/**
* \copyright
* Copyright (c) 2012-2021, OpenGeoSys Community (http://www.opengeosys.org)
* Distributed under a Modified BSD License.
* See accompanying file LICENSE.txt or
* http://www.opengeosys.org/project/license
*
* \file
*
* Created on August 19, 2016, 2:28 PM
*/
#pragma once
#include "LiquidFlowLocalAssembler.h"
#include "MaterialLib/MPL/MaterialSpatialDistributionMap.h"
#include "MaterialLib/MPL/Utils/FormEigenTensor.h"
#include "MaterialLib/MPL/VariableType.h"
#include "NumLib/Function/Interpolation.h"
namespace ProcessLib
{
namespace LiquidFlow
{
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
void LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::
assemble(double const t, double const dt,
std::vector<double> const& local_x,
std::vector<double> const& /*local_xdot*/,
std::vector<double>& local_M_data,
std::vector<double>& local_K_data,
std::vector<double>& local_b_data)
{
ParameterLib::SpatialPosition pos;
pos.setElementID(_element.getID());
auto const& medium = *_process_data.media_map->getMedium(_element.getID());
MaterialPropertyLib::VariableArray vars;
vars[static_cast<int>(MaterialPropertyLib::Variable::temperature)] =
medium[MaterialPropertyLib::PropertyType::reference_temperature]
.template value<double>(vars, pos, t, dt);
vars[static_cast<int>(MaterialPropertyLib::Variable::phase_pressure)] =
std::numeric_limits<double>::quiet_NaN();
auto const permeability = MaterialPropertyLib::formEigenTensor<GlobalDim>(
medium[MaterialPropertyLib::PropertyType::permeability].value(vars, pos,
t, dt));
// Note: For Inclined 1D in 2D/3D or 2D element in 3D, the first item in
// the assert must be changed to permeability.rows() ==
// _element->getDimension()
assert(permeability.rows() == GlobalDim || permeability.rows() == 1);
if (permeability.size() == 1)
{ // isotropic or 1D problem.
assembleMatrixAndVector<IsotropicCalculator>(
t, dt, local_x, local_M_data, local_K_data, local_b_data);
}
else
{
assembleMatrixAndVector<AnisotropicCalculator>(
t, dt, local_x, local_M_data, local_K_data, local_b_data);
}
}
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
Eigen::Vector3d
LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::getFlux(
MathLib::Point3d const& p_local_coords, double const t,
std::vector<double> const& local_x) const
{
// TODO (tf) Temporary value not used by current material models. Need
// extension of getFlux interface
double const dt = std::numeric_limits<double>::quiet_NaN();
// Note: Axial symmetry is set to false here, because we only need dNdx
// here, which is not affected by axial symmetry.
auto const shape_matrices =
NumLib::computeShapeMatrices<ShapeFunction, ShapeMatricesType,
GlobalDim>(_element,
false /*is_axially_symmetric*/,
std::array{p_local_coords})[0];
// create pos object to access the correct media property
ParameterLib::SpatialPosition pos;
pos.setElementID(_element.getID());
auto const& medium = *_process_data.media_map->getMedium(_element.getID());
auto const& liquid_phase = medium.phase("AqueousLiquid");
MaterialPropertyLib::VariableArray vars;
double pressure = 0.0;
NumLib::shapeFunctionInterpolate(local_x, shape_matrices.N, pressure);
vars[static_cast<int>(MaterialPropertyLib::Variable::phase_pressure)] =
pressure;
auto const intrinsic_permeability =
MaterialPropertyLib::formEigenTensor<GlobalDim>(
medium[MaterialPropertyLib::PropertyType::permeability].value(
vars, pos, t, dt));
auto const viscosity =
liquid_phase[MaterialPropertyLib::PropertyType::viscosity]
.template value<double>(vars, pos, t, dt);
Eigen::Vector3d flux(0.0, 0.0, 0.0);
flux.head<GlobalDim>() =
-intrinsic_permeability / viscosity * shape_matrices.dNdx *
Eigen::Map<const NodalVectorType>(local_x.data(), local_x.size());
return flux;
}
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
template <typename LaplacianGravityVelocityCalculator>
void LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::
assembleMatrixAndVector(double const t, double const dt,
std::vector<double> const& local_x,
std::vector<double>& local_M_data,
std::vector<double>& local_K_data,
std::vector<double>& local_b_data)
{
auto const local_matrix_size = local_x.size();
assert(local_matrix_size == ShapeFunction::NPOINTS);
auto local_M = MathLib::createZeroedMatrix<NodalMatrixType>(
local_M_data, local_matrix_size, local_matrix_size);
auto local_K = MathLib::createZeroedMatrix<NodalMatrixType>(
local_K_data, local_matrix_size, local_matrix_size);
auto local_b = MathLib::createZeroedVector<NodalVectorType>(
local_b_data, local_matrix_size);
unsigned const n_integration_points =
_integration_method.getNumberOfPoints();
ParameterLib::SpatialPosition pos;
pos.setElementID(_element.getID());
auto const& medium = *_process_data.media_map->getMedium(_element.getID());
auto const& liquid_phase = medium.phase("AqueousLiquid");
MaterialPropertyLib::VariableArray vars;
vars[static_cast<int>(MaterialPropertyLib::Variable::temperature)] =
medium[MaterialPropertyLib::PropertyType::reference_temperature]
.template value<double>(vars, pos, t, dt);
for (unsigned ip = 0; ip < n_integration_points; ip++)
{
auto const& ip_data = _ip_data[ip];
double p = 0.;
NumLib::shapeFunctionInterpolate(local_x, ip_data.N, p);
vars[static_cast<int>(MaterialPropertyLib::Variable::phase_pressure)] =
p;
// Compute density:
auto const fluid_density =
liquid_phase[MaterialPropertyLib::PropertyType::density]
.template value<double>(vars, pos, t, dt);
assert(fluid_density > 0.);
auto const ddensity_dpressure =
liquid_phase[MaterialPropertyLib::PropertyType::density]
.template dValue<double>(
vars, MaterialPropertyLib::Variable::phase_pressure, pos, t,
dt);
auto const porosity =
medium[MaterialPropertyLib::PropertyType::porosity]
.template value<double>(vars, pos, t, dt);
auto const storage = medium[MaterialPropertyLib::PropertyType::storage]
.template value<double>(vars, pos, t, dt);
// Assemble mass matrix, M
local_M.noalias() +=
(porosity * ddensity_dpressure / fluid_density + storage) *
ip_data.N.transpose() * ip_data.N * ip_data.integration_weight;
// Compute viscosity:
auto const viscosity =
liquid_phase[MaterialPropertyLib::PropertyType::viscosity]
.template value<double>(vars, pos, t, dt);
pos.setIntegrationPoint(ip);
auto const permeability =
MaterialPropertyLib::formEigenTensor<GlobalDim>(
medium[MaterialPropertyLib::PropertyType::permeability].value(
vars, pos, t, dt));
// Assemble Laplacian, K, and RHS by the gravitational term
LaplacianGravityVelocityCalculator::calculateLaplacianAndGravityTerm(
local_K, local_b, ip_data, permeability, viscosity, fluid_density,
_process_data);
}
}
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
std::vector<double> const&
LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::
getIntPtDarcyVelocity(
const double t,
std::vector<GlobalVector*> const& x,
std::vector<NumLib::LocalToGlobalIndexMap const*> const& dof_table,
std::vector<double>& velocity_cache) const
{
// TODO (tf) Temporary value not used by current material models. Need
// extension of secondary variable interface.
double const dt = std::numeric_limits<double>::quiet_NaN();
constexpr int process_id = 0;
auto const indices =
NumLib::getIndices(_element.getID(), *dof_table[process_id]);
auto const local_x = x[process_id]->get(indices);
auto const n_integration_points = _integration_method.getNumberOfPoints();
velocity_cache.clear();
auto velocity_cache_vectors = MathLib::createZeroedMatrix<
Eigen::Matrix<double, GlobalDim, Eigen::Dynamic, Eigen::RowMajor>>(
velocity_cache, GlobalDim, n_integration_points);
ParameterLib::SpatialPosition pos;
pos.setElementID(_element.getID());
auto const& medium = *_process_data.media_map->getMedium(_element.getID());
MaterialPropertyLib::VariableArray vars;
vars[static_cast<int>(MaterialPropertyLib::Variable::temperature)] =
medium[MaterialPropertyLib::PropertyType::reference_temperature]
.template value<double>(vars, pos, t, dt);
vars[static_cast<int>(MaterialPropertyLib::Variable::phase_pressure)] =
std::numeric_limits<double>::quiet_NaN();
auto const permeability = MaterialPropertyLib::formEigenTensor<GlobalDim>(
medium[MaterialPropertyLib::PropertyType::permeability].value(vars, pos,
t, dt));
// Note: For Inclined 1D in 2D/3D or 2D element in 3D, the first item in
// the assert must be changed to perm.rows() == _element->getDimension()
assert(permeability.rows() == GlobalDim || permeability.rows() == 1);
// evaluate the permeability to distinguish which computeDarcyVelocity
// method should be used
if (permeability.size() == 1)
{ // isotropic or 1D problem.
computeDarcyVelocityLocal<IsotropicCalculator>(t, dt, local_x, pos,
velocity_cache_vectors);
}
else
{
computeDarcyVelocityLocal<AnisotropicCalculator>(
t, dt, local_x, pos, velocity_cache_vectors);
}
return velocity_cache;
}
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
template <typename LaplacianGravityVelocityCalculator>
void LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::
computeDarcyVelocityLocal(
const double t, const double dt, std::vector<double> const& local_x,
ParameterLib::SpatialPosition const& pos,
MatrixOfVelocityAtIntegrationPoints& darcy_velocity_at_ips) const
{
auto const local_matrix_size = local_x.size();
assert(local_matrix_size == ShapeFunction::NPOINTS);
const auto local_p_vec =
MathLib::toVector<NodalVectorType>(local_x, local_matrix_size);
unsigned const n_integration_points =
_integration_method.getNumberOfPoints();
auto const& medium = *_process_data.media_map->getMedium(_element.getID());
auto const& liquid_phase = medium.phase("AqueousLiquid");
MaterialPropertyLib::VariableArray vars;
vars[static_cast<int>(MaterialPropertyLib::Variable::temperature)] =
medium[MaterialPropertyLib::PropertyType::reference_temperature]
.template value<double>(vars, pos, t, dt);
for (unsigned ip = 0; ip < n_integration_points; ip++)
{
auto const& ip_data = _ip_data[ip];
double p = 0.;
NumLib::shapeFunctionInterpolate(local_x, ip_data.N, p);
vars[static_cast<int>(MaterialPropertyLib::Variable::phase_pressure)] =
p;
// Compute density:
auto const fluid_density =
liquid_phase[MaterialPropertyLib::PropertyType::density]
.template value<double>(vars, pos, t, dt);
// Compute viscosity:
auto const viscosity =
liquid_phase[MaterialPropertyLib::PropertyType::viscosity]
.template value<double>(vars, pos, t, dt);
auto const permeability =
MaterialPropertyLib::formEigenTensor<GlobalDim>(
medium[MaterialPropertyLib::PropertyType::permeability].value(
vars, pos, t, dt));
LaplacianGravityVelocityCalculator::calculateVelocity(
ip, local_p_vec, ip_data, permeability, viscosity, fluid_density,
darcy_velocity_at_ips, _process_data);
}
}
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
void LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::
IsotropicCalculator::calculateLaplacianAndGravityTerm(
Eigen::Map<NodalMatrixType>& local_K,
Eigen::Map<NodalVectorType>& local_b,
IntegrationPointData<NodalRowVectorType,
GlobalDimNodalMatrixType> const& ip_data,
Eigen::MatrixXd const& permeability, double const mu,
double const rho_L, const LiquidFlowData& process_data)
{
const double K = permeability(0, 0) / mu;
const double fac = K * ip_data.integration_weight;
local_K.noalias() += fac * ip_data.dNdx.transpose() * ip_data.dNdx;
if (process_data.has_gravity)
{
local_b.noalias() += (fac * rho_L) * ip_data.dNdx.transpose() *
process_data.specific_body_force;
}
}
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
void LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::
IsotropicCalculator::calculateVelocity(
unsigned const ip, Eigen::Map<const NodalVectorType> const& local_p,
IntegrationPointData<NodalRowVectorType,
GlobalDimNodalMatrixType> const& ip_data,
Eigen::MatrixXd const& permeability, double const mu,
double const rho_L,
MatrixOfVelocityAtIntegrationPoints& darcy_velocity_at_ips,
const LiquidFlowData& process_data)
{
const double K = permeability(0, 0) / mu;
// Compute the velocity
darcy_velocity_at_ips.col(ip).noalias() = -K * ip_data.dNdx * local_p;
// gravity term
if (process_data.has_gravity)
{
darcy_velocity_at_ips.col(ip).noalias() +=
(K * rho_L) * process_data.specific_body_force;
}
}
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
void LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::
AnisotropicCalculator::calculateLaplacianAndGravityTerm(
Eigen::Map<NodalMatrixType>& local_K,
Eigen::Map<NodalVectorType>& local_b,
IntegrationPointData<NodalRowVectorType,
GlobalDimNodalMatrixType> const& ip_data,
Eigen::MatrixXd const& permeability, double const mu,
double const rho_L, const LiquidFlowData& process_data)
{
const double fac = ip_data.integration_weight / mu;
local_K.noalias() +=
fac * ip_data.dNdx.transpose() * permeability * ip_data.dNdx;
if (process_data.has_gravity)
{
local_b.noalias() += (fac * rho_L) * ip_data.dNdx.transpose() *
permeability * process_data.specific_body_force;
}
}
template <typename ShapeFunction, typename IntegrationMethod, int GlobalDim>
void LiquidFlowLocalAssembler<ShapeFunction, IntegrationMethod, GlobalDim>::
AnisotropicCalculator::calculateVelocity(
unsigned const ip, Eigen::Map<const NodalVectorType> const& local_p,
IntegrationPointData<NodalRowVectorType,
GlobalDimNodalMatrixType> const& ip_data,
Eigen::MatrixXd const& permeability, double const mu,
double const rho_L,
MatrixOfVelocityAtIntegrationPoints& darcy_velocity_at_ips,
const LiquidFlowData& process_data)
{
// Compute the velocity
darcy_velocity_at_ips.col(ip).noalias() =
-permeability * ip_data.dNdx * local_p / mu;
// gravity term
if (process_data.has_gravity)
{
darcy_velocity_at_ips.col(ip).noalias() +=
(rho_L / mu) * permeability * process_data.specific_body_force;
}
}
} // namespace LiquidFlow
} // namespace ProcessLib