_current_neighbor_side(0),
_current_node(NULL),
_current_neighbor_node(NULL),
_should_use_fe_cache(false),
_currently_fe_caching(true),
_cached_residual_values(2), // The 2 is for TIME and NONTIME
_cached_residual_rows(2), // The 2 is for TIME and NONTIME
_max_cached_residuals(0),
_max_cached_jacobians(0),
_block_diagonal_matrix(false)
{
// Build fe's for the helpers
getFE(FEType(FIRST, LAGRANGE));
getFEFace(FEType(FIRST, LAGRANGE));
// Build an FE helper object for this type for each dimension up to the dimension of the current mesh
for(unsigned int dim=1; dim<=_mesh_dimension; dim++)
{
_holder_fe_helper[dim] = &_fe[dim][FEType(FIRST, LAGRANGE)];
(*_holder_fe_helper[dim])->get_phi();
(*_holder_fe_helper[dim])->get_dphi();
(*_holder_fe_helper[dim])->get_xyz();
(*_holder_fe_helper[dim])->get_JxW();
_holder_fe_face_helper[dim] = &_fe_face[dim][FEType(FIRST, LAGRANGE)];
(*_holder_fe_face_helper[dim])->get_phi();
(*_holder_fe_face_helper[dim])->get_dphi();
(*_holder_fe_face_helper[dim])->get_xyz();
(*_holder_fe_face_helper[dim])->get_JxW();
(*_holder_fe_face_helper[dim])->get_normals();
}
}
void
HHPFCRFFSplitVariablesAction::act()
{
#ifdef DEBUG
Moose::err << "Inside the HHPFCRFFSplitVariablesAction Object\n";
Moose::err << "VariableBase: " << _L_name_base
<< "\torder: " << getParam<MooseEnum>("order")
<< "\tfamily: " << getParam<MooseEnum>("family") << std::endl;
#endif
// Loop through the number of L variables
for (unsigned int l = 0; l < _num_L; ++l)
{
// Create L base name
std::string L_name = _L_name_base;
std::stringstream out;
out << l;
L_name.append(out.str());
// Create real L variable
std::string real_name = L_name;
real_name.append("_real");
#ifdef DEBUG
Moose::err << "Real name = " << real_name << std::endl;
#endif
_problem->addVariable(real_name,
FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>(getParam<MooseEnum>("family"))),
getParam<Real>("scaling"));
if (l > 0)
{
// Create imaginary L variable IF l > 0
std::string imag_name = L_name;
imag_name.append("_imag");
#ifdef DEBUG
Moose::err << "Imaginary name = " << imag_name << std::endl;
#endif
_problem->addVariable(imag_name,
FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>(getParam<MooseEnum>("family"))),
getParam<Real>("scaling"));
}
}
}
void
PolycrystalVariablesAction::act()
{
#ifdef DEBUG
Moose::err << "Inside the PolycrystalVariablesAction Object\n";
Moose::err << "VariableBase: " << _var_name_base
<< "\torder: " << getParam<std::string>("order")
<< "\tfamily: " << getParam<std::string>("family") << std::endl;
#endif
// Loop through the number of order parameters
for (unsigned int crys = 0; crys<_crys_num; crys++)
{
//Create variable names
std::string var_name = _var_name_base;
std::stringstream out;
out << crys;
var_name.append(out.str());
_problem->addVariable(var_name,
FEType(Utility::string_to_enum<Order>(getParam<std::string>("order")),
Utility::string_to_enum<FEFamily>(getParam<std::string>("family"))),
getParam<Real>("scaling"));
}
}
void
BubblesConcVarsAction::act()
{
if (_current_task == "add_variable")
{
for (unsigned int i = 0; i < _G; ++i)
{
Real scale = 1.0;
_problem->addVariable(_c[i],
FEType(Utility::string_to_enum<Order>(_order),
Utility::string_to_enum<FEFamily>(_family)),
scale);
}
}
else if (_current_task == "add_ic" && isParamValid("initial_condition"))
{
for (unsigned int i = 0; i < _G; ++i)
{
InputParameters poly_params = _factory.getValidParams("ConstantIC");
poly_params.set<VariableName>("variable") = _c[i];
if ( i == 0 )
poly_params.set<Real>("value") = getParam<Real>("c1_initial_condition");
else if ( i == 1 )
poly_params.set<Real>("value") = getParam<Real>("c2_initial_condition");
else
{
poly_params.set<Real>("value") = _ic / _widths[i];
}
_problem->addInitialCondition("ConstantIC", "Initialize_" + 1+i, poly_params);
}
}
}
void
ContactPenetrationVarAction::act()
{
if (!_problem->getDisplacedProblem())
mooseError("Contact requires updated coordinates. Use the 'displacements = ...' line in the Mesh block.");
_problem->addAuxVariable("penetration",
FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>("LAGRANGE")));
}
void
PorousFlowActionBase::addDarcyAux(const RealVectorValue & gravity)
{
if (_current_task == "add_aux_variable")
{
_problem->addAuxVariable("darcy_vel_x",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("darcy_vel_y",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("darcy_vel_z",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
}
if (_current_task == "add_aux_kernel")
{
std::string aux_kernel_type = "PorousFlowDarcyVelocityComponent";
InputParameters params = _factory.getValidParams(aux_kernel_type);
params.set<RealVectorValue>("gravity") = gravity;
params.set<UserObjectName>("PorousFlowDictator") = _dictator_name;
params.set<ExecFlagEnum>("execute_on") = EXEC_TIMESTEP_END;
std::string aux_kernel_name = "PorousFlowActionBase_Darcy_x_Aux";
params.set<MooseEnum>("component") = "x";
params.set<AuxVariableName>("variable") = "darcy_vel_x";
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowActionBase_Darcy_y_Aux";
params.set<MooseEnum>("component") = "y";
params.set<AuxVariableName>("variable") = "darcy_vel_y";
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowActionBase_Darcy_z_Aux";
params.set<MooseEnum>("component") = "z";
params.set<AuxVariableName>("variable") = "darcy_vel_z";
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
}
}
void
NodalAreaVarAction::act()
{
std::string short_name(_name);
// Chop off "Contact/"
short_name.erase(0, 8);
_problem->addAuxVariable("nodal_area_"+ short_name,
FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>("LAGRANGE")));
}
void
SetupResidualDebugAction::act()
{
if (_problem.get() == NULL)
return;
_problem->getNonlinearSystem().debuggingResiduals(true);
// debug variable residuals
for (std::vector<NonlinearVariableName>::const_iterator it = _show_var_residual.begin(); it != _show_var_residual.end(); ++it)
{
NonlinearVariableName var_name = *it;
// add aux-variable
MooseVariable & var = _problem->getVariable(0, var_name);
const std::set<SubdomainID> & subdomains = var.activeSubdomains();
std::stringstream aux_var_ss;
aux_var_ss << "residual_" << var.name();
std::string aux_var_name = aux_var_ss.str();
if (subdomains.empty())
_problem->addAuxVariable(aux_var_name, FEType(FIRST, LAGRANGE));
else
_problem->addAuxVariable(aux_var_name, FEType(FIRST, LAGRANGE), &subdomains);
// add aux-kernel
std::stringstream kern_ss;
kern_ss << "residual_" << var.name() << "_kernel";
std::string kern_name = kern_ss.str();
InputParameters params = _factory.getValidParams("DebugResidualAux");
params.set<AuxVariableName>("variable") = aux_var_name;
params.set<NonlinearVariableName>("debug_variable") = var.name();
params.set<MultiMooseEnum>("execute_on") = "linear";
_problem->addAuxKernel("DebugResidualAux", kern_name, params);
params.set<MultiMooseEnum>("execute_on") = "timestep_end";
_problem->addAuxKernel("DebugResidualAux", kern_name, params);
}
}
void
Assembly::reinitNeighborAtPhysical(const Elem * neighbor, const std::vector<Point> & physical_points)
{
std::vector<Point> reference_points;
unsigned int neighbor_dim = neighbor->dim();
FEInterface::inverse_map(neighbor_dim, FEType(), neighbor, physical_points, reference_points);
reinitNeighborAtReference(neighbor, reference_points);
// Save off the physical points
_current_physical_points = physical_points;
}
void
ThermalContactAuxVarsAction::act()
{
/*
[./gap_value]
order = FIRST
family = LAGRANGE
[../]
[./penetration]
order = FIRST
family = LAGRANGE
[../]
*/
bool quadrature = getParam<bool>("quadrature");
// We need to add variables only once per variable name. However, we don't know how many unique variable
// names we will have. So, we'll always add them.
MooseEnum order = getParam<MooseEnum>("order");
std::string family = "LAGRANGE";
std::string penetration_var_name("penetration");
if(quadrature)
{
order = "CONSTANT";
family = "MONOMIAL";
penetration_var_name = "qpoint_penetration";
}
_problem->addAuxVariable(penetration_var_name,
FEType(Utility::string_to_enum<Order>(order),
Utility::string_to_enum<FEFamily>(family)));
_problem->addAuxVariable(getGapValueName(_pars),
FEType(Utility::string_to_enum<Order>(order),
Utility::string_to_enum<FEFamily>(family)));
}
void
Assembly::reinitElemAndNeighbor(const Elem * elem, unsigned int side, const Elem * neighbor, unsigned int neighbor_side)
{
_current_neighbor_side = neighbor_side;
reinit(elem, side);
unsigned int neighbor_dim = neighbor->dim();
std::vector<Point> reference_points;
FEInterface::inverse_map(neighbor_dim, FEType(), neighbor, _current_q_points_face.stdVector(), reference_points);
reinitNeighborAtReference(neighbor, reference_points);
}
void
DisplacementGradientsAction::act()
{
unsigned int ngrad = _displacement_gradients.size();
if (_current_task == "add_variable")
{
// Loop through the gij variables
Real scaling = getParam<Real>("scaling");
for (unsigned int i = 0; i < ngrad; ++i)
{
// Create displacement gradient variables
_problem->addVariable(_displacement_gradients[i],
FEType(Utility::string_to_enum<Order>("FIRST"),
Utility::string_to_enum<FEFamily>("LAGRANGE")),
scaling);
}
}
else if (_current_task == "add_material")
{
InputParameters params = _factory.getValidParams("StrainGradDispDerivatives");
params.set<std::vector<VariableName> >("displacement_gradients") = _displacement_gradients;
params.set<std::vector<SubdomainName> >("block") = std::vector<SubdomainName>(1, "0");
_problem->addMaterial("StrainGradDispDerivatives", "strain_grad_disp_derivatives", params);
}
else if (_current_task == "add_kernel")
{
unsigned int ndisp = _displacements.size();
if (ndisp * ndisp != ngrad)
mooseError("Number of displacement gradient variables must be the square of the number of displacement variables.");
// Loop through the displacements
unsigned int i = 0;
for (unsigned int j = 0; j < ndisp; ++j)
for (unsigned int k = 0; k < ndisp; ++k)
{
InputParameters params = _factory.getValidParams("GradientComponent");
params.set<NonlinearVariableName>("variable") = _displacement_gradients[i];
params.set<std::vector<VariableName> >("v") = std::vector<VariableName>(1, _displacements[j]);
params.set<unsigned int>("component") = k;
_problem->addKernel("GradientComponent", _displacement_gradients[i] + "_grad_kernel", params);
++i;
}
}
else
mooseError("Internal error.");
}
void
Assembly::reinitAtPhysical(const Elem * elem, const std::vector<Point> & physical_points)
{
_current_elem = elem;
_current_neighbor_elem = NULL;
std::vector<Point> reference_points;
FEInterface::inverse_map(elem->dim(), FEType(), elem, physical_points, reference_points);
_currently_fe_caching = false;
reinit(elem, reference_points);
// Save off the physical points
_current_physical_points = physical_points;
}
QComposite<QSubCell>::QComposite(const unsigned int d,
const Order o) :
QSubCell(d,o), // explicitly call base class constructor
_q_subcell(d,o),
_lagrange_fe(FEBase::build (d, FEType (FIRST, LAGRANGE)))
{
// explicitly call the init function in 1D since the
// other tensor-product rules require this one.
// note that EDGE will not be used internally, however
// if we called the function with INVALID_ELEM it would try to
// be smart and return, thinking it had already done the work.
if (_dim == 1)
QSubCell::init(EDGE2);
libmesh_assert (_lagrange_fe.get() != NULL);
_lagrange_fe->attach_quadrature_rule (&_q_subcell);
}
void ExodusII_IO::copy_elemental_solution(System & system,
std::string system_var_name,
std::string exodus_var_name,
unsigned int timestep)
{
if (!exio_helper->opened_for_reading)
libmesh_error_msg("ERROR, ExodusII file must be opened for reading before copying an elemental solution!");
// Map from element ID to elemental variable value. We need to use
// a map here rather than a vector (e.g. elem_var_values) since the
// libmesh element numbering can contain "holes". This is the case
// if we are reading elemental var values from an adaptively refined
// mesh that has not been sequentially renumbered.
std::map<dof_id_type, Real> elem_var_value_map;
exio_helper->read_elemental_var_values(exodus_var_name, timestep, elem_var_value_map);
const unsigned int var_num = system.variable_number(system_var_name);
if (system.variable_type(var_num) != FEType(CONSTANT, MONOMIAL))
libmesh_error_msg("Error! Trying to copy elemental solution into a variable that is not of CONSTANT MONOMIAL type.");
std::map<dof_id_type, Real>::iterator
it = elem_var_value_map.begin(),
end = elem_var_value_map.end();
for (; it!=end; ++it)
{
const Elem * elem = MeshInput<MeshBase>::mesh().query_elem(it->first);
if (!elem)
libmesh_error_msg("Error! Mesh returned NULL pointer for elem " << it->first);
if (elem->n_comp(system.number(), var_num) > 0)
{
dof_id_type dof_index = elem->dof_number(system.number(), var_num, 0);
// If the dof_index is local to this processor, set the value
if ((dof_index >= system.solution->first_local_index()) && (dof_index < system.solution->last_local_index()))
system.solution->set (dof_index, it->second);
}
}
system.solution->close();
system.update();
}
void
PorousFlowActionBase::addSaturationAux(unsigned phase)
{
std::string phase_str = Moose::stringify(phase);
if (_current_task == "add_aux_variable")
_problem->addAuxVariable("saturation" + phase_str,
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
if (_current_task == "add_aux_kernel")
{
std::string aux_kernel_type = "MaterialStdVectorAux";
InputParameters params = _factory.getValidParams(aux_kernel_type);
std::string aux_kernel_name = "PorousFlowActionBase_SaturationAux" + phase_str;
params.set<MaterialPropertyName>("property") = "PorousFlow_saturation_qp";
params.set<unsigned>("index") = phase;
params.set<AuxVariableName>("variable") = "saturation" + phase_str;
params.set<ExecFlagEnum>("execute_on") = EXEC_TIMESTEP_END;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
}
}
InfFE<Dim,T_radial,T_map>::InfFE (const FEType & fet) :
FEBase (Dim, fet),
_n_total_approx_sf (0),
_n_total_qp (0),
base_qrule (libmesh_nullptr),
radial_qrule (libmesh_nullptr),
base_elem (libmesh_nullptr),
base_fe (libmesh_nullptr),
// initialize the current_fe_type to all the same
// values as \p fet (since the FE families and coordinate
// map type should @e not change), but use an invalid order
// for the radial part (since this is the only order
// that may change!).
// the data structures like \p phi etc are not initialized
// through the constructor, but throught reinit()
current_fe_type ( FEType(fet.order,
fet.family,
INVALID_ORDER,
fet.radial_family,
fet.inf_map) )
{
// Sanity checks
libmesh_assert_equal_to (T_radial, fe_type.radial_family);
libmesh_assert_equal_to (T_map, fe_type.inf_map);
// build the base_fe object, handle the UniquePtr
if (Dim != 1)
{
UniquePtr<FEBase> ap_fb(FEBase::build(Dim-1, fet));
base_fe = ap_fb.release();
}
}
void
ImageGrainVariableAction::act()
{
#ifdef DEBUG
Moose::err << "Inside the ImageGrainVariableAction Object\n"
<< "VariableBase: " << _var_name_base
<< "\torder: " << getParam<std::string>("order")
<< "\tfamily: " << getParam<std::string>("family") << std::endl;
#endif
// Loop through the number of order parameters
for (unsigned int op = 0; op < _op_num; op++)
{
//Create variable names
std::string var_name = _var_name_base;
std::stringstream out;
out << op;
var_name.append(out.str());
_problem->addAuxVariable(var_name,
FEType(Utility::string_to_enum<Order>(getParam<std::string>("order")),
Utility::string_to_enum<FEFamily>(getParam<std::string>("family"))));
}
}
void
RichardsMaterial::computeProperties()
{
// Grab reference to linear Lagrange finite element object pointer,
// currently this is always a linear Lagrange element, so this might need to
// be generalized if we start working with higher-order elements...
FEBase * & fe(_assembly.getFE(getParam<bool>("linear_shape_fcns") ? FEType(FIRST, LAGRANGE) : FEType(SECOND, LAGRANGE), _current_elem->dim()));
// Grab references to FE object's mapping data from the _subproblem's FE object
const std::vector<Real>& dxidx(fe->get_dxidx());
const std::vector<Real>& dxidy(fe->get_dxidy());
const std::vector<Real>& dxidz(fe->get_dxidz());
const std::vector<Real>& detadx(fe->get_detadx());
const std::vector<Real>& detady(fe->get_detady());
const std::vector<Real>& detadz(fe->get_detadz());
const std::vector<Real>& dzetadx(fe->get_dzetadx());
const std::vector<Real>& dzetady(fe->get_dzetady());
const std::vector<Real>& dzetadz(fe->get_dzetadz());
// this gets run for each element
for (unsigned int qp=0; qp<_qrule->n_points(); qp++)
{
_porosity[qp] = _material_por + (*_por_change)[qp];
_porosity_old[qp] = _material_por + (*_por_change_old)[qp];
_permeability[qp] = _material_perm;
for (unsigned int i=0; i<3; i++)
for (unsigned int j=0; j<3; j++)
_permeability[qp](i,j) *= std::pow(10,(*_perm_change[3*i+j])[qp]);
_gravity[qp] = _material_gravity;
_viscosity[qp].resize(_num_p);
_density_old[qp].resize(_num_p);
_density[qp].resize(_num_p);
_ddensity[qp].resize(_num_p);
_d2density[qp].resize(_num_p);
_rel_perm[qp].resize(_num_p);
_drel_perm[qp].resize(_num_p);
_d2rel_perm[qp].resize(_num_p);
_seff_old[qp].resize(_num_p);
_seff[qp].resize(_num_p);
_dseff[qp].resize(_num_p);
_d2seff[qp].resize(_num_p);
_sat_old[qp].resize(_num_p);
_sat[qp].resize(_num_p);
_dsat[qp].resize(_num_p);
_d2sat[qp].resize(_num_p);
for (unsigned int i=0 ; i<_num_p; ++i)
{
_viscosity[qp][i] = _material_viscosity[i];
_density_old[qp][i] = (*_material_density_UO[i]).density((*_pressure_old_vals[i])[qp]);
_density[qp][i] = (*_material_density_UO[i]).density((*_pressure_vals[i])[qp]);
_ddensity[qp][i] = (*_material_density_UO[i]).ddensity((*_pressure_vals[i])[qp]);
_d2density[qp][i] = (*_material_density_UO[i]).d2density((*_pressure_vals[i])[qp]);
_seff_old[qp][i] = (*_material_seff_UO[i]).seff(_pressure_old_vals, qp);
_seff[qp][i] = (*_material_seff_UO[i]).seff(_pressure_vals, qp);
_dseff[qp][i].resize(_num_p);
_dseff[qp][i] = (*_material_seff_UO[i]).dseff(_pressure_vals, qp);
_d2seff[qp][i].resize(_num_p);
for (unsigned int j=0 ; j<_num_p; ++j)
{
_d2seff[qp][i][j].resize(_num_p);
}
_d2seff[qp][i] = (*_material_seff_UO[i]).d2seff(_pressure_vals, qp);
_sat_old[qp][i] = (*_material_sat_UO[i]).sat(_seff_old[qp][i]);
_sat[qp][i] = (*_material_sat_UO[i]).sat(_seff[qp][i]);
//Moose::out << "qp= " << qp << " i= " << i << " pressure= " << (*_pressure_vals[0])[qp] << " " << (*_pressure_vals[1])[qp] << " sat= " << _sat[qp][i] << "\n";
_dsat[qp][i].resize(_num_p);
for (unsigned int j=0 ; j<_num_p; ++j)
{
_dsat[qp][i][j] = (*_material_sat_UO[i]).dsat(_seff[qp][i])*_dseff[qp][i][j]; // could optimise
}
_d2sat[qp][i].resize(_num_p);
for (unsigned int j=0 ; j<_num_p; ++j)
{
_d2sat[qp][i][j].resize(_num_p);
for (unsigned int k=0 ; k<_num_p; ++k)
{
_d2sat[qp][i][j][k] = (*_material_sat_UO[i]).d2sat(_seff[qp][i])*_dseff[qp][i][j]*_dseff[qp][i][k] + (*_material_sat_UO[i]).dsat(_seff[qp][i])*_d2seff[qp][i][j][k];
}
}
_rel_perm[qp][i] = (*_material_relperm_UO[i]).relperm(_seff[qp][i]);
_drel_perm[qp][i] = (*_material_relperm_UO[i]).drelperm(_seff[qp][i]);
_d2rel_perm[qp][i] =(* _material_relperm_UO[i]).d2relperm(_seff[qp][i]);
}
// Now SUPG stuff
_tauvel_SUPG[qp].resize(_num_p);
_dtauvel_SUPG_dgradp[qp].resize(_num_p);
_dtauvel_SUPG_dp[qp].resize(_num_p);
// Bounds checking on element data and putting into vector form
mooseAssert(qp < dxidx.size(), "Insufficient data in dxidx array!");
mooseAssert(qp < dxidy.size(), "Insufficient data in dxidy array!");
mooseAssert(qp < dxidz.size(), "Insufficient data in dxidz array!");
if (_mesh.dimension() >= 2)
{
mooseAssert(qp < detadx.size(), "Insufficient data in detadx array!");
mooseAssert(qp < detady.size(), "Insufficient data in detady array!");
mooseAssert(qp < detadz.size(), "Insufficient data in detadz array!");
}
if (_mesh.dimension() >= 3)
{
mooseAssert(qp < dzetadx.size(), "Insufficient data in dzetadx array!");
mooseAssert(qp < dzetady.size(), "Insufficient data in dzetady array!");
mooseAssert(qp < dzetadz.size(), "Insufficient data in dzetadz array!");
}
// CHECK : Does this work spherical, cylindrical, etc?
RealVectorValue xi_prime(dxidx[qp], dxidy[qp], dxidz[qp]);
RealVectorValue eta_prime, zeta_prime;
if (_mesh.dimension() >= 2)
{
eta_prime(0) = detadx[qp];
eta_prime(1) = detady[qp];
}
if (_mesh.dimension() == 3)
{
eta_prime(2) = detadz[qp];
zeta_prime(0) = dzetadx[qp];
zeta_prime(1) = dzetady[qp];
zeta_prime(2) = dzetadz[qp];
}
for (unsigned int i=0 ; i<_num_p; ++i)
{
RealVectorValue vel = (*_material_SUPG_UO[i]).velSUPG(_permeability[qp], (*_grad_p[i])[qp], _density[qp][i], _gravity[qp]);
RealTensorValue dvel_dgradp = (*_material_SUPG_UO[i]).dvelSUPG_dgradp(_permeability[qp]);
RealVectorValue dvel_dp = (*_material_SUPG_UO[i]).dvelSUPG_dp(_permeability[qp], _ddensity[qp][i], _gravity[qp]);
RealVectorValue bb = (*_material_SUPG_UO[i]).bb(vel, _mesh.dimension(), xi_prime, eta_prime, zeta_prime);
RealVectorValue dbb2_dgradp = (*_material_SUPG_UO[i]).dbb2_dgradp(vel, dvel_dgradp, xi_prime, eta_prime, zeta_prime);
Real dbb2_dp = (*_material_SUPG_UO[i]).dbb2_dp(vel, dvel_dp, xi_prime, eta_prime, zeta_prime);
Real tau = (*_material_SUPG_UO[i]).tauSUPG(vel, _trace_perm, bb);
RealVectorValue dtau_dgradp = (*_material_SUPG_UO[i]).dtauSUPG_dgradp(vel, dvel_dgradp, _trace_perm, bb, dbb2_dgradp);
Real dtau_dp = (*_material_SUPG_UO[i]).dtauSUPG_dp(vel, dvel_dp, _trace_perm, bb, dbb2_dp);
_tauvel_SUPG[qp][i] = tau*vel;
_dtauvel_SUPG_dgradp[qp][i] = tau*dvel_dgradp;
for (unsigned int j=0 ; j<3; ++j)
for (unsigned int k=0 ; k<3; ++k)
_dtauvel_SUPG_dgradp[qp][i](j,k) += dtau_dgradp(j)*vel(k); // this is outerproduct - maybe libmesh can do it better?
_dtauvel_SUPG_dp[qp][i] = dtau_dp*vel + tau*dvel_dp;
}
}
}
void
StressDivergenceTruss::initialSetup()
{
_orientation = &_subproblem.assembly(_tid).getFE(FEType(), _current_elem->dim())->get_dxyzdxi();
}
void
OversampleOutput::initOversample()
{
// Perform the mesh cloning, if needed
if (_change_position || _oversample)
cloneMesh();
else
return;
// Re-position the oversampled mesh
if (_change_position)
for (MeshBase::node_iterator nd = _mesh_ptr->getMesh().nodes_begin(); nd != _mesh_ptr->getMesh().nodes_end(); ++nd)
*(*nd) += _position;
// Perform the mesh refinement
if (_oversample)
{
MeshRefinement mesh_refinement(_mesh_ptr->getMesh());
mesh_refinement.uniformly_refine(_refinements);
}
// Create the new EquationSystems
_es_ptr = new EquationSystems(_mesh_ptr->getMesh());
// Reference the system from which we are copying
EquationSystems & source_es = _problem_ptr->es();
// Initialize the _mesh_functions vector
unsigned int num_systems = source_es.n_systems();
_mesh_functions.resize(num_systems);
// Loop over the number of systems
for (unsigned int sys_num = 0; sys_num < num_systems; sys_num++)
{
// Reference to the current system
System & source_sys = source_es.get_system(sys_num);
// Add the system to the new EquationsSystems
ExplicitSystem & dest_sys = _es_ptr->add_system<ExplicitSystem>(source_sys.name());
// Loop through the variables in the System
unsigned int num_vars = source_sys.n_vars();
if (num_vars > 0)
{
_mesh_functions[sys_num].resize(num_vars);
_serialized_solution = NumericVector<Number>::build(_communicator);
_serialized_solution->init(source_sys.n_dofs(), false, SERIAL);
// Need to pull down a full copy of this vector on every processor so we can get values in parallel
source_sys.solution->localize(*_serialized_solution);
// Add the variables to the system... simultaneously creating MeshFunctions for them.
for (unsigned int var_num = 0; var_num < num_vars; var_num++)
{
// Add the variable, allow for first and second lagrange
const FEType & fe_type = source_sys.variable_type(var_num);
FEType second(SECOND, LAGRANGE);
if (fe_type == second)
dest_sys.add_variable(source_sys.variable_name(var_num), second);
else
dest_sys.add_variable(source_sys.variable_name(var_num), FEType());
}
}
}
// Initialize the newly created EquationSystem
_es_ptr->init();
}
void
MultiAppNearestNodeTransfer::execute()
{
Moose::out << "Beginning NearestNodeTransfer " << _name << std::endl;
switch(_direction)
{
case TO_MULTIAPP:
{
FEProblem & from_problem = *_multi_app->problem();
MooseVariable & from_var = from_problem.getVariable(0, _from_var_name);
MeshBase * from_mesh = NULL;
if (_displaced_source_mesh && from_problem.getDisplacedProblem())
{
mooseError("Cannot use a NearestNode transfer from a displaced mesh to a MultiApp!");
from_mesh = &from_problem.getDisplacedProblem()->mesh().getMesh();
}
else
from_mesh = &from_problem.mesh().getMesh();
SystemBase & from_system_base = from_var.sys();
System & from_sys = from_system_base.system();
unsigned int from_sys_num = from_sys.number();
// Only works with a serialized mesh to transfer from!
mooseAssert(from_sys.get_mesh().is_serial(), "MultiAppNearestNodeTransfer only works with SerialMesh!");
unsigned int from_var_num = from_sys.variable_number(from_var.name());
// EquationSystems & from_es = from_sys.get_equation_systems();
//Create a serialized version of the solution vector
NumericVector<Number> * serialized_solution = NumericVector<Number>::build().release();
serialized_solution->init(from_sys.n_dofs(), false, SERIAL);
// Need to pull down a full copy of this vector on every processor so we can get values in parallel
from_sys.solution->localize(*serialized_solution);
for(unsigned int i=0; i<_multi_app->numGlobalApps(); i++)
{
if (_multi_app->hasLocalApp(i))
{
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
// Loop over the master nodes and set the value of the variable
System * to_sys = find_sys(_multi_app->appProblem(i)->es(), _to_var_name);
if (!to_sys)
mooseError("Cannot find variable "<<_to_var_name<<" for "<<_name<<" Transfer");
unsigned int sys_num = to_sys->number();
unsigned int var_num = to_sys->variable_number(_to_var_name);
NumericVector<Real> & solution = _multi_app->appTransferVector(i, _to_var_name);
MeshBase * mesh = NULL;
if (_displaced_target_mesh && _multi_app->appProblem(i)->getDisplacedProblem())
mesh = &_multi_app->appProblem(i)->getDisplacedProblem()->mesh().getMesh();
else
mesh = &_multi_app->appProblem(i)->mesh().getMesh();
bool is_nodal = to_sys->variable_type(var_num).family == LAGRANGE;
if (is_nodal)
{
MeshBase::const_node_iterator node_it = mesh->local_nodes_begin();
MeshBase::const_node_iterator node_end = mesh->local_nodes_end();
for(; node_it != node_end; ++node_it)
{
Node * node = *node_it;
Point actual_position = *node+_multi_app->position(i);
if (node->n_dofs(sys_num, var_num) > 0) // If this variable has dofs at this node
{
// The zero only works for LAGRANGE!
dof_id_type dof = node->dof_number(sys_num, var_num, 0);
// Swap back
Moose::swapLibMeshComm(swapped);
Real distance = 0; // Just to satisfy the last argument
MeshBase::const_node_iterator from_nodes_begin = from_mesh->nodes_begin();
MeshBase::const_node_iterator from_nodes_end = from_mesh->nodes_end();
Node * nearest_node = NULL;
if (_fixed_meshes)
{
if (_node_map.find(node->id()) == _node_map.end()) // Haven't cached it yet
{
nearest_node = getNearestNode(actual_position, distance, from_nodes_begin, from_nodes_end);
_node_map[node->id()] = nearest_node;
_distance_map[node->id()] = distance;
}
else
{
nearest_node = _node_map[node->id()];
//distance = _distance_map[node->id()];
}
}
else
nearest_node = getNearestNode(actual_position, distance, from_nodes_begin, from_nodes_end);
// Assuming LAGRANGE!
dof_id_type from_dof = nearest_node->dof_number(from_sys_num, from_var_num, 0);
Real from_value = (*serialized_solution)(from_dof);
// Swap again
swapped = Moose::swapLibMeshComm(_multi_app->comm());
solution.set(dof, from_value);
}
}
}
else // Elemental
{
MeshBase::const_element_iterator elem_it = mesh->local_elements_begin();
MeshBase::const_element_iterator elem_end = mesh->local_elements_end();
for(; elem_it != elem_end; ++elem_it)
{
Elem * elem = *elem_it;
Point centroid = elem->centroid();
Point actual_position = centroid+_multi_app->position(i);
if (elem->n_dofs(sys_num, var_num) > 0) // If this variable has dofs at this elem
{
// The zero only works for LAGRANGE!
dof_id_type dof = elem->dof_number(sys_num, var_num, 0);
// Swap back
Moose::swapLibMeshComm(swapped);
Real distance = 0; // Just to satisfy the last argument
MeshBase::const_node_iterator from_nodes_begin = from_mesh->nodes_begin();
MeshBase::const_node_iterator from_nodes_end = from_mesh->nodes_end();
Node * nearest_node = NULL;
if (_fixed_meshes)
{
if (_node_map.find(elem->id()) == _node_map.end()) // Haven't cached it yet
{
nearest_node = getNearestNode(actual_position, distance, from_nodes_begin, from_nodes_end);
_node_map[elem->id()] = nearest_node;
_distance_map[elem->id()] = distance;
}
else
{
nearest_node = _node_map[elem->id()];
//distance = _distance_map[elem->id()];
}
}
else
nearest_node = getNearestNode(actual_position, distance, from_nodes_begin, from_nodes_end);
// Assuming LAGRANGE!
dof_id_type from_dof = nearest_node->dof_number(from_sys_num, from_var_num, 0);
Real from_value = (*serialized_solution)(from_dof);
// Swap again
swapped = Moose::swapLibMeshComm(_multi_app->comm());
solution.set(dof, from_value);
}
}
}
solution.close();
to_sys->update();
// Swap back
Moose::swapLibMeshComm(swapped);
}
}
delete serialized_solution;
break;
}
case FROM_MULTIAPP:
{
FEProblem & to_problem = *_multi_app->problem();
MooseVariable & to_var = to_problem.getVariable(0, _to_var_name);
SystemBase & to_system_base = to_var.sys();
System & to_sys = to_system_base.system();
NumericVector<Real> & to_solution = *to_sys.solution;
unsigned int to_sys_num = to_sys.number();
// Only works with a serialized mesh to transfer to!
mooseAssert(to_sys.get_mesh().is_serial(), "MultiAppNearestNodeTransfer only works with SerialMesh!");
unsigned int to_var_num = to_sys.variable_number(to_var.name());
// EquationSystems & to_es = to_sys.get_equation_systems();
MeshBase * to_mesh = NULL;
if (_displaced_target_mesh && to_problem.getDisplacedProblem())
to_mesh = &to_problem.getDisplacedProblem()->mesh().getMesh();
else
to_mesh = &to_problem.mesh().getMesh();
bool is_nodal = to_sys.variable_type(to_var_num) == FEType();
dof_id_type n_nodes = to_mesh->n_nodes();
dof_id_type n_elems = to_mesh->n_elem();
///// All of the following are indexed off to_node->id() or to_elem->id() /////
// Minimum distances from each node in the "to" mesh to a node in
std::vector<Real> min_distances;
// The node ids in the "from" mesh that this processor has found to be the minimum distances to the "to" nodes
std::vector<dof_id_type> min_nodes;
// After the call to maxloc() this will tell us which processor actually has the minimum
std::vector<unsigned int> min_procs;
// The global multiapp ID that this processor found had the minimum distance node in it.
std::vector<unsigned int> min_apps;
if (is_nodal)
{
min_distances.resize(n_nodes, std::numeric_limits<Real>::max());
min_nodes.resize(n_nodes);
min_procs.resize(n_nodes);
min_apps.resize(n_nodes);
}
else
{
min_distances.resize(n_elems, std::numeric_limits<Real>::max());
min_nodes.resize(n_elems);
min_procs.resize(n_elems);
min_apps.resize(n_elems);
}
for(unsigned int i=0; i<_multi_app->numGlobalApps(); i++)
{
if (!_multi_app->hasLocalApp(i))
continue;
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
FEProblem & from_problem = *_multi_app->appProblem(i);
MooseVariable & from_var = from_problem.getVariable(0, _from_var_name);
SystemBase & from_system_base = from_var.sys();
System & from_sys = from_system_base.system();
// Only works with a serialized mesh to transfer from!
mooseAssert(from_sys.get_mesh().is_serial(), "MultiAppNearestNodeTransfer only works with SerialMesh!");
// unsigned int from_var_num = from_sys.variable_number(from_var.name());
// EquationSystems & from_es = from_sys.get_equation_systems();
MeshBase * from_mesh = NULL;
if (_displaced_source_mesh && from_problem.getDisplacedProblem())
from_mesh = &from_problem.getDisplacedProblem()->mesh().getMesh();
else
from_mesh = &from_problem.mesh().getMesh();
MeshTools::BoundingBox app_box = MeshTools::processor_bounding_box(*from_mesh, libMesh::processor_id());
Point app_position = _multi_app->position(i);
Moose::swapLibMeshComm(swapped);
if (is_nodal)
{
MeshBase::const_node_iterator to_node_it = to_mesh->nodes_begin();
MeshBase::const_node_iterator to_node_end = to_mesh->nodes_end();
for(; to_node_it != to_node_end; ++to_node_it)
{
Node * to_node = *to_node_it;
unsigned int to_node_id = to_node->id();
Real current_distance = 0;
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
MeshBase::const_node_iterator from_nodes_begin = from_mesh->local_nodes_begin();
MeshBase::const_node_iterator from_nodes_end = from_mesh->local_nodes_end();
Node * nearest_node = NULL;
if (_fixed_meshes)
{
if (_node_map.find(to_node->id()) == _node_map.end()) // Haven't cached it yet
{
nearest_node = getNearestNode(*to_node-app_position, current_distance, from_nodes_begin, from_nodes_end);
_node_map[to_node->id()] = nearest_node;
_distance_map[to_node->id()] = current_distance;
}
else
{
nearest_node = _node_map[to_node->id()];
current_distance = _distance_map[to_node->id()];
}
}
else
nearest_node = getNearestNode(*to_node-app_position, current_distance, from_nodes_begin, from_nodes_end);
Moose::swapLibMeshComm(swapped);
// TODO: Logic bug when we are using caching. "current_distance" is set by a call to getNearestNode which is
// skipped in that case. We shouldn't be relying on it or stuffing it in another data structure
if (current_distance < min_distances[to_node->id()])
{
min_distances[to_node_id] = current_distance;
min_nodes[to_node_id] = nearest_node->id();
min_apps[to_node_id] = i;
}
}
}
else // Elemental
{
MeshBase::const_element_iterator to_elem_it = to_mesh->elements_begin();
MeshBase::const_element_iterator to_elem_end = to_mesh->elements_end();
for(; to_elem_it != to_elem_end; ++to_elem_it)
{
Elem * to_elem = *to_elem_it;
unsigned int to_elem_id = to_elem->id();
Point actual_position = to_elem->centroid()-app_position;
Real current_distance = 0;
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
MeshBase::const_node_iterator from_nodes_begin = from_mesh->local_nodes_begin();
MeshBase::const_node_iterator from_nodes_end = from_mesh->local_nodes_end();
Node * nearest_node = NULL;
if (_fixed_meshes)
{
if (_node_map.find(to_elem->id()) == _node_map.end()) // Haven't cached it yet
{
nearest_node = getNearestNode(actual_position, current_distance, from_nodes_begin, from_nodes_end);
_node_map[to_elem->id()] = nearest_node;
_distance_map[to_elem->id()] = current_distance;
}
else
{
nearest_node = _node_map[to_elem->id()];
current_distance = _distance_map[to_elem->id()];
}
}
else
nearest_node = getNearestNode(actual_position, current_distance, from_nodes_begin, from_nodes_end);
Moose::swapLibMeshComm(swapped);
// TODO: Logic bug when we are using caching. "current_distance" is set by a call to getNearestNode which is
// skipped in that case. We shouldn't be relying on it or stuffing it in another data structure
if (current_distance < min_distances[to_elem->id()])
{
min_distances[to_elem_id] = current_distance;
min_nodes[to_elem_id] = nearest_node->id();
min_apps[to_elem_id] = i;
}
}
}
}
/*
// We're going to need serialized solution vectors for each app
// We could try to only do it for the apps that have mins in them...
// but it's tough because this is a collective operation... so that would have to be coordinated
std::vector<NumericVector<Number> *> serialized_from_solutions(_multi_app->numGlobalApps());
if (_multi_app->hasApp())
{
// Swap
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
for(unsigned int i=0; i<_multi_app->numGlobalApps(); i++)
{
if (!_multi_app->hasLocalApp(i))
continue;
FEProblem & from_problem = *_multi_app->appProblem(i);
MooseVariable & from_var = from_problem.getVariable(0, _from_var_name);
SystemBase & from_system_base = from_var.sys();
System & from_sys = from_system_base.system();
//Create a serialized version of the solution vector
serialized_from_solutions[i] = NumericVector<Number>::build().release();
serialized_from_solutions[i]->init(from_sys.n_dofs(), false, SERIAL);
// Need to pull down a full copy of this vector on every processor so we can get values in parallel
from_sys.solution->localize(*serialized_from_solutions[i]);
}
// Swap back
Moose::swapLibMeshComm(swapped);
}
*/
// We've found the nearest nodes for this processor. We need to see which processor _actually_ found the nearest though
Parallel::minloc(min_distances, min_procs);
// Now loop through min_procs and see if _this_ processor had the actual minimum for any nodes.
// If it did then we're going to go get the value from that nearest node and transfer its value
processor_id_type proc_id = libMesh::processor_id();
for(unsigned int j=0; j<min_procs.size(); j++)
{
if (min_procs[j] == proc_id) // This means that this processor really did find the minumum so we need to transfer the value
{
// The zero only works for LAGRANGE!
dof_id_type to_dof = 0;
if (is_nodal)
{
Node & to_node = to_mesh->node(j);
to_dof = to_node.dof_number(to_sys_num, to_var_num, 0);
}
else
{
Elem & to_elem = *to_mesh->elem(j);
to_dof = to_elem.dof_number(to_sys_num, to_var_num, 0);
}
// The app that has the nearest node in it
unsigned int from_app_num = min_apps[j];
mooseAssert(_multi_app->hasLocalApp(from_app_num), "Something went very wrong!");
// Swap
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
FEProblem & from_problem = *_multi_app->appProblem(from_app_num);
MooseVariable & from_var = from_problem.getVariable(0, _from_var_name);
SystemBase & from_system_base = from_var.sys();
System & from_sys = from_system_base.system();
unsigned int from_sys_num = from_sys.number();
unsigned int from_var_num = from_sys.variable_number(from_var.name());
// EquationSystems & from_es = from_sys.get_equation_systems();
MeshBase * from_mesh = NULL;
if (_displaced_source_mesh && from_problem.getDisplacedProblem())
from_mesh = &from_problem.getDisplacedProblem()->mesh().getMesh();
else
from_mesh = &from_problem.mesh().getMesh();
Node & from_node = from_mesh->node(min_nodes[j]);
// Assuming LAGRANGE!
dof_id_type from_dof = from_node.dof_number(from_sys_num, from_var_num, 0);
Real from_value = (*from_sys.solution)(from_dof);
// Swap back
Moose::swapLibMeshComm(swapped);
to_solution.set(to_dof, from_value);
}
}
to_solution.close();
to_sys.update();
break;
}
}
Moose::out << "Finished NearestNodeTransfer " << _name << std::endl;
}
void
DomainIntegralAction::act()
{
const std::string uo_name("crackFrontDefinition");
const std::string ak_base_name("q");
const std::string av_base_name("q");
const std::string pp_base_name("J");
const unsigned int num_crack_front_nodes = calcNumCrackFrontNodes();
if (_current_task == "add_user_object")
{
const std::string uo_type_name("CrackFrontDefinition");
InputParameters params = _factory.getValidParams(uo_type_name);
params.set<std::vector<MooseEnum> >("execute_on")[0] = "initial";
params.set<MooseEnum>("crack_direction_method") = _direction_method_moose_enum;
params.set<MooseEnum>("crack_end_direction_method") = _end_direction_method_moose_enum;
if (_have_crack_direction_vector)
{
params.set<RealVectorValue>("crack_direction_vector") = _crack_direction_vector;
}
if (_have_crack_direction_vector_end_1)
{
params.set<RealVectorValue>("crack_direction_vector_end_1") = _crack_direction_vector_end_1;
}
if (_have_crack_direction_vector_end_2)
{
params.set<RealVectorValue>("crack_direction_vector_end_2") = _crack_direction_vector_end_2;
}
if (_crack_mouth_boundary_names.size() != 0)
{
params.set<std::vector<BoundaryName> >("crack_mouth_boundary") = _crack_mouth_boundary_names;
}
params.set<bool>("2d") = _treat_as_2d;
params.set<unsigned int>("axis_2d") = _axis_2d;
params.set<std::vector<BoundaryName> >("boundary") = _boundary_names;
params.set<bool>("use_displaced_mesh") = _use_displaced_mesh;
_problem->addUserObject(uo_type_name, uo_name, params);
}
else if (_current_task == "add_aux_variable")
{
for (unsigned int ring_index=0; ring_index<_radius_inner.size(); ++ring_index)
{
if (_treat_as_2d)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<ring_index+1;
_problem->addAuxVariable(av_name_stream.str(),
FEType(Utility::string_to_enum<Order>(_order),
Utility::string_to_enum<FEFamily>(_family)));
}
else
{
for (unsigned int cfn_index=0; cfn_index<num_crack_front_nodes; ++cfn_index)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<cfn_index+1<<"_"<<ring_index+1;
_problem->addAuxVariable(av_name_stream.str(),
FEType(Utility::string_to_enum<Order>(_order),
Utility::string_to_enum<FEFamily>(_family)));
}
}
}
}
else if (_current_task == "add_aux_kernel")
{
const std::string ak_type_name("DomainIntegralQFunction");
InputParameters params = _factory.getValidParams(ak_type_name);
params.set<std::vector<MooseEnum> >("execute_on")[0] = "initial";
params.set<UserObjectName>("crack_front_definition") = uo_name;
params.set<bool>("use_displaced_mesh") = _use_displaced_mesh;
for (unsigned int ring_index=0; ring_index<_radius_inner.size(); ++ring_index)
{
params.set<Real>("j_integral_radius_inner") = _radius_inner[ring_index];
params.set<Real>("j_integral_radius_outer") = _radius_outer[ring_index];
if (_treat_as_2d)
{
std::ostringstream ak_name_stream;
ak_name_stream<<ak_base_name<<"_"<<ring_index+1;
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<ring_index+1;
params.set<AuxVariableName>("variable") = av_name_stream.str();
_problem->addAuxKernel(ak_type_name, ak_name_stream.str(), params);
}
else
{
for (unsigned int cfn_index=0; cfn_index<num_crack_front_nodes; ++cfn_index)
{
std::ostringstream ak_name_stream;
ak_name_stream<<ak_base_name<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<cfn_index+1<<"_"<<ring_index+1;
params.set<AuxVariableName>("variable") = av_name_stream.str();
params.set<unsigned int>("crack_front_node_index") = cfn_index;
_problem->addAuxKernel(ak_type_name, ak_name_stream.str(), params);
}
}
}
}
else if (_current_task == "add_postprocessor")
{
if (_integrals.count(J_INTEGRAL) != 0)
{
const std::string pp_type_name("JIntegral");
InputParameters params = _factory.getValidParams(pp_type_name);
params.set<std::vector<MooseEnum> >("execute_on")[0] = "timestep";
params.set<UserObjectName>("crack_front_definition") = uo_name;
params.set<bool>("use_displaced_mesh") = _use_displaced_mesh;
for (unsigned int ring_index=0; ring_index<_radius_inner.size(); ++ring_index)
{
if (_treat_as_2d)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<ring_index+1;
std::ostringstream pp_name_stream;
pp_name_stream<<pp_base_name<<"_"<<ring_index+1;
std::vector<VariableName> qvars;
qvars.push_back(av_name_stream.str());
params.set<std::vector<VariableName> >("q") = qvars;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
else
{
for (unsigned int cfn_index=0; cfn_index<num_crack_front_nodes; ++cfn_index)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::ostringstream pp_name_stream;
pp_name_stream<<pp_base_name<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::vector<VariableName> qvars;
qvars.push_back(av_name_stream.str());
params.set<std::vector<VariableName> >("q") = qvars;
params.set<unsigned int>("crack_front_node_index") = cfn_index;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
}
}
}
if (_integrals.count(INTERACTION_INTEGRAL_KI) != 0)
{
const std::string pp_base_name("II");
const std::string pp_type_name("InteractionIntegral");
InputParameters params = _factory.getValidParams(pp_type_name);
params.set<std::vector<MooseEnum> >("execute_on")[0] = "timestep";
params.set<UserObjectName>("crack_front_definition") = uo_name;
params.set<bool>("use_displaced_mesh") = _use_displaced_mesh;
params.set<Real>("poissons_ratio") = _poissons_ratio;
params.set<Real>("youngs_modulus") = _youngs_modulus;
params.set<std::vector<VariableName> >("disp_x") = std::vector<VariableName>(1,_disp_x);
params.set<std::vector<VariableName> >("disp_y") = std::vector<VariableName>(1,_disp_y);
if (_disp_z !="")
params.set<std::vector<VariableName> >("disp_z") = std::vector<VariableName>(1,_disp_z);
params.set<std::string>("aux_stress") = "aux_stress_I";
params.set<std::string>("aux_disp") = "aux_disp_I";
params.set<std::string>("aux_grad_disp") = "aux_grad_disp_I";
params.set<std::string>("aux_strain") = "aux_strain_I";
params.set<Real>("K_factor") = 0.5 * _youngs_modulus / (1 - std::pow(_poissons_ratio,2));
for (unsigned int ring_index=0; ring_index<_radius_inner.size(); ++ring_index)
{
if (_treat_as_2d)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<ring_index+1;
std::ostringstream pp_name_stream;
pp_name_stream<<pp_base_name<<"_"<<"KI"<<"_"<<ring_index+1;
std::vector<VariableName> qvars;
qvars.push_back(av_name_stream.str());
params.set<std::vector<VariableName> >("q") = qvars;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
else
{
for (unsigned int cfn_index=0; cfn_index<num_crack_front_nodes; ++cfn_index)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::ostringstream pp_name_stream;
pp_name_stream<<pp_base_name<<"_"<<"KI"<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::vector<VariableName> qvars;
qvars.push_back(av_name_stream.str());
params.set<std::vector<VariableName> >("q") = qvars;
params.set<unsigned int>("crack_front_node_index") = cfn_index;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
}
}
}
if (_integrals.count(INTERACTION_INTEGRAL_KII) != 0)
{
const std::string pp_base_name("II");
const std::string pp_type_name("InteractionIntegral");
InputParameters params = _factory.getValidParams(pp_type_name);
params.set<std::vector<MooseEnum> >("execute_on")[0] = "timestep";
params.set<UserObjectName>("crack_front_definition") = uo_name;
params.set<bool>("use_displaced_mesh") = _use_displaced_mesh;
params.set<Real>("poissons_ratio") = _poissons_ratio;
params.set<Real>("youngs_modulus") = _youngs_modulus;
params.set<std::vector<VariableName> >("disp_x") = std::vector<VariableName>(1,_disp_x);
params.set<std::vector<VariableName> >("disp_y") = std::vector<VariableName>(1,_disp_y);
if (_disp_z !="")
params.set<std::vector<VariableName> >("disp_z") = std::vector<VariableName>(1,_disp_z);
params.set<std::string>("aux_stress") = "aux_stress_II";
params.set<std::string>("aux_disp") = "aux_disp_II";
params.set<std::string>("aux_grad_disp") = "aux_grad_disp_II";
params.set<std::string>("aux_strain") = "aux_strain_II";
params.set<Real>("K_factor") = 0.5 * _youngs_modulus / (1 - std::pow(_poissons_ratio,2));
for (unsigned int ring_index=0; ring_index<_radius_inner.size(); ++ring_index)
{
if (_treat_as_2d)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<ring_index+1;
std::ostringstream pp_name_stream;
pp_name_stream<<pp_base_name<<"_"<<"KII"<<"_"<<ring_index+1;
std::vector<VariableName> qvars;
qvars.push_back(av_name_stream.str());
params.set<std::vector<VariableName> >("q") = qvars;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
else
{
for (unsigned int cfn_index=0; cfn_index<num_crack_front_nodes; ++cfn_index)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::ostringstream pp_name_stream;
pp_name_stream<<pp_base_name<<"_"<<"KII"<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::vector<VariableName> qvars;
qvars.push_back(av_name_stream.str());
params.set<std::vector<VariableName> >("q") = qvars;
params.set<unsigned int>("crack_front_node_index") = cfn_index;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
}
}
}
if (_integrals.count(INTERACTION_INTEGRAL_KIII) != 0)
{
const std::string pp_base_name("II");
const std::string pp_type_name("InteractionIntegral");
InputParameters params = _factory.getValidParams(pp_type_name);
params.set<std::vector<MooseEnum> >("execute_on")[0] = "timestep";
params.set<UserObjectName>("crack_front_definition") = uo_name;
params.set<bool>("use_displaced_mesh") = _use_displaced_mesh;
params.set<Real>("poissons_ratio") = _poissons_ratio;
params.set<Real>("youngs_modulus") = _youngs_modulus;
params.set<std::vector<VariableName> >("disp_x") = std::vector<VariableName>(1,_disp_x);
params.set<std::vector<VariableName> >("disp_y") = std::vector<VariableName>(1,_disp_y);
if (_disp_z !="")
params.set<std::vector<VariableName> >("disp_z") = std::vector<VariableName>(1,_disp_z);
params.set<std::string>("aux_stress") = "aux_stress_III";
params.set<std::string>("aux_disp") = "aux_disp_III";
params.set<std::string>("aux_grad_disp") = "aux_grad_disp_III";
params.set<std::string>("aux_strain") = "aux_strain_III";
params.set<Real>("K_factor") = 0.5 * _youngs_modulus / (2 * (1 + _poissons_ratio));
for (unsigned int ring_index=0; ring_index<_radius_inner.size(); ++ring_index)
{
if (_treat_as_2d)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<ring_index+1;
std::ostringstream pp_name_stream;
pp_name_stream<<pp_base_name<<"_"<<"KIII"<<"_"<<ring_index+1;
std::vector<VariableName> qvars;
qvars.push_back(av_name_stream.str());
params.set<std::vector<VariableName> >("q") = qvars;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
else
{
for (unsigned int cfn_index=0; cfn_index<num_crack_front_nodes; ++cfn_index)
{
std::ostringstream av_name_stream;
av_name_stream<<av_base_name<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::ostringstream pp_name_stream;
pp_name_stream<<pp_base_name<<"_"<<"KIII"<<"_"<<cfn_index+1<<"_"<<ring_index+1;
std::vector<VariableName> qvars;
qvars.push_back(av_name_stream.str());
params.set<std::vector<VariableName> >("q") = qvars;
params.set<unsigned int>("crack_front_node_index") = cfn_index;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
}
}
}
for (unsigned int i=0; i<_output_variables.size(); ++i)
{
const std::string ov_base_name(_output_variables[i]);
const std::string pp_type_name("CrackFrontData");
InputParameters params = _factory.getValidParams(pp_type_name);
params.set<std::vector<MooseEnum> >("execute_on")[0] = "timestep";
params.set<UserObjectName>("crack_front_definition") = uo_name;
if (_treat_as_2d)
{
std::ostringstream pp_name_stream;
pp_name_stream<<ov_base_name<<"_crack";
params.set<VariableName>("variable") = _output_variables[i];
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
else
{
for (unsigned int cfn_index=0; cfn_index<num_crack_front_nodes; ++cfn_index)
{
std::ostringstream pp_name_stream;
pp_name_stream<<ov_base_name<<"_crack_"<<cfn_index+1;
params.set<VariableName>("variable") = _output_variables[i];
params.set<unsigned int>("crack_front_node_index") = cfn_index;
_problem->addPostprocessor(pp_type_name,pp_name_stream.str(),params);
}
}
}
}
else if (_current_task == "add_material")
{
int n_int_integrals(0);
int i_ki;
int i_kii;
int i_kiii;
if (_integrals.count(INTERACTION_INTEGRAL_KI) != 0)
{
i_ki = n_int_integrals;
n_int_integrals++;
}
if (_integrals.count(INTERACTION_INTEGRAL_KII) != 0)
{
i_kii = n_int_integrals;
n_int_integrals++;
}
if (_integrals.count(INTERACTION_INTEGRAL_KIII) != 0)
{
i_kiii = n_int_integrals;
n_int_integrals++;
}
std::vector<MooseEnum> sif_mode_enum_vec(InteractionIntegralAuxFields::getSIFModesVec(n_int_integrals));
if (_integrals.count(INTERACTION_INTEGRAL_KI) != 0)
sif_mode_enum_vec[i_ki] = "KI";
if (_integrals.count(INTERACTION_INTEGRAL_KII) != 0)
sif_mode_enum_vec[i_kii] = "KII";
if (_integrals.count(INTERACTION_INTEGRAL_KIII) != 0)
sif_mode_enum_vec[i_kiii] = "KIII";
if (sif_mode_enum_vec.size() > 0)
{
const std::string mater_name("interactionIntegralAuxFields");
const std::string mater_type_name("InteractionIntegralAuxFields");
InputParameters params = _factory.getValidParams(mater_type_name);
params.set<UserObjectName>("crack_front_definition") = uo_name;
params.set<bool>("use_displaced_mesh") = _use_displaced_mesh;
params.set<std::vector<MooseEnum> >("sif_modes") = sif_mode_enum_vec;
params.set<Real>("poissons_ratio") = _poissons_ratio;
params.set<Real>("youngs_modulus") = _youngs_modulus;
params.set<std::vector<SubdomainName> >("block") = _blocks;
_problem->addMaterial(mater_type_name,mater_name,params);
}
}
}
void
MultiAppCopyTransfer::execute()
{
_console << "Beginning CopyTransfer " << name() << std::endl;
switch (_direction)
{
case TO_MULTIAPP:
{
FEProblem & from_problem = _multi_app->problem();
MooseVariable & from_var = from_problem.getVariable(0, _from_var_name);
MeshBase * from_mesh = NULL;
from_mesh = &from_problem.mesh().getMesh();
SystemBase & from_system_base = from_var.sys();
System & from_sys = from_system_base.system();
unsigned int from_sys_num = from_sys.number();
// Only works with a serialized mesh to transfer from!
mooseAssert(from_sys.get_mesh().is_serial(), "MultiAppCopyTransfer only works with ReplicatedMesh!");
unsigned int from_var_num = from_sys.variable_number(from_var.name());
//Create a serialized version of the solution vector
// NumericVector<Number> * serialized_solution = NumericVector<Number>::build(from_sys.comm()).release();
// serialized_solution->init(from_sys.n_dofs(), false, SERIAL);
// Need to pull down a full copy of this vector on every processor so we can get values in parallel
// from_sys.solution->localize(*serialized_solution);
for (unsigned int i=0; i<_multi_app->numGlobalApps(); i++)
{
if (_multi_app->hasLocalApp(i))
{
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
// Loop over the master nodes and set the value of the variable
System * to_sys = find_sys(_multi_app->appProblem(i).es(), _to_var_name);
unsigned int sys_num = to_sys->number();
unsigned int var_num = to_sys->variable_number(_to_var_name);
NumericVector<Real> & solution = _multi_app->appTransferVector(i, _to_var_name);
MeshBase * mesh = NULL;
mesh = &_multi_app->appProblem(i).mesh().getMesh();
bool is_nodal = to_sys->variable_type(var_num).family == LAGRANGE;
if (is_nodal)
{
MeshBase::const_node_iterator node_it = mesh->local_nodes_begin();
MeshBase::const_node_iterator node_end = mesh->local_nodes_end();
for (; node_it != node_end; ++node_it)
{
Node * node = *node_it;
unsigned int node_id = node->id();
if (node->n_dofs(sys_num, var_num) > 0) // If this variable has dofs at this node
{
// The zero only works for LAGRANGE!
dof_id_type dof = node->dof_number(sys_num, var_num, 0);
// Swap back
Moose::swapLibMeshComm(swapped);
Node * from_node = from_mesh->node_ptr(node_id);
// Assuming LAGRANGE!
dof_id_type from_dof = from_node->dof_number(from_sys_num, from_var_num, 0);
//Real from_value = (*serialized_solution)(from_dof);
Real from_value = (*from_sys.solution)(from_dof);
// Swap again
swapped = Moose::swapLibMeshComm(_multi_app->comm());
solution.set(dof, from_value);
}
}
}
else // Elemental
{
mooseError("MultiAppCopyTransfer can only be used on nodal variables");
}
solution.close();
to_sys->update();
// Swap back
Moose::swapLibMeshComm(swapped);
}
}
// delete serialized_solution;
break;
}
case FROM_MULTIAPP:
{
FEProblem & to_problem = _multi_app->problem();
MooseVariable & to_var = to_problem.getVariable(0, _to_var_name);
SystemBase & to_system_base = to_var.sys();
System & to_sys = to_system_base.system();
NumericVector<Real> & to_solution = *to_sys.solution;
unsigned int to_sys_num = to_sys.number();
// Only works with a serialized mesh to transfer to!
mooseAssert(to_sys.get_mesh().is_serial(), "MultiAppCopyTransfer only works with ReplicatedMesh!");
unsigned int to_var_num = to_sys.variable_number(to_var.name());
MeshBase * to_mesh = NULL;
to_mesh = &to_problem.mesh().getMesh();
bool is_nodal = to_sys.variable_type(to_var_num) == FEType();
for (unsigned int i=0; i<_multi_app->numGlobalApps(); i++)
{
if (!_multi_app->hasLocalApp(i))
continue;
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
FEProblem & from_problem = _multi_app->appProblem(i);
MooseVariable & from_var = from_problem.getVariable(0, _from_var_name);
SystemBase & from_system_base = from_var.sys();
System & from_sys = from_system_base.system();
unsigned int from_sys_num = from_sys.number();
unsigned int from_var_num = from_sys.variable_number(from_var.name());
// Only works with a serialized mesh to transfer from!
mooseAssert(from_sys.get_mesh().is_serial(), "MultiAppCopyTransfer only works with ReplicatedMesh!");
//Create a serialized version of the solution vector
// NumericVector<Number> * serialized_solution = NumericVector<Number>::build(from_sys.comm()).release();
// serialized_solution->init(from_sys.n_dofs(), false, SERIAL);
// Need to pull down a full copy of this vector on every processor so we can get values in parallel
// from_sys.solution->localize(*serialized_solution);
MeshBase * from_mesh = &from_problem.mesh().getMesh();
Moose::swapLibMeshComm(swapped);
if (is_nodal)
{
MeshBase::const_node_iterator to_node_it = to_mesh->local_nodes_begin();
MeshBase::const_node_iterator to_node_end = to_mesh->local_nodes_end();
for (; to_node_it != to_node_end; ++to_node_it)
{
Node * to_node = *to_node_it;
unsigned int to_node_id = to_node->id();
// The zero only works for LAGRANGE!
dof_id_type to_dof = to_node->dof_number(to_sys_num, to_var_num, 0);
MPI_Comm swapped = Moose::swapLibMeshComm(_multi_app->comm());
Node * from_node = from_mesh->node_ptr(to_node_id);
// Assuming LAGRANGE!
dof_id_type from_dof = from_node->dof_number(from_sys_num, from_var_num, 0);
//Real from_value = (*serialized_solution)(from_dof);
Real from_value = (*from_sys.solution)(from_dof);
// Swap back
Moose::swapLibMeshComm(swapped);
to_solution.set(to_dof, from_value);
}
}
else // Elemental
{
mooseError("MultiAppCopyTransfer can only be used on nodal variables");
}
// delete serialized_solution;
}
to_solution.close();
to_sys.update();
break;
}
}
_console << "Finished CopyTransfer " << name() << std::endl;
}
void NavierStokesMaterial::compute_h_supg(unsigned qp)
{
// Grab reference to linear Lagrange finite element object pointer,
// currently this is always a linear Lagrange element, so this might need to
// be generalized if we start working with higher-order elements...
FEBase*& fe(_assembly.getFE(FEType(), _current_elem->dim()));
// Grab references to FE object's mapping data from the _subproblem's FE object
const std::vector<Real>& dxidx(fe->get_dxidx());
const std::vector<Real>& dxidy(fe->get_dxidy());
const std::vector<Real>& dxidz(fe->get_dxidz());
const std::vector<Real>& detadx(fe->get_detadx());
const std::vector<Real>& detady(fe->get_detady());
const std::vector<Real>& detadz(fe->get_detadz());
const std::vector<Real>& dzetadx(fe->get_dzetadx()); // Empty in 2D
const std::vector<Real>& dzetady(fe->get_dzetady()); // Empty in 2D
const std::vector<Real>& dzetadz(fe->get_dzetadz()); // Empty in 2D
// Bounds checking on element data
mooseAssert(qp < dxidx.size(), "Insufficient data in dxidx array!");
mooseAssert(qp < dxidy.size(), "Insufficient data in dxidy array!");
mooseAssert(qp < dxidz.size(), "Insufficient data in dxidz array!");
mooseAssert(qp < detadx.size(), "Insufficient data in detadx array!");
mooseAssert(qp < detady.size(), "Insufficient data in detady array!");
mooseAssert(qp < detadz.size(), "Insufficient data in detadz array!");
if (_mesh_dimension == 3)
{
mooseAssert(qp < dzetadx.size(), "Insufficient data in dzetadx array!");
mooseAssert(qp < dzetady.size(), "Insufficient data in dzetady array!");
mooseAssert(qp < dzetadz.size(), "Insufficient data in dzetadz array!");
}
// The velocity vector at this quadrature point.
RealVectorValue U(_u_vel[qp],_v_vel[qp],_w_vel[qp]);
// Pull out element inverse map values at the current qp into a little dense matrix
Real dxi_dx[3][3] = {{0.,0.,0.}, {0.,0.,0.}, {0.,0.,0.}};
dxi_dx[0][0] = dxidx[qp]; dxi_dx[0][1] = dxidy[qp];
dxi_dx[1][0] = detadx[qp]; dxi_dx[1][1] = detady[qp];
// OK to access third entries on 2D elements if LIBMESH_DIM==3, though they
// may be zero...
if (LIBMESH_DIM == 3)
{
/**/ /**/ dxi_dx[0][2] = dxidz[qp];
/**/ /**/ dxi_dx[1][2] = detadz[qp];
}
// The last row of entries available only for 3D elements.
if (_mesh_dimension == 3)
{
dxi_dx[2][0] = dzetadx[qp]; dxi_dx[2][1] = dzetady[qp]; dxi_dx[2][2] = dzetadz[qp];
}
// Construct the g_ij = d(xi_k)/d(x_j) * d(xi_k)/d(x_i) matrix
// from Ben and Bova's paper by summing over k...
Real g[3][3] = {{0.,0.,0.}, {0.,0.,0.}, {0.,0.,0.}};
for (unsigned i=0; i<3; ++i)
for (unsigned j=0; j<3; ++j)
for (unsigned k=0; k<3; ++k)
g[i][j] += dxi_dx[k][j] * dxi_dx[k][i];
// Compute the denominator of the h_supg term: U * (g) * U
Real denom = 0.;
for (unsigned i=0; i<3; ++i)
for (unsigned j=0; j<3; ++j)
denom += U(j) * g[i][j] * U(i);
// Compute h_supg. Some notes:
// .) The 2 coefficient in this term should be a 1 if we are using tets/triangles.
// .) The denominator will be identically zero only if the velocity
// is identically zero, in which case we can't divide by it.
if (denom != 0.0)
_hsupg[qp] = 2.* sqrt( U.size_sq() / denom );
else
_hsupg[qp] = 0.;
// Debugging: Just use hmin for the element!
_hsupg[qp] = _current_elem->hmin();
}
void
PorousFlowActionBase::addStressAux()
{
if (_current_task == "add_aux_variable")
{
_problem->addAuxVariable("stress_xx",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("stress_xy",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("stress_xz",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("stress_yx",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("stress_yy",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("stress_yz",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("stress_zx",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("stress_zy",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
_problem->addAuxVariable("stress_zz",
FEType(Utility::string_to_enum<Order>("CONSTANT"),
Utility::string_to_enum<FEFamily>("MONOMIAL")));
}
if (_current_task == "add_aux_kernel")
{
std::string aux_kernel_type = "RankTwoAux";
InputParameters params = _factory.getValidParams(aux_kernel_type);
params.set<MaterialPropertyName>("rank_two_tensor") = "stress";
params.set<ExecFlagEnum>("execute_on") = EXEC_TIMESTEP_END;
std::string aux_kernel_name = "PorousFlowAction_stress_xx";
params.set<AuxVariableName>("variable") = "stress_xx";
params.set<unsigned>("index_i") = 0;
params.set<unsigned>("index_j") = 0;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowAction_stress_xy";
params.set<AuxVariableName>("variable") = "stress_xy";
params.set<unsigned>("index_i") = 0;
params.set<unsigned>("index_j") = 1;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowAction_stress_xz";
params.set<AuxVariableName>("variable") = "stress_xz";
params.set<unsigned>("index_i") = 0;
params.set<unsigned>("index_j") = 2;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowAction_stress_yx";
params.set<AuxVariableName>("variable") = "stress_yx";
params.set<unsigned>("index_i") = 1;
params.set<unsigned>("index_j") = 0;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowAction_stress_yy";
params.set<AuxVariableName>("variable") = "stress_yy";
params.set<unsigned>("index_i") = 1;
params.set<unsigned>("index_j") = 1;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowAction_stress_yz";
params.set<AuxVariableName>("variable") = "stress_yz";
params.set<unsigned>("index_i") = 1;
params.set<unsigned>("index_j") = 2;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowAction_stress_zx";
params.set<AuxVariableName>("variable") = "stress_zx";
params.set<unsigned>("index_i") = 2;
params.set<unsigned>("index_j") = 0;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowAction_stress_zy";
params.set<AuxVariableName>("variable") = "stress_zy";
params.set<unsigned>("index_i") = 2;
params.set<unsigned>("index_j") = 1;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
aux_kernel_name = "PorousFlowAction_stress_zz";
params.set<AuxVariableName>("variable") = "stress_zz";
params.set<unsigned>("index_i") = 2;
params.set<unsigned>("index_j") = 2;
_problem->addAuxKernel(aux_kernel_type, aux_kernel_name, params);
}
}
void
CHPFCRFFSplitVariablesAction::act()
{
MultiMooseEnum execute_options(SetupInterface::getExecuteOptions());
execute_options = "timestep_begin";
// Setup MultiApp
InputParameters poly_params = _factory.getValidParams("TransientMultiApp");
poly_params.set<MooseEnum>("app_type") = "PhaseFieldApp";
poly_params.set<MultiMooseEnum>("execute_on") = execute_options;
poly_params.set<std::vector<std::string> >("input_files") = _sub_filenames;
poly_params.set<unsigned int>("max_procs_per_app") = 1;
Point one(0.0, 0.0, 0.0);
std::vector<Point > positions;
positions.push_back(one);
poly_params.set<std::vector<Point> >("positions") = positions;
_problem->addMultiApp("TransientMultiApp", "HHEquationSolver", poly_params);
poly_params = _factory.getValidParams("MultiAppNearestNodeTransfer");
poly_params.set<MooseEnum>("direction") = "to_multiapp";
poly_params.set<MultiMooseEnum>("execute_on") = execute_options;
poly_params.set<AuxVariableName>("variable") = _n_name;
poly_params.set<VariableName>("source_variable") = _n_name;
poly_params.set<MultiAppName>("multi_app") = "HHEquationSolver";
// Create Name for Transfer
std::string trans_name = _n_name;
trans_name.append("_trans");
_problem->addTransfer("MultiAppNearestNodeTransfer", trans_name, poly_params);
#ifdef DEBUG
Moose::err << "Inside the CHPFCRFFSplitVariablesAction Object\n";
Moose::err << "VariableBase: " << _L_name_base
<< "\torder: " << getParam<MooseEnum>("order")
<< "\tfamily: " << getParam<MooseEnum>("family") << std::endl;
#endif
// Loop through the number of L variables
for (unsigned int l = 0; l < _num_L; ++l)
{
// Create L base name
std::string L_name = _L_name_base;
std::stringstream out;
out << l;
L_name.append(out.str());
// Create real L variable
std::string real_name = L_name;
real_name.append("_real");
#ifdef DEBUG
Moose::err << "Real name = " << real_name << std::endl;
#endif
_problem->addAuxVariable(real_name,
FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>(getParam<MooseEnum>("family"))));
poly_params = _factory.getValidParams("MultiAppNearestNodeTransfer");
poly_params.set<MooseEnum>("direction") = "from_multiapp";
poly_params.set<AuxVariableName>("variable") = real_name;
poly_params.set<VariableName>("source_variable") = real_name;
poly_params.set<MultiAppName>("multi_app") = "HHEquationSolver";
// Create Name for Transfer
std::string trans_name = real_name;
trans_name.append("_trans");
_problem->addTransfer("MultiAppNearestNodeTransfer", trans_name, poly_params);
if (l > 0)
{
// Create imaginary L variable IF l > 0
std::string imag_name = L_name;
imag_name.append("_imag");
#ifdef DEBUG
Moose::err << "Imaginary name = " << imag_name << std::endl;
#endif
_problem->addAuxVariable(imag_name,
FEType(Utility::string_to_enum<Order>(getParam<MooseEnum>("order")),
Utility::string_to_enum<FEFamily>(getParam<MooseEnum>("family"))));
poly_params = _factory.getValidParams("MultiAppNearestNodeTransfer");
poly_params.set<MooseEnum>("direction") = "from_multiapp";
poly_params.set<AuxVariableName>("variable") = imag_name;
poly_params.set<VariableName>("source_variable") = imag_name;
poly_params.set<MultiAppName>("multi_app") = "HHEquationSolver";
// Create Name for Transfer
std::string trans_name = imag_name;
trans_name.append("_trans");
_problem->addTransfer("MultiAppNearestNodeTransfer", trans_name, poly_params);
}
}
}
int main(int argc, char** argv)
{
LibMeshInit init(argc, argv);
GetPot cl(argc, argv);
int dim = -1;
if (!cl.search("--dim"))
{
std::cerr << "No --dim argument found!" << std::endl;
usage_error(argv[0]);
}
dim = cl.next(dim);
Mesh mesh(dim);
if(!cl.search("--input"))
{
std::cerr << "No --input argument found!" << std::endl;
usage_error(argv[0]);
}
const char* meshname = cl.next("mesh.xda");
mesh.read(meshname);
std::cout << "Loaded mesh " << meshname << std::endl;
if(!cl.search("--newbcid"))
{
std::cerr << "No --bcid argument found!" << std::endl;
usage_error(argv[0]);
}
boundary_id_type bcid = 0;
bcid = cl.next(bcid);
Point minnormal(-std::numeric_limits<Real>::max(),
-std::numeric_limits<Real>::max(),
-std::numeric_limits<Real>::max());
Point maxnormal(std::numeric_limits<Real>::max(),
std::numeric_limits<Real>::max(),
std::numeric_limits<Real>::max());
Point minpoint(-std::numeric_limits<Real>::max(),
-std::numeric_limits<Real>::max(),
-std::numeric_limits<Real>::max());
Point maxpoint(std::numeric_limits<Real>::max(),
std::numeric_limits<Real>::max(),
std::numeric_limits<Real>::max());
if (cl.search("--minnormalx"))
minnormal(0) = cl.next(minnormal(0));
if (cl.search("--minnormalx"))
minnormal(0) = cl.next(minnormal(0));
if (cl.search("--maxnormalx"))
maxnormal(0) = cl.next(maxnormal(0));
if (cl.search("--minnormaly"))
minnormal(1) = cl.next(minnormal(1));
if (cl.search("--maxnormaly"))
maxnormal(1) = cl.next(maxnormal(1));
if (cl.search("--minnormalz"))
minnormal(2) = cl.next(minnormal(2));
if (cl.search("--maxnormalz"))
maxnormal(2) = cl.next(maxnormal(2));
if (cl.search("--minpointx"))
minpoint(0) = cl.next(minpoint(0));
if (cl.search("--maxpointx"))
maxpoint(0) = cl.next(maxpoint(0));
if (cl.search("--minpointy"))
minpoint(1) = cl.next(minpoint(1));
if (cl.search("--maxpointy"))
maxpoint(1) = cl.next(maxpoint(1));
if (cl.search("--minpointz"))
minpoint(2) = cl.next(minpoint(2));
if (cl.search("--maxpointz"))
maxpoint(2) = cl.next(maxpoint(2));
std::cout << "min point = " << minpoint << std::endl;
std::cout << "max point = " << maxpoint << std::endl;
std::cout << "min normal = " << minnormal << std::endl;
std::cout << "max normal = " << maxnormal << std::endl;
bool matcholdbcid = false;
boundary_id_type oldbcid = 0;
if (cl.search("--oldbcid"))
{
matcholdbcid = true;
oldbcid = cl.next(oldbcid);
if (oldbcid < 0)
oldbcid = BoundaryInfo::invalid_id;
}
AutoPtr<FEBase> fe = FEBase::build(dim, FEType(FIRST,LAGRANGE));
QGauss qface(dim-1, CONSTANT);
fe->attach_quadrature_rule(&qface);
const std::vector<Point> &face_points = fe->get_xyz();
const std::vector<Point> &face_normals = fe->get_normals();
MeshBase::element_iterator el = mesh.elements_begin();
const MeshBase::element_iterator end_el = mesh.elements_end();
for (; el != end_el; ++el)
{
Elem *elem = *el;
unsigned int n_sides = elem->n_sides();
for (unsigned int s=0; s != n_sides; ++s)
{
if (elem->neighbor(s))
continue;
fe->reinit(elem,s);
const Point &p = face_points[0];
const Point &n = face_normals[0];
//std::cout << "elem = " << elem->id() << std::endl;
//std::cout << "centroid = " << elem->centroid() << std::endl;
//std::cout << "p = " << p << std::endl;
//std::cout << "n = " << n << std::endl;
if (p(0) > minpoint(0) && p(0) < maxpoint(0) &&
p(1) > minpoint(1) && p(1) < maxpoint(1) &&
p(2) > minpoint(2) && p(2) < maxpoint(2) &&
n(0) > minnormal(0) && n(0) < maxnormal(0) &&
n(1) > minnormal(1) && n(1) < maxnormal(1) &&
n(2) > minnormal(2) && n(2) < maxnormal(2))
{
if (matcholdbcid &&
mesh.boundary_info->boundary_id(elem, s) != oldbcid)
continue;
mesh.boundary_info->remove_side(elem, s);
mesh.boundary_info->add_side(elem, s, bcid);
//std::cout << "Set element " << elem->id() << " side " << s <<
// " to boundary " << bcid << std::endl;
}
}
}
std::string outputname;
if(cl.search("--output"))
{
outputname = cl.next("mesh.xda");
}
else
{
outputname = "new.";
outputname += meshname;
}
mesh.write(outputname.c_str());
std::cout << "Wrote mesh " << outputname << std::endl;
return 0;
}