/*========================================================================= * * Copyright NumFOCUS * * Licensed under the Apache License, Version 2.0 (the "License"); * you may not use this file except in compliance with the License. * You may obtain a copy of the License at * * https://www.apache.org/licenses/LICENSE-2.0.txt * * Unless required by applicable law or agreed to in writing, software * distributed under the License is distributed on an "AS IS" BASIS, * WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied. * See the License for the specific language governing permissions and * limitations under the License. * *=========================================================================*/ #include "itkFEMElement2DC0LinearLineStress.h" #include "itkFEMElementBase.h" #include "itkFEMFactoryBase.h" #include "itkFEMMaterialLinearElasticity.h" #include "itkFEMLoadBCMFC.h" #include "itkFEMLoadBC.h" #include "itkFEMLoadNode.h" #include "itkFEMObject.h" int itkFEMObjectTest(int, char *[]) { // Need to register default FEM object types, // and setup spatialReader to recognize FEM types // which is all currently done as a HACK in // the initialization of the itk::FEMFactoryBase::GetFactory() itk::FEMFactoryBase::GetFactory()->RegisterDefaultTypes(); // Testing the fe mesh validity using FEMObjectType = itk::fem::FEMObject<2>; using FEMObjectTypePointer = FEMObjectType::Pointer; FEMObjectTypePointer femObject = FEMObjectType::New(); using NodeType = itk::fem::Element::Node; NodeType::Pointer n1; itk::fem::Element::VectorType pt(2); n1 = NodeType::New(); pt[0] = 0.0; pt[1] = 0.0; n1->SetCoordinates(pt); n1->SetGlobalNumber(0); femObject->AddNextNode(n1); n1 = NodeType::New(); pt[0] = 1500.0; pt[1] = 0.0; n1->SetCoordinates(pt); n1->SetGlobalNumber(1); femObject->AddNextNode(n1); n1 = NodeType::New(); pt[0] = 3000.0; pt[1] = 0.0; n1->SetCoordinates(pt); n1->SetGlobalNumber(2); femObject->AddNextNode(n1); n1 = NodeType::New(); pt[0] = 3000.0; pt[1] = 3000.0; n1->SetCoordinates(pt); n1->SetGlobalNumber(3); femObject->AddNextNode(n1); n1 = NodeType::New(); pt[0] = 0.0; pt[1] = 4500.0; n1->SetCoordinates(pt); n1->SetGlobalNumber(4); femObject->AddNextNode(n1); itk::fem::MaterialLinearElasticity::Pointer m; m = itk::fem::MaterialLinearElasticity::New(); m->SetGlobalNumber(0); /* Global number of the material */ m->SetYoungsModulus(200000000000.0); /* Young modulus */ m->SetPoissonsRatio(0.3); m->SetCrossSectionalArea(2000.0); /* Crossection area */ m->SetMomentOfInertia(1.0); /* Momemt of inertia */ femObject->AddNextMaterial(m); m = itk::fem::MaterialLinearElasticity::New(); m->SetGlobalNumber(1); /* Global number of the material */ m->SetYoungsModulus(200000.0); /* Young modulus */ m->SetPoissonsRatio(0.3); m->SetCrossSectionalArea(1200.0); /* Crossection area */ m->SetMomentOfInertia(1.0); /* Momemt of inertia */ femObject->AddNextMaterial(m); m = itk::fem::MaterialLinearElasticity::New(); m->SetGlobalNumber(2); /* Global number of the material */ m->SetYoungsModulus(70000.0); /* Young modulus */ m->SetPoissonsRatio(0.3); m->SetCrossSectionalArea(900.0); /* Crossection area */ m->SetMomentOfInertia(1.0); /* Momemt of inertia */ femObject->AddNextMaterial(m); itk::fem::Element2DC0LinearLineStress::Pointer e1; e1 = itk::fem::Element2DC0LinearLineStress::New(); e1->SetGlobalNumber(0); e1->SetNode(0, femObject->GetNode(0)); e1->SetNode(1, femObject->GetNode(1)); if (dynamic_cast(femObject->GetMaterial(1).GetPointer())) { e1->SetMaterial(dynamic_cast(femObject->GetMaterial(0).GetPointer())); } femObject->AddNextElement(e1); e1 = itk::fem::Element2DC0LinearLineStress::New(); e1->SetGlobalNumber(1); e1->SetNode(0, femObject->GetNode(1)); e1->SetNode(1, femObject->GetNode(2)); if (dynamic_cast(femObject->GetMaterial(0).GetPointer())) { e1->SetMaterial(dynamic_cast(femObject->GetMaterial(0).GetPointer())); } femObject->AddNextElement(e1); e1 = itk::fem::Element2DC0LinearLineStress::New(); e1->SetGlobalNumber(2); e1->SetNode(0, femObject->GetNode(1)); e1->SetNode(1, femObject->GetNode(3)); if (dynamic_cast(femObject->GetMaterial(2).GetPointer())) { e1->SetMaterial(dynamic_cast(femObject->GetMaterial(2).GetPointer())); } femObject->AddNextElement(e1); e1 = itk::fem::Element2DC0LinearLineStress::New(); e1->SetGlobalNumber(3); e1->SetNode(0, femObject->GetNode(0)); e1->SetNode(1, femObject->GetNode(4)); if (dynamic_cast(femObject->GetMaterial(1).GetPointer())) { e1->SetMaterial(dynamic_cast(femObject->GetMaterial(1).GetPointer())); } femObject->AddNextElement(e1); itk::fem::LoadBC::Pointer l1; l1 = itk::fem::LoadBC::New(); l1->SetGlobalNumber(0); l1->SetElement(femObject->GetElement(2)); l1->SetDegreeOfFreedom(2); l1->SetValue(vnl_vector(1, 0.0)); femObject->AddNextLoad(l1); l1 = itk::fem::LoadBC::New(); l1->SetGlobalNumber(1); l1->SetElement(femObject->GetElement(2)); l1->SetDegreeOfFreedom(3); l1->SetValue(vnl_vector(1, 0.0)); femObject->AddNextLoad(l1); l1 = itk::fem::LoadBC::New(); l1->SetGlobalNumber(2); l1->SetElement(femObject->GetElement(3)); l1->SetDegreeOfFreedom(2); l1->SetValue(vnl_vector(1, 0.0)); femObject->AddNextLoad(l1); l1 = itk::fem::LoadBC::New(); l1->SetGlobalNumber(3); l1->SetElement(femObject->GetElement(3)); l1->SetDegreeOfFreedom(3); l1->SetValue(vnl_vector(1, 0.0)); femObject->AddNextLoad(l1); itk::fem::LoadNode::Pointer l2; l2 = itk::fem::LoadNode::New(); l2->SetGlobalNumber(4); l2->SetElement(femObject->GetElement(1)); l2->SetNode(0); vnl_vector F(2); F[0] = 0; F[1] = 30000; l2->SetForce(F); femObject->AddNextLoad(l2); itk::fem::LoadBCMFC::Pointer bcmfc = itk::fem::LoadBCMFC::New(); bcmfc->SetGlobalNumber(5); bcmfc->AddLeftHandSideTerm(itk::fem::LoadBCMFC::MFCTerm(femObject->GetElement(0).GetPointer(), 1, 1)); bcmfc->AddLeftHandSideTerm(itk::fem::LoadBCMFC::MFCTerm(femObject->GetElement(1).GetPointer(), 3, -1)); bcmfc->AddRightHandSideTerm(0.0); femObject->AddNextLoad(bcmfc); femObject->FinalizeMesh(); std::cout << "Overall Test : [PASSED]" << std::endl; return EXIT_SUCCESS; }