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dof_manager_default.cc
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			/**
			* @file dof_manager_default.cc
			*
			* @author Nicolas Richart <nicolas.richart@epfl.ch>
			*
			* @date Tue Aug 11 16:21:01 2015
			*
			* @brief Implementation of the default DOFManager
			*
			* @section LICENSE
			*
			* Copyright (©) 2010-2011 EPFL (Ecole Polytechnique Fédérale de Lausanne)
			* Laboratory (LSMS - Laboratoire de Simulation en Mécanique des Solides)
			*
			* Akantu is free software: you can redistribute it and/or modify it under the
			* terms of the GNU Lesser General Public License as published by the Free
			* Software Foundation, either version 3 of the License, or (at your option) any
			* later version.
			*
			* Akantu is distributed in the hope that it will be useful, but WITHOUT ANY
			* WARRANTY; without even the implied warranty of MERCHANTABILITY or FITNESS FOR
			* A PARTICULAR PURPOSE. See the GNU Lesser General Public License for more
			* details.
			*
			* You should have received a copy of the GNU Lesser General Public License
			* along with Akantu. If not, see <http://www.gnu.org/licenses/>.
			*
			*/

			/* -------------------------------------------------------------------------- */
			#include "dof_manager_default.hh"
			#include "communicator.hh"
			#include "dof_synchronizer.hh"
			#include "element_group.hh"
			#include "node_synchronizer.hh"
			#include "non_linear_solver_default.hh"
			#include "sparse_matrix_aij.hh"
			#include "terms_to_assemble.hh"
			#include "time_step_solver_default.hh"
			/* -------------------------------------------------------------------------- */
			#include <algorithm>
			#include <memory>
			#include <numeric>
			#include <unordered_map>
			/* -------------------------------------------------------------------------- */

			namespace akantu {

			/* -------------------------------------------------------------------------- */
			inline void DOFManagerDefault::addSymmetricElementalMatrixToSymmetric(
			SparseMatrixAIJ & matrix, const Matrix<Real> & elementary_mat,
			const Vector<UInt> & equation_numbers, UInt max_size) {
			for (UInt i = 0; i < elementary_mat.rows(); ++i) {
			UInt c_irn = equation_numbers(i);
			if (c_irn < max_size) {
			for (UInt j = i; j < elementary_mat.cols(); ++j) {
			UInt c_jcn = equation_numbers(j);
			if (c_jcn < max_size) {
			matrix(c_irn, c_jcn) += elementary_mat(i, j);
			}
			}
			}
			}
			}

			/* -------------------------------------------------------------------------- */
			inline void DOFManagerDefault::addUnsymmetricElementalMatrixToSymmetric(
			SparseMatrixAIJ & matrix, const Matrix<Real> & elementary_mat,
			const Vector<UInt> & equation_numbers, UInt max_size) {
			for (UInt i = 0; i < elementary_mat.rows(); ++i) {
			UInt c_irn = equation_numbers(i);
			if (c_irn < max_size) {
			for (UInt j = 0; j < elementary_mat.cols(); ++j) {
			UInt c_jcn = equation_numbers(j);
			if (c_jcn < max_size) {
			if (c_jcn >= c_irn) {
			matrix(c_irn, c_jcn) += elementary_mat(i, j);
			}
			}
			}
			}
			}
			}

			/* -------------------------------------------------------------------------- */
			inline void DOFManagerDefault::addElementalMatrixToUnsymmetric(
			SparseMatrixAIJ & matrix, const Matrix<Real> & elementary_mat,
			const Vector<UInt> & equation_numbers, UInt max_size) {
			for (UInt i = 0; i < elementary_mat.rows(); ++i) {
			UInt c_irn = equation_numbers(i);
			if (c_irn < max_size) {
			for (UInt j = 0; j < elementary_mat.cols(); ++j) {
			UInt c_jcn = equation_numbers(j);
			if (c_jcn < max_size) {
			matrix(c_irn, c_jcn) += elementary_mat(i, j);
			}
			}
			}
			}
			}

			/* -------------------------------------------------------------------------- */
			DOFManagerDefault::DOFManagerDefault(const ID & id, const MemoryID & memory_id)
			: DOFManager(id, memory_id), residual(0, 1, std::string(id + ":residual")),
			global_residual(nullptr),
			global_solution(0, 1, std::string(id + ":global_solution")),
			global_blocked_dofs(0, 1, std::string(id + ":global_blocked_dofs")),
			previous_global_blocked_dofs(
			0, 1, std::string(id + ":previous_global_blocked_dofs")),
			dofs_type(0, 1, std::string(id + ":dofs_type")),
			data_cache(0, 1, std::string(id + ":data_cache_array")),

			global_equation_number(0, 1, "global_equation_number"),
			synchronizer(nullptr) {}

			/* -------------------------------------------------------------------------- */
			DOFManagerDefault::DOFManagerDefault(Mesh & mesh, const ID & id,
			const MemoryID & memory_id)
			: DOFManager(mesh, id, memory_id),
			residual(0, 1, std::string(id + ":residual")), global_residual(nullptr),
			global_solution(0, 1, std::string(id + ":global_solution")),
			global_blocked_dofs(0, 1, std::string(id + ":global_blocked_dofs")),
			previous_global_blocked_dofs(
			0, 1, std::string(id + ":previous_global_blocked_dofs")),
			dofs_type(0, 1, std::string(id + ":dofs_type")),
			data_cache(0, 1, std::string(id + ":data_cache_array")),
			jacobian_release(0),
			global_equation_number(0, 1, "global_equation_number"),
			first_global_dof_id(0), synchronizer(nullptr) {
			if (this->mesh->isDistributed())
			this->synchronizer = std::make_unique<DOFSynchronizer>(
			*this, this->id + ":dof_synchronizer", this->memory_id);
			}

			/* -------------------------------------------------------------------------- */
			DOFManagerDefault::~DOFManagerDefault() = default;

			/* -------------------------------------------------------------------------- */
			template <typename T>
			void DOFManagerDefault::assembleToGlobalArray(
			const ID & dof_id, const Array<T> & array_to_assemble,
			Array<T> & global_array, T scale_factor) {
			AKANTU_DEBUG_IN();
			const Array<UInt> & equation_number = this->getLocalEquationNumbers(dof_id);

			UInt nb_degree_of_freedoms =
			array_to_assemble.size() * array_to_assemble.getNbComponent();

			AKANTU_DEBUG_ASSERT(equation_number.size() == nb_degree_of_freedoms,
			"The array to assemble does not have a correct size."
			<< " (" << array_to_assemble.getID() << ")");

			typename Array<T>::const_scalar_iterator arr_it =
			array_to_assemble.begin_reinterpret(nb_degree_of_freedoms);
			Array<UInt>::const_scalar_iterator equ_it = equation_number.begin();

			for (UInt d = 0; d < nb_degree_of_freedoms; ++d, ++arr_it, ++equ_it) {
			global_array(equ_it) += scale_factor (*arr_it);
			}

			AKANTU_DEBUG_OUT();
			}

			/* -------------------------------------------------------------------------- */
			DOFManagerDefault::DOFDataDefault::DOFDataDefault(const ID & dof_id)
			: DOFData(dof_id), associated_nodes(0, 1, dof_id + "associated_nodes") {}

			/* -------------------------------------------------------------------------- */
			DOFManager::DOFData & DOFManagerDefault::getNewDOFData(const ID & dof_id) {
			this->dofs[dof_id] = std::make_unique<DOFDataDefault>(dof_id);
			return *this->dofs[dof_id];
			}

			/* -------------------------------------------------------------------------- */
			class GlobalDOFInfoDataAccessor : public DataAccessor<UInt> {
			public:
			using size_type =
			typename std::unordered_map<UInt, std::vector<UInt>>::size_type;

			GlobalDOFInfoDataAccessor() = default;

			void addDOFToNode(UInt node, UInt dof) { dofs_per_node[node].push_back(dof); }
			UInt getNthDOFForNode(UInt nth_dof, UInt node) const {
			return dofs_per_node.find(node)->second[nth_dof];
			}

			UInt getNbData(const Array<UInt> & nodes,
			const SynchronizationTag & tag) const override {
			if (tag == _gst_size) {
			return nodes.size() * sizeof(size_type);
			}

			if (tag == _gst_update) {
			UInt total_size = 0;
			for (auto node : nodes) {
			auto it = dofs_per_node.find(node);
			if (it != dofs_per_node.end())
			total_size += CommunicationBuffer::sizeInBuffer(it->second);
			}
			return total_size;
			}

			return 0;
			}

			void packData(CommunicationBuffer & buffer, const Array<UInt> & nodes,
			const SynchronizationTag & tag) const override {
			for (auto node : nodes) {
			auto it = dofs_per_node.find(node);
			if (tag == _gst_size) {
			if (it != dofs_per_node.end()) {
			buffer << it->second.size();
			} else {
			buffer << 0;
			}
			} else if (tag == _gst_update) {
			if (it != dofs_per_node.end())
			buffer << it->second;
			}
			}
			}

			void unpackData(CommunicationBuffer & buffer, const Array<UInt> & nodes,
			const SynchronizationTag & tag) override {
			for (auto node : nodes) {
			auto it = dofs_per_node.find(node);
			if (tag == _gst_size) {
			size_type size;
			buffer >> size;
			if (size != 0)
			dofs_per_node[node].resize(size);
			} else if (tag == _gst_update) {
			if (it != dofs_per_node.end())
			buffer >> it->second;
			}
			}
			}

			protected:
			std::unordered_map<UInt, std::vector<UInt>> dofs_per_node;
			};

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::registerDOFsInternal(const ID & dof_id, UInt nb_dofs,
			UInt nb_pure_local_dofs) {
			// auto prank = this->communicator.whoAmI();
			// auto psize = this->communicator.getNbProc();

			// access the relevant data to update
			auto & dof_data = this->getDOFDataTyped<DOFDataDefault>(dof_id);
			const auto & support_type = dof_data.support_type;

			const auto & group = dof_data.group_support;

			if (support_type == _dst_nodal and group != "__mesh__") {
			auto & support_nodes =
			this->mesh->getElementGroup(group).getNodeGroup().getNodes();
			this->updateDOFsData(
			dof_data, nb_dofs, nb_pure_local_dofs,
			[&support_nodes](UInt node) -> UInt { return support_nodes[node]; });
			} else {

			this->updateDOFsData(dof_data, nb_dofs, nb_pure_local_dofs,
			[](UInt node) -> UInt { return node; });
			}

			// update the synchronizer if needed
			if (this->synchronizer)
			this->synchronizer->registerDOFs(dof_id);
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::registerDOFs(const ID & dof_id,
			Array<Real> & dofs_array,
			const DOFSupportType & support_type) {
			// stores the current numbers of dofs
			UInt nb_dofs_old = this->local_system_size;
			UInt nb_pure_local_dofs_old = this->pure_local_system_size;

			// update or create the dof_data
			DOFManager::registerDOFs(dof_id, dofs_array, support_type);

			UInt nb_dofs = this->local_system_size - nb_dofs_old;
			UInt nb_pure_local_dofs =
			this->pure_local_system_size - nb_pure_local_dofs_old;

			this->registerDOFsInternal(dof_id, nb_dofs, nb_pure_local_dofs);
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::registerDOFs(const ID & dof_id,
			Array<Real> & dofs_array,
			const ID & group_support) {
			// stores the current numbers of dofs
			UInt nb_dofs_old = this->local_system_size;
			UInt nb_pure_local_dofs_old = this->pure_local_system_size;

			// update or create the dof_data
			DOFManager::registerDOFs(dof_id, dofs_array, group_support);

			UInt nb_dofs = this->local_system_size - nb_dofs_old;
			UInt nb_pure_local_dofs =
			this->pure_local_system_size - nb_pure_local_dofs_old;

			this->registerDOFsInternal(dof_id, nb_dofs, nb_pure_local_dofs);
			}

			/* -------------------------------------------------------------------------- */
			SparseMatrix & DOFManagerDefault::getNewMatrix(const ID & id,
			const MatrixType & matrix_type) {
			ID matrix_id = this->id + ":mtx:" + id;
			std::unique_ptr<SparseMatrix> sm =
			std::make_unique<SparseMatrixAIJ>(*this, matrix_type, matrix_id);
			return this->registerSparseMatrix(matrix_id, sm);
			}

			/* -------------------------------------------------------------------------- */
			SparseMatrix & DOFManagerDefault::getNewMatrix(const ID & id,
			const ID & matrix_to_copy_id) {

			ID matrix_id = this->id + ":mtx:" + id;
			SparseMatrixAIJ & sm_to_copy = this->getMatrix(matrix_to_copy_id);
			std::unique_ptr<SparseMatrix> sm =
			std::make_unique<SparseMatrixAIJ>(sm_to_copy, matrix_id);
			return this->registerSparseMatrix(matrix_id, sm);
			}

			/* -------------------------------------------------------------------------- */
			SparseMatrixAIJ & DOFManagerDefault::getMatrix(const ID & id) {
			SparseMatrix & matrix = DOFManager::getMatrix(id);

			return dynamic_cast<SparseMatrixAIJ &>(matrix);
			}

			/* -------------------------------------------------------------------------- */
			NonLinearSolver &
			DOFManagerDefault::getNewNonLinearSolver(const ID & id,
			const NonLinearSolverType & type) {
			ID non_linear_solver_id = this->id + ":nls:" + id;
			std::unique_ptr<NonLinearSolver> nls;
			switch (type) {
			#if defined(AKANTU_IMPLICIT)
			case _nls_newton_raphson:
			case _nls_newton_raphson_modified: {
			nls = std::make_unique<NonLinearSolverNewtonRaphson>(
			*this, type, non_linear_solver_id, this->memory_id);
			break;
			}
			case _nls_linear: {
			nls = std::make_unique<NonLinearSolverLinear>(
			*this, type, non_linear_solver_id, this->memory_id);
			break;
			}
			#endif
			case _nls_lumped: {
			nls = std::make_unique<NonLinearSolverLumped>(
			*this, type, non_linear_solver_id, this->memory_id);
			break;
			}
			default:
			AKANTU_EXCEPTION("The asked type of non linear solver is not supported by "
			"this dof manager");
			}

			return this->registerNonLinearSolver(non_linear_solver_id, nls);
			}

			/* -------------------------------------------------------------------------- */
			TimeStepSolver &
			DOFManagerDefault::getNewTimeStepSolver(const ID & id,
			const TimeStepSolverType & type,
			NonLinearSolver & non_linear_solver) {
			ID time_step_solver_id = this->id + ":tss:" + id;

			std::unique_ptr<TimeStepSolver> tss = std::make_unique<TimeStepSolverDefault>(
			*this, type, non_linear_solver, time_step_solver_id, this->memory_id);

			return this->registerTimeStepSolver(time_step_solver_id, tss);
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::clearResidual() {
			this->residual.resize(this->local_system_size);
			this->residual.clear();
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::clearMatrix(const ID & mtx) {
			this->getMatrix(mtx).clear();
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::clearLumpedMatrix(const ID & mtx) {
			this->getLumpedMatrix(mtx).clear();
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::updateGlobalBlockedDofs() {
			auto it = this->dofs.begin();
			auto end = this->dofs.end();

			this->previous_global_blocked_dofs.copy(this->global_blocked_dofs);
			this->global_blocked_dofs.resize(this->local_system_size);
			this->global_blocked_dofs.clear();

			for (; it != end; ++it) {
			if (!this->hasBlockedDOFs(it->first))
			continue;

			DOFData & dof_data = *it->second;
			this->assembleToGlobalArray(it->first, *dof_data.blocked_dofs,
			this->global_blocked_dofs, true);
			}
			}

			/* -------------------------------------------------------------------------- */
			template <typename T>
			void DOFManagerDefault::getArrayPerDOFs(const ID & dof_id,
			const Array<T> & global_array,
			Array<T> & local_array) const {
			AKANTU_DEBUG_IN();

			const Array<UInt> & equation_number = this->getLocalEquationNumbers(dof_id);

			UInt nb_degree_of_freedoms = equation_number.size();
			local_array.resize(nb_degree_of_freedoms / local_array.getNbComponent());

			auto loc_it = local_array.begin_reinterpret(nb_degree_of_freedoms);
			auto equ_it = equation_number.begin();

			for (UInt d = 0; d < nb_degree_of_freedoms; ++d, ++loc_it, ++equ_it) {
			(loc_it) = global_array(equ_it);
			}

			AKANTU_DEBUG_OUT();
			}

			/* -------------------------------------------------------------------------- */
			// void DOFManagerDefault::getEquationsNumbers(const ID & dof_id,
			// Array<UInt> & equation_numbers) {
			// AKANTU_DEBUG_IN();
			// this->getArrayPerDOFs(dof_id, this->global_equation_number,
			// equation_numbers); AKANTU_DEBUG_OUT();
			// }

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::getSolutionPerDOFs(const ID & dof_id,
			Array<Real> & solution_array) {
			AKANTU_DEBUG_IN();
			this->getArrayPerDOFs(dof_id, this->global_solution, solution_array);
			AKANTU_DEBUG_OUT();
			}
			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::getLumpedMatrixPerDOFs(const ID & dof_id,
			const ID & lumped_mtx,
			Array<Real> & lumped) {
			AKANTU_DEBUG_IN();
			this->getArrayPerDOFs(dof_id, this->getLumpedMatrix(lumped_mtx), lumped);
			AKANTU_DEBUG_OUT();
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::assembleToResidual(
			const ID & dof_id, const Array<Real> & array_to_assemble,
			Real scale_factor) {
			AKANTU_DEBUG_IN();

			this->assembleToGlobalArray(dof_id, array_to_assemble, this->residual,
			scale_factor);

			AKANTU_DEBUG_OUT();
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::assembleToLumpedMatrix(
			const ID & dof_id, const Array<Real> & array_to_assemble,
			const ID & lumped_mtx, Real scale_factor) {
			AKANTU_DEBUG_IN();

			Array<Real> & lumped = this->getLumpedMatrix(lumped_mtx);
			this->assembleToGlobalArray(dof_id, array_to_assemble, lumped, scale_factor);

			AKANTU_DEBUG_OUT();
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::assembleMatMulVectToResidual(const ID & dof_id,
			const ID & A_id,
			const Array<Real> & x,
			Real scale_factor) {
			SparseMatrixAIJ & A = this->getMatrix(A_id);

			// Array<Real> data_cache(this->local_system_size, 1, 0.);
			this->data_cache.resize(this->local_system_size);
			this->data_cache.clear();

			this->assembleToGlobalArray(dof_id, x, data_cache, 1.);

			A.matVecMul(data_cache, this->residual, scale_factor, 1.);
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::assembleLumpedMatMulVectToResidual(
			const ID & dof_id, const ID & A_id, const Array<Real> & x,
			Real scale_factor) {
			const Array<Real> & A = this->getLumpedMatrix(A_id);

			// Array<Real> data_cache(this->local_system_size, 1, 0.);
			this->data_cache.resize(this->local_system_size);
			this->data_cache.clear();

			this->assembleToGlobalArray(dof_id, x, data_cache, scale_factor);

			Array<Real>::const_scalar_iterator A_it = A.begin();
			Array<Real>::const_scalar_iterator A_end = A.end();
			Array<Real>::const_scalar_iterator x_it = data_cache.begin();
			Array<Real>::scalar_iterator r_it = this->residual.begin();

			for (; A_it != A_end; ++A_it, ++x_it, ++r_it) {
			r_it += A_it * *x_it;
			}
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::assembleElementalMatricesToMatrix(
			const ID & matrix_id, const ID & dof_id, const Array<Real> & elementary_mat,
			const ElementType & type, const GhostType & ghost_type,
			const MatrixType & elemental_matrix_type,
			const Array<UInt> & filter_elements) {
			AKANTU_DEBUG_IN();

			DOFData & dof_data = this->getDOFData(dof_id);

			AKANTU_DEBUG_ASSERT(dof_data.support_type == _dst_nodal,
			"This function applies only on Nodal dofs");

			this->addToProfile(matrix_id, dof_id, type, ghost_type);

			const Array<UInt> & equation_number = this->getLocalEquationNumbers(dof_id);
			SparseMatrixAIJ & A = this->getMatrix(matrix_id);

			UInt nb_element;
			UInt * filter_it = nullptr;
			if (filter_elements != empty_filter) {
			nb_element = filter_elements.size();
			filter_it = filter_elements.storage();
			} else {
			if (dof_data.group_support != "__mesh__") {
			const Array<UInt> & group_elements =
			this->mesh->getElementGroup(dof_data.group_support)
			.getElements(type, ghost_type);
			nb_element = group_elements.size();
			filter_it = group_elements.storage();
			} else {
			nb_element = this->mesh->getNbElement(type, ghost_type);
			}
			}

			AKANTU_DEBUG_ASSERT(elementary_mat.size() == nb_element,
			"The vector elementary_mat("
			<< elementary_mat.getID()
			<< ") has not the good size.");

			UInt nb_nodes_per_element = Mesh::getNbNodesPerElement(type);

			UInt nb_degree_of_freedom = dof_data.dof->getNbComponent();

			const Array<UInt> & connectivity =
			this->mesh->getConnectivity(type, ghost_type);
			auto conn_begin = connectivity.begin(nb_nodes_per_element);
			auto conn_it = conn_begin;

			UInt size_mat = nb_nodes_per_element * nb_degree_of_freedom;

			Vector<UInt> element_eq_nb(nb_degree_of_freedom * nb_nodes_per_element);
			Array<Real>::const_matrix_iterator el_mat_it =
			elementary_mat.begin(size_mat, size_mat);

			for (UInt e = 0; e < nb_element; ++e, ++el_mat_it) {
			if (filter_it)
			conn_it = conn_begin + *filter_it;

			this->extractElementEquationNumber(equation_number, *conn_it,
			nb_degree_of_freedom, element_eq_nb);
			std::transform(element_eq_nb.storage(),
			element_eq_nb.storage() + element_eq_nb.size(),
			element_eq_nb.storage(), [&](UInt & local) -> UInt {
			return this->localToGlobalEquationNumber(local);
			});

			if (filter_it)
			++filter_it;
			else
			++conn_it;

			if (A.getMatrixType() == _symmetric)
			if (elemental_matrix_type == _symmetric)
			this->addSymmetricElementalMatrixToSymmetric(A, *el_mat_it,
			element_eq_nb, A.size());
			else
			this->addUnsymmetricElementalMatrixToSymmetric(A, *el_mat_it,
			element_eq_nb, A.size());
			else
			this->addElementalMatrixToUnsymmetric(A, *el_mat_it, element_eq_nb,
			A.size());
			}

			AKANTU_DEBUG_OUT();
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::assemblePreassembledMatrix(
			const ID & dof_id_m, const ID & dof_id_n, const ID & matrix_id,
			const TermsToAssemble & terms) {
			const Array<UInt> & equation_number_m =
			this->getLocalEquationNumbers(dof_id_m);
			const Array<UInt> & equation_number_n =
			this->getLocalEquationNumbers(dof_id_n);
			SparseMatrixAIJ & A = this->getMatrix(matrix_id);

			for (const auto & term : terms) {
			UInt gi = this->localToGlobalEquationNumber(equation_number_m(term.i()));
			UInt gj = this->localToGlobalEquationNumber(equation_number_n(term.j()));
			A.add(gi, gj, term);
			}
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::addToProfile(const ID & matrix_id, const ID & dof_id,
			const ElementType & type,
			const GhostType & ghost_type) {
			AKANTU_DEBUG_IN();

			const DOFData & dof_data = this->getDOFData(dof_id);

			if (dof_data.support_type != _dst_nodal)
			return;

			auto mat_dof = std::make_pair(matrix_id, dof_id);
			auto type_pair = std::make_pair(type, ghost_type);

			auto prof_it = this->matrix_profiled_dofs.find(mat_dof);
			if (prof_it != this->matrix_profiled_dofs.end() &&
			std::find(prof_it->second.begin(), prof_it->second.end(), type_pair) !=
			prof_it->second.end())
			return;

			UInt nb_degree_of_freedom_per_node = dof_data.dof->getNbComponent();

			const Array<UInt> & equation_number = this->getLocalEquationNumbers(dof_id);

			SparseMatrixAIJ & A = this->getMatrix(matrix_id);

			UInt size = A.size();

			UInt nb_nodes_per_element = Mesh::getNbNodesPerElement(type);

			const auto & connectivity = this->mesh->getConnectivity(type, ghost_type);
			auto cbegin = connectivity.begin(nb_nodes_per_element);
			auto cit = cbegin;

			UInt nb_elements = connectivity.size();
			UInt * ge_it = nullptr;
			if (dof_data.group_support != "__mesh__") {
			const Array<UInt> & group_elements =
			this->mesh->getElementGroup(dof_data.group_support)
			.getElements(type, ghost_type);
			ge_it = group_elements.storage();
			nb_elements = group_elements.size();
			}

			UInt size_mat = nb_nodes_per_element * nb_degree_of_freedom_per_node;
			Vector<UInt> element_eq_nb(size_mat);

			for (UInt e = 0; e < nb_elements; ++e) {
			if (ge_it)
			cit = cbegin + *ge_it;

			this->extractElementEquationNumber(
			equation_number, *cit, nb_degree_of_freedom_per_node, element_eq_nb);
			std::transform(element_eq_nb.storage(),
			element_eq_nb.storage() + element_eq_nb.size(),
			element_eq_nb.storage(), [&](UInt & local) -> UInt {
			return this->localToGlobalEquationNumber(local);
			});

			if (ge_it)
			++ge_it;
			else
			++cit;

			for (UInt i = 0; i < size_mat; ++i) {
			UInt c_irn = element_eq_nb(i);
			if (c_irn < size) {
			for (UInt j = 0; j < size_mat; ++j) {
			UInt c_jcn = element_eq_nb(j);
			if (c_jcn < size) {
			A.add(c_irn, c_jcn);
			}
			}
			}
			}
			}

			this->matrix_profiled_dofs[mat_dof].push_back(type_pair);

			AKANTU_DEBUG_OUT();
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::applyBoundary(const ID & matrix_id) {
			SparseMatrixAIJ & J = this->getMatrix(matrix_id);

			if (this->jacobian_release == J.getValueRelease()) {
			auto are_equal =
			std::equal(global_blocked_dofs.begin(), global_blocked_dofs.end(),
			previous_global_blocked_dofs.begin());

			if (not are_equal)
			J.applyBoundary();

			previous_global_blocked_dofs.copy(global_blocked_dofs);
			} else {
			J.applyBoundary();
			}

			this->jacobian_release = J.getValueRelease();
			}

			/* -------------------------------------------------------------------------- */
			const Array<Real> & DOFManagerDefault::getGlobalResidual() {
			if (this->synchronizer) {
			if (not this->global_residual) {
			this->global_residual =
			std::make_unique<Array<Real>>(0, 1, "global_residual");
			}

			if (this->synchronizer->getCommunicator().whoAmI() == 0) {
			this->global_residual->resize(this->system_size);
			this->synchronizer->gather(this->residual, *this->global_residual);
			} else {
			this->synchronizer->gather(this->residual);
			}

			return *this->global_residual;
			} else {
			return this->residual;
			}
			}

			/* -------------------------------------------------------------------------- */
			const Array<Real> & DOFManagerDefault::getResidual() const {
			return this->residual;
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::setGlobalSolution(const Array<Real> & solution) {
			if (this->synchronizer) {
			if (this->synchronizer->getCommunicator().whoAmI() == 0) {
			this->synchronizer->scatter(this->global_solution, solution);
			} else {
			this->synchronizer->scatter(this->global_solution);
			}
			} else {
			AKANTU_DEBUG_ASSERT(solution.size() == this->global_solution.size(),
			"Sequential call to this function needs the solution "
			"to be the same size as the global_solution");
			this->global_solution.copy(solution);
			}
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::onNodesAdded(const Array<UInt> & nodes_list,
			const NewNodesEvent & event) {
			DOFManager::onNodesAdded(nodes_list, event);

			if (this->synchronizer)
			this->synchronizer->onNodesAdded(nodes_list);
			}

			/* -------------------------------------------------------------------------- */
			std::pair<UInt, UInt>
			DOFManagerDefault::updateNodalDOFs(const ID & dof_id,
			const Array<UInt> & nodes_list) {
			UInt nb_new_local_dofs, nb_new_pure_local;
			std::tie(nb_new_local_dofs, nb_new_pure_local) =
			DOFManager::updateNodalDOFs(dof_id, nodes_list);

			auto & dof_data = this->getDOFDataTyped<DOFDataDefault>(dof_id);
			updateDOFsData(dof_data, nb_new_local_dofs, nb_new_pure_local,
			[&nodes_list](UInt pos) -> UInt { return nodes_list[pos]; });

			return std::make_pair(nb_new_local_dofs, nb_new_pure_local);
			}

			/* -------------------------------------------------------------------------- */
			void DOFManagerDefault::updateDOFsData(
			DOFDataDefault & dof_data, UInt nb_new_local_dofs, UInt nb_new_pure_local,
			const std::function<UInt(UInt)> & getNode) {
			auto prank = this->communicator.whoAmI();
			auto psize = this->communicator.getNbProc();

			// access the relevant data to update
			const auto & support_type = dof_data.support_type;

			GlobalDOFInfoDataAccessor data_accessor;

			// resize all relevant arrays
			this->residual.resize(this->local_system_size);
			this->dofs_type.resize(this->local_system_size);
			this->global_solution.resize(this->local_system_size);
			this->global_blocked_dofs.resize(this->local_system_size);
			this->previous_global_blocked_dofs.resize(this->local_system_size);
			this->global_equation_number.resize(this->local_system_size);

			for (auto & lumped_matrix : lumped_matrices)
			lumped_matrix.second->resize(this->local_system_size);

			dof_data.local_equation_number.reserve(dof_data.local_equation_number.size() +
			nb_new_local_dofs);

			// determine the first local/global dof id to use
			Array<UInt> nb_dofs_per_proc(psize);
			nb_dofs_per_proc(prank) = nb_new_pure_local;
			this->communicator.allGather(nb_dofs_per_proc);

			this->first_global_dof_id += std::accumulate(
			nb_dofs_per_proc.begin(), nb_dofs_per_proc.begin() + prank, 0);
			UInt first_dof_id = this->local_system_size - nb_new_local_dofs;

			if (support_type == _dst_nodal) {
			dof_data.associated_nodes.reserve(dof_data.associated_nodes.size() +
			nb_new_local_dofs);
			}

			// update per dof info
			for (UInt d = 0; d < nb_new_local_dofs; ++d) {
			UInt local_eq_num = first_dof_id + d;
			dof_data.local_equation_number.push_back(local_eq_num);

			bool is_local_dof = true;

			// determine the dof type
			switch (support_type) {
			case _dst_nodal: {
			UInt node = getNode(d / dof_data.dof->getNbComponent());

			this->dofs_type(local_eq_num) = this->mesh->getNodeType(node);
			dof_data.associated_nodes.push_back(node);

			is_local_dof = this->mesh->isLocalOrMasterNode(node);

			if (is_local_dof) {
			data_accessor.addDOFToNode(node, first_global_dof_id);
			}

			break;
			}
			case _dst_generic: {
			this->dofs_type(local_eq_num) = _nt_normal;
			break;
			}
			default: { AKANTU_EXCEPTION("This type of dofs is not handled yet."); }
			}

			// update global id for local dofs
			if (is_local_dof) {
			this->global_equation_number(local_eq_num) = this->first_global_dof_id;
			this->global_to_local_mapping[this->first_global_dof_id] = local_eq_num;
			++this->first_global_dof_id;
			} else {
			this->global_equation_number(local_eq_num) = 0;
			}
			}

			// synchronize the global numbering for slaves
			if (support_type == _dst_nodal && this->synchronizer) {
			auto nb_dofs_per_node = dof_data.dof->getNbComponent();

			auto & node_synchronizer = this->mesh->getNodeSynchronizer();
			node_synchronizer.synchronizeOnce(data_accessor, _gst_size);
			node_synchronizer.synchronizeOnce(data_accessor, _gst_update);

			std::vector<UInt> counters(nb_new_local_dofs / nb_dofs_per_node);

			for (UInt d = 0; d < nb_new_local_dofs; ++d) {
			UInt local_eq_num = first_dof_id + d;
			if (not this->isSlaveDOF(local_eq_num))
			continue;

			UInt node = d / nb_dofs_per_node;
			UInt dof_count = counters[node]++;
			node = getNode(node);

			UInt global_dof_id = data_accessor.getNthDOFForNode(dof_count, node);

			this->global_equation_number(local_eq_num) = global_dof_id;
			this->global_to_local_mapping[global_dof_id] = local_eq_num;
			}
			}
			}

			/* -------------------------------------------------------------------------- */
			// register in factory
			static bool default_dof_manager_is_registered [[gnu::unused]] =
			DefaultDOFManagerFactory::getInstance().registerAllocator(
			"default",
			[](const ID & id,
			const MemoryID & mem_id) -> std::unique_ptr<DOFManager> {
			return std::make_unique<DOFManagerDefault>(id, mem_id);
			});

			static bool dof_manager_is_registered [[gnu::unused]] =
			DOFManagerFactory::getInstance().registerAllocator(
			"default",
			[](Mesh & mesh, const ID & id,
			const MemoryID & mem_id) -> std::unique_ptr<DOFManager> {
			return std::make_unique<DOFManagerDefault>(mesh, id, mem_id);
			});
			} // namespace akantu

rAKA/src/model/dof_manager_default.cc2b3e65032fedfeatures/9-generate-a…

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rAKA/src/model/dof_manager_default.cc
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dof_manager_default.cc
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