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create/src/Mod/Fem/Gui/TaskFemConstraintFluidBoundary.cpp
2025-03-31 23:51:06 +02:00

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45 KiB
C++

/***************************************************************************
* Copyright (c) 2013 Jan Rheinländer *
* <jrheinlaender@users.sourceforge.net> *
* Copyright (c) 2016 Qingfeng Xia <qingfeng.xia[at]iesensor.com> *
* *
* This file is part of the FreeCAD CAx development system. *
* *
* This library is free software; you can redistribute it and/or *
* modify it under the terms of the GNU Library General Public *
* License as published by the Free Software Foundation; either *
* version 2 of the License, or (at your option) any later version. *
* *
* This library 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 Library General Public License for more details. *
* *
* You should have received a copy of the GNU Library General Public *
* License along with this library; see the file COPYING.LIB. If not, *
* write to the Free Software Foundation, Inc., 59 Temple Place, *
* Suite 330, Boston, MA 02111-1307, USA *
* *
***************************************************************************/
#include "PreCompiled.h"
#ifndef _PreComp_
#include <QAction>
#include <QMessageBox>
#include <TopoDS.hxx>
#include <TopoDS_Shape.hxx>
#include <limits>
#include <sstream>
#endif
#include <App/Document.h>
#include <App/DocumentObject.h>
#include <Base/Console.h>
#include <Base/Tools.h>
#include <Gui/Command.h>
#include <Gui/Selection/SelectionObject.h>
#include <Gui/ViewProvider.h>
#include <Mod/Fem/App/FemAnalysis.h>
#include <Mod/Fem/App/FemConstraintFluidBoundary.h>
#include <Mod/Fem/App/FemMeshObject.h>
#include <Mod/Fem/App/FemSolverObject.h>
#include <Mod/Fem/App/FemTools.h>
#include <Mod/Part/App/PartFeature.h>
#include "ActiveAnalysisObserver.h"
#include "TaskFemConstraintFluidBoundary.h"
#include "ui_TaskFemConstraintFluidBoundary.h"
using namespace FemGui;
using namespace Gui;
using namespace Fem;
// also defined in FemConstrainFluidBoundary and foamcasebuilder/basicbuilder.py, please update
// simultaneously the second (index 1) is the default enum, as index 0 causes compiling error static
// const char* BoundaryTypes[] = {"inlet","wall","outlet","freestream", "interface", NULL};
static const char* WallSubtypes[] =
{"unspecific", "fixed", "slip", "partialSlip", "moving", "rough", nullptr};
static const char* InletSubtypes[] = {"unspecific",
"totalPressure",
"uniformVelocity",
"volumetricFlowRate",
"massFlowRate",
nullptr};
static const char* OutletSubtypes[] =
{"unspecific", "totalPressure", "staticPressure", "uniformVelocity", "outFlow", nullptr};
static const char* InterfaceSubtypes[] =
{"unspecific", "symmetry", "wedge", "cyclic", "empty", "coupled", nullptr};
static const char* FreestreamSubtypes[] = {"unspecific", "freestream", nullptr};
static const char* InterfaceSubtypeHelpTexts[] = {
"invalid,select other valid interface subtype",
"symmetry plane but not axis-sym axis line",
"axis symmetric front and back surfaces",
"periodic boundary in pair, treated as physical connected",
"front and back for single layer 2D mesh, also axis-sym axis line",
"exchange boundary vale with external program, need extra manual setup like file name",
nullptr};
// defined in file FemConstraintFluidBoundary:
// see Ansys fluet manual: Turbulence Specification method
// static const char* TurbulenceSpecifications[] = {"intensity&DissipationRate",
// "intensity&LengthScale","intensity&ViscosityRatio", "intensity&HydraulicDiameter",NULL}; activate
// the heat transfer and radiation model in Solver object explorer
static const char* TurbulenceSpecificationHelpTexts[] = {
"explicitly specific intensity k [SI unit] and dissipation rate epsilon [] / omega []",
"intensity (0.05 ~ 0.15) and characteristic length scale of max eddy [m]",
"intensity (0.05 ~ 0.15) and turbulent viscosity ratio",
"for fully developed internal flow, Turbulence intensity (0-1.0) 0.05 typical",
nullptr};
// static const char* ThermalBoundaryTypes[] = {"fixedValue","zeroGradient", "fixedGradient",
// "mixed", "heatFlux", "HTC","coupled", NULL};
static const char* ThermalBoundaryHelpTexts[] = {"fixed Temperature [K]",
"no heat transfer on boundary",
"fixed value gradient [K/m]",
"mixed fixedGradient and fixedValue",
"fixed heat flux [W/m2]",
"Heat transfer coeff [W/(M2)/K]",
"conjugate heat transfer with solid",
nullptr};
// enable & disable quantityUI once valueType is selected
// internal function not declared in header file
void initComboBox(QComboBox* combo,
const std::vector<std::string>& textItems,
const std::string& sItem)
{
combo->blockSignals(true);
int iItem = 1; // the first one is "unspecific" (index 0)
combo->clear();
for (unsigned int it = 0; it < textItems.size(); it++) {
combo->insertItem(it, QString::fromStdString(textItems[it]));
if (sItem == textItems[it]) {
iItem = it;
}
}
combo->setCurrentIndex(iItem);
combo->blockSignals(false);
}
/* TRANSLATOR FemGui::TaskFemConstraintFluidBoundary */
TaskFemConstraintFluidBoundary::TaskFemConstraintFluidBoundary(
ViewProviderFemConstraintFluidBoundary* ConstraintView,
QWidget* parent)
: TaskFemConstraintOnBoundary(ConstraintView, parent, "FEM_ConstraintFluidBoundary")
, ui(new Ui_TaskFemConstraintFluidBoundary)
, dimension(-1)
{
// we need a separate container widget to add all controls to
proxy = new QWidget(this);
ui->setupUi(proxy);
QMetaObject::connectSlotsByName(this);
// create a context menu for the listview of the references
createDeleteAction(ui->listReferences);
connect(deleteAction,
&QAction::triggered,
this,
&TaskFemConstraintFluidBoundary::onReferenceDeleted);
// setup ranges
constexpr float max = std::numeric_limits<float>::max();
ui->spinBoundaryValue->setMinimum(-max);
ui->spinBoundaryValue->setMaximum(max);
ui->spinTurbulentIntensityValue->setMinimum(0.0);
ui->spinTurbulentIntensityValue->setMaximum(max);
ui->spinTurbulentLengthValue->setMinimum(0.0);
ui->spinTurbulentLengthValue->setMaximum(max);
ui->spinTemperatureValue->setMinimum(-273.15);
ui->spinTemperatureValue->setMaximum(max);
ui->spinHeatFluxValue->setMinimum(0.0);
ui->spinHeatFluxValue->setMaximum(max);
ui->spinHTCoeffValue->setMinimum(0.0);
ui->spinHTCoeffValue->setMaximum(max);
connect(ui->comboBoundaryType,
qOverload<int>(&QComboBox::currentIndexChanged),
this,
&TaskFemConstraintFluidBoundary::onBoundaryTypeChanged);
connect(ui->comboSubtype,
qOverload<int>(&QComboBox::currentIndexChanged),
this,
&TaskFemConstraintFluidBoundary::onSubtypeChanged);
connect(ui->spinBoundaryValue,
qOverload<double>(&QDoubleSpinBox::valueChanged),
this,
&TaskFemConstraintFluidBoundary::onBoundaryValueChanged);
connect(ui->comboTurbulenceSpecification,
qOverload<int>(&QComboBox::currentIndexChanged),
this,
&TaskFemConstraintFluidBoundary::onTurbulenceSpecificationChanged);
connect(ui->comboThermalBoundaryType,
qOverload<int>(&QComboBox::currentIndexChanged),
this,
&TaskFemConstraintFluidBoundary::onThermalBoundaryTypeChanged);
connect(ui->buttonDirection, &QPushButton::pressed, this, [this] {
onButtonDirection(true);
});
connect(ui->checkReverse,
&QCheckBox::toggled,
this,
&TaskFemConstraintFluidBoundary::onCheckReverse);
connect(ui->listReferences,
&QListWidget::itemClicked,
this,
&TaskFemConstraintFluidBoundary::setSelection);
this->groupLayout()->addWidget(proxy);
// Temporarily prevent unnecessary feature recomputes
ui->spinBoundaryValue->blockSignals(true);
ui->listReferences->blockSignals(true);
// boundaryType and subType combo signal is Temporarily prevented in initComboBox()
ui->buttonDirection->blockSignals(true);
ui->checkReverse->blockSignals(true);
// Selection buttons
buttonGroup->addButton(ui->btnAdd, (int)SelectionChangeModes::refAdd);
buttonGroup->addButton(ui->btnRemove, (int)SelectionChangeModes::refRemove);
// Get the feature data
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
Fem::FemAnalysis* pcAnalysis = nullptr;
if (FemGui::ActiveAnalysisObserver::instance()->hasActiveObject()) {
pcAnalysis = FemGui::ActiveAnalysisObserver::instance()->getActiveObject();
}
else {
App::Document* aDoc = pcConstraint->getDocument();
std::vector<App::DocumentObject*> fem =
aDoc->getObjectsOfType(Fem::FemAnalysis::getClassTypeId());
if (!fem.empty()) {
pcAnalysis = static_cast<Fem::FemAnalysis*>(fem[0]); // get the first
}
}
Fem::FemMeshObject* pcMesh = nullptr;
if (pcAnalysis) {
std::vector<App::DocumentObject*> fem = pcAnalysis->Group.getValues();
for (auto it : fem) {
if (it->isDerivedFrom<Fem::FemMeshObject>()) {
pcMesh = static_cast<Fem::FemMeshObject*>(it);
}
}
}
else {
Base::Console().Log("FemAnalysis object is not activated or no FemAnalysis in the active "
"document, mesh dimension is unknown\n");
dimension = -1; // unknown dimension of mesh
}
if (pcMesh) {
App::Property* prop = pcMesh->getPropertyByName("Shape"); // PropertyLink
if (prop && prop->isDerivedFrom<App::PropertyLink>()) {
App::PropertyLink* pcLink = static_cast<App::PropertyLink*>(prop);
Part::Feature* pcPart = dynamic_cast<Part::Feature*>(pcLink->getValue());
if (pcPart) { // deduct dimension from part_obj.Shape.ShapeType
const TopoDS_Shape& pShape = pcPart->Shape.getShape().getShape();
const TopAbs_ShapeEnum shapeType =
pShape.IsNull() ? TopAbs_SHAPE : pShape.ShapeType();
if (shapeType == TopAbs_SOLID
|| shapeType == TopAbs_COMPSOLID) { // COMPSOLID is solids connected by faces
dimension = 3;
}
else if (shapeType == TopAbs_FACE || shapeType == TopAbs_SHELL) {
dimension = 2;
}
else if (shapeType == TopAbs_EDGE || shapeType == TopAbs_WIRE) {
dimension = 1;
}
else {
dimension =
-1; // Vertex (0D) can not make mesh, Compound type might contain any types
}
}
}
}
pcSolver = nullptr; // this is an private object of type Fem::FemSolverObject*
if (pcAnalysis) {
std::vector<App::DocumentObject*> fem = pcAnalysis->Group.getValues();
for (auto it : fem) {
if (it->isDerivedFrom<Fem::FemSolverObject>()) {
pcSolver = static_cast<Fem::FemSolverObject*>(it);
}
}
}
pHeatTransferring = nullptr;
pTurbulenceModel = nullptr;
if (pcSolver) {
// if only it is CFD solver, otherwise exit by SIGSEGV error, detect getPropertyByName() !=
// NULL
if (pcSolver->getPropertyByName("HeatTransferring")) {
pHeatTransferring =
static_cast<App::PropertyBool*>(pcSolver->getPropertyByName("HeatTransferring"));
if (pHeatTransferring->getValue()) {
ui->tabThermalBoundary->setEnabled(true);
initComboBox(ui->comboThermalBoundaryType,
pcConstraint->ThermalBoundaryType.getEnumVector(),
pcConstraint->ThermalBoundaryType.getValueAsString());
ui->spinHTCoeffValue->setValue(pcConstraint->HTCoeffValue.getValue());
ui->spinHeatFluxValue->setValue(pcConstraint->HeatFluxValue.getValue());
ui->spinTemperatureValue->setValue(pcConstraint->TemperatureValue.getValue());
updateThermalBoundaryUI();
}
else {
ui->tabThermalBoundary->setEnabled(false); // could be hidden
// Base::Console().Message("retrieve solver property HeatTransferring as false\n");
}
}
else {
ui->tabThermalBoundary->setEnabled(false);
}
if (pcSolver->getPropertyByName("TurbulenceModel")) {
pTurbulenceModel = static_cast<App::PropertyEnumeration*>(
pcSolver->getPropertyByName("TurbulenceModel"));
if (pTurbulenceModel->getValueAsString() == std::string("laminar")) {
ui->tabTurbulenceBoundary->setEnabled(false);
}
else {
ui->tabTurbulenceBoundary->setEnabled(true);
ui->labelTurbulenceSpecification->setText(
QString::fromStdString(pTurbulenceModel->getValueAsString()));
initComboBox(ui->comboTurbulenceSpecification,
pcConstraint->TurbulenceSpecification.getEnumVector(),
pcConstraint->TurbulenceSpecification.getValueAsString());
ui->spinTurbulentIntensityValue->setValue(
pcConstraint->TurbulentIntensityValue.getValue());
ui->spinTurbulentLengthValue->setValue(
pcConstraint->TurbulentLengthValue.getValue());
updateTurbulenceUI();
}
}
else {
ui->tabTurbulenceBoundary->setEnabled(false);
}
}
else {
Base::Console().Warning(
"No solver object inside FemAnalysis object, default to non-thermal, non-turbulence\n");
}
ui->tabWidget->setTabText(0, tr("Basic"));
ui->tabWidget->setTabText(1, tr("Turbulence"));
ui->tabWidget->setTabText(2, tr("Thermal"));
ui->tabWidget->setCurrentIndex(0);
ui->labelHelpText->setText(tr("select boundary type, faces and set value"));
initComboBox(ui->comboBoundaryType,
pcConstraint->BoundaryType.getEnumVector(),
pcConstraint->BoundaryType.getValueAsString());
updateBoundaryTypeUI();
std::vector<std::string> subtypes = pcConstraint->Subtype.getEnumVector();
initComboBox(ui->comboSubtype, subtypes, pcConstraint->Subtype.getValueAsString());
updateSubtypeUI();
std::vector<App::DocumentObject*> Objects = pcConstraint->References.getValues();
std::vector<std::string> SubElements = pcConstraint->References.getSubValues();
std::vector<std::string> dirStrings = pcConstraint->Direction.getSubValues();
QString dir;
if (!dirStrings.empty()) {
dir = makeRefText(pcConstraint->Direction.getValue(), dirStrings.front());
}
// Fill data into dialog elements
double f = pcConstraint->BoundaryValue.getValue();
ui->spinBoundaryValue->setMinimum(std::numeric_limits<float>::min()); // ZERO is not flexible
ui->spinBoundaryValue->setMaximum(std::numeric_limits<float>::max());
ui->spinBoundaryValue->setValue(f);
ui->listReferences->clear();
for (std::size_t i = 0; i < Objects.size(); i++) {
ui->listReferences->addItem(makeRefText(Objects[i], SubElements[i]));
}
if (!Objects.empty()) {
ui->listReferences->setCurrentRow(0, QItemSelectionModel::ClearAndSelect);
}
ui->lineDirection->setText(dir.isEmpty() ? tr("") : dir);
ui->checkReverse->setVisible(true); // it is still useful to swap direction of an edge
ui->listReferences->blockSignals(false);
ui->spinBoundaryValue->blockSignals(false);
ui->buttonDirection->blockSignals(false);
ui->checkReverse->blockSignals(false);
updateUI();
}
const Fem::FemSolverObject* TaskFemConstraintFluidBoundary::getFemSolver() const
{
return pcSolver;
}
void TaskFemConstraintFluidBoundary::updateBoundaryTypeUI()
{
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
std::string boundaryType = ui->comboBoundaryType->currentText().toStdString();
// std::string boundaryType = pcConstraint->BoundaryType.getValueAsString();
// Update subtypes, any change here should be written back to FemConstraintFluidBoundary.cpp
if (boundaryType == "wall") {
ui->labelBoundaryValue->setText(QStringLiteral("velocity (m/s)"));
ui->tabBasicBoundary->setEnabled(false);
pcConstraint->Subtype.setEnums(WallSubtypes);
}
else if (boundaryType == "interface") {
ui->labelBoundaryValue->setText(QStringLiteral("value not needed"));
ui->tabBasicBoundary->setEnabled(false);
pcConstraint->Subtype.setEnums(InterfaceSubtypes);
}
else if (boundaryType == "freestream") {
ui->tabBasicBoundary->setEnabled(false);
ui->labelBoundaryValue->setText(QStringLiteral("value not needed"));
ui->tabBasicBoundary->setEnabled(false);
pcConstraint->Subtype.setEnums(FreestreamSubtypes);
}
else if (boundaryType == "inlet") {
ui->tabBasicBoundary->setEnabled(true);
pcConstraint->Subtype.setEnums(InletSubtypes);
ui->labelBoundaryValue->setText(QStringLiteral("Pressure [Pa]")); // default to pressure
pcConstraint->Reversed.setValue(true); // inlet must point into volume
}
else if (boundaryType == "outlet") {
ui->tabBasicBoundary->setEnabled(true);
pcConstraint->Subtype.setEnums(OutletSubtypes);
ui->labelBoundaryValue->setText(QStringLiteral("Pressure [Pa]"));
pcConstraint->Reversed.setValue(false); // outlet must point outward
}
else {
Base::Console().Error("Error: Fluid boundary type `%s` is not defined\n",
boundaryType.c_str());
}
// std::string subtypeLabel = boundaryType + std::string(" type");
// ui->labelSubtype->setText(QString::fromUtf8(subtypeLabel)); // too long to show in UI
ui->tabWidget->setCurrentIndex(0); // activate the basic pressure-momentum setting tab
std::vector<std::string> subtypes = pcConstraint->Subtype.getEnumVector();
initComboBox(ui->comboSubtype, subtypes, "default to the second subtype");
updateSubtypeUI();
}
void TaskFemConstraintFluidBoundary::updateSubtypeUI()
{
std::string boundaryType = ui->comboBoundaryType->currentText().toStdString();
std::string subtype = ui->comboSubtype->currentText().toStdString();
if (boundaryType == "inlet" || boundaryType == "outlet") {
ui->tabBasicBoundary->setEnabled(true);
if (subtype == "totalPressure" || subtype == "staticPressure") {
ui->labelBoundaryValue->setText(QStringLiteral("pressure [Pa]"));
ui->buttonDirection->setEnabled(false);
ui->lineDirection->setEnabled(false);
}
else if (subtype == "uniformVelocity") {
ui->labelBoundaryValue->setText(QStringLiteral("velocity [m/s]"));
ui->buttonDirection->setEnabled(true);
ui->lineDirection->setEnabled(true);
}
else if (subtype == "massFlowrate") {
ui->labelBoundaryValue->setText(QStringLiteral("flowrate [kg/s]"));
ui->buttonDirection->setEnabled(false);
ui->lineDirection->setEnabled(false);
}
else if (subtype == "volumetricFlowRate") {
ui->labelBoundaryValue->setText(QStringLiteral("flowrate [m3/s]"));
ui->buttonDirection->setEnabled(false);
ui->lineDirection->setEnabled(false);
}
else {
ui->labelBoundaryValue->setText(QStringLiteral("unspecific"));
ui->tabBasicBoundary->setEnabled(false);
}
}
else if (boundaryType == "wall") {
if (subtype == "moving") {
ui->labelBoundaryValue->setText(QStringLiteral("moving speed (m/s)"));
ui->tabBasicBoundary->setEnabled(true);
ui->buttonDirection->setEnabled(false); // moving speed must be parallel to wall
ui->lineDirection->setEnabled(false);
}
else if (subtype == "slip") {
ui->labelBoundaryValue->setText(QStringLiteral("not needed"));
ui->tabBasicBoundary->setEnabled(false);
}
else if (subtype == "partialSlip") {
ui->labelBoundaryValue->setText(QStringLiteral("slip ratio(0~1)"));
ui->tabBasicBoundary->setEnabled(true);
ui->buttonDirection->setEnabled(false);
ui->lineDirection->setEnabled(false);
}
else {
ui->labelBoundaryValue->setText(QStringLiteral("unspecific"));
ui->tabBasicBoundary->setEnabled(false);
}
}
else if (boundaryType == "interface") {
ui->tabBasicBoundary->setEnabled(false);
// show help text
int iInterface = ui->comboSubtype->currentIndex();
ui->labelHelpText->setText(tr(InterfaceSubtypeHelpTexts[iInterface]));
}
else if (boundaryType == "freestream") {
ui->tabBasicBoundary->setEnabled(true);
}
else {
Base::Console().Error("Fluid boundary type `%s` is not defined\n", boundaryType.c_str());
}
}
void TaskFemConstraintFluidBoundary::updateTurbulenceUI()
{
ui->labelHelpText->setText(
tr(TurbulenceSpecificationHelpTexts[ui->comboTurbulenceSpecification->currentIndex()]));
/// hide/disable UI only happened in constructor, update helptext and label text here
std::string turbulenceSpec = ui->comboTurbulenceSpecification->currentText().toStdString();
ui->labelTurbulentIntensityValue->setText(tr("Intensity [0~1]"));
if (turbulenceSpec == "intensity&DissipationRate") {
ui->labelTurbulentLengthValue->setText(tr("Dissipation Rate [m2/s3]"));
}
else if (turbulenceSpec == "intensity&LengthScale") {
ui->labelTurbulentLengthValue->setText(tr("Length Scale [m]"));
}
else if (turbulenceSpec == "intensity&ViscosityRatio") {
ui->labelTurbulentLengthValue->setText(tr("Viscosity Ratio [1]"));
}
else if (turbulenceSpec == "intensity&HydraulicDiameter") {
ui->labelTurbulentLengthValue->setText(tr("Hydraulic Diameter [m]"));
}
else {
Base::Console().Error("turbulence Spec type `%s` is not defined\n", turbulenceSpec.c_str());
}
}
void TaskFemConstraintFluidBoundary::updateThermalBoundaryUI()
{
// Fem::ConstraintFluidBoundary* pcConstraint =
// ConstraintView->getObject<Fem::ConstraintFluidBoundary>(); std::string
// thermalBoundaryType = pcConstraint->ThermalBoundaryType.getValueAsString();
ui->labelHelpText->setText(
tr(ThermalBoundaryHelpTexts[ui->comboThermalBoundaryType->currentIndex()]));
// to hide/disable UI according to subtype
std::string thermalBoundaryType = ui->comboThermalBoundaryType->currentText().toStdString();
ui->spinHTCoeffValue->setEnabled(false);
ui->spinTemperatureValue->setEnabled(false);
ui->spinHeatFluxValue->setEnabled(false);
if (thermalBoundaryType == "zeroGradient" || thermalBoundaryType == "coupled") {
return;
}
else if (thermalBoundaryType == "fixedValue") {
ui->spinTemperatureValue->setEnabled(true);
}
else if (thermalBoundaryType == "fixedGradient") {
ui->spinHeatFluxValue->setEnabled(true);
ui->labelHeatFlux->setText(tr("Gradient [K/m]"));
}
else if (thermalBoundaryType == "mixed") {
ui->spinTemperatureValue->setEnabled(true);
ui->spinHeatFluxValue->setEnabled(true);
ui->labelHeatFlux->setText(tr("Gradient [K/m]"));
}
else if (thermalBoundaryType == "heatFlux") {
ui->spinHeatFluxValue->setEnabled(true);
ui->labelHeatFlux->setText(tr("Flux [W/m2]"));
}
else if (thermalBoundaryType == "HTC") {
ui->spinHTCoeffValue->setEnabled(true);
ui->spinTemperatureValue->setEnabled(true);
}
else {
Base::Console().Error("Thermal boundary type `%s` is not defined\n",
thermalBoundaryType.c_str());
}
}
void TaskFemConstraintFluidBoundary::onBoundaryTypeChanged()
{
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
// temporarily change BoundaryType property, but command transaction should reset it back if you
// 'reject' late
pcConstraint->BoundaryType.setValue(ui->comboBoundaryType->currentIndex());
updateBoundaryTypeUI();
ConstraintView->updateData(&pcConstraint->BoundaryType); // force a 3D redraw
// update view provider once BoundaryType changed, updateData() may be just enough
// FreeCAD.getDocument(pcConstraint->Document.getName()).recompute();
bool ret = pcConstraint->recomputeFeature();
if (!ret) {
std::string boundaryType = ui->comboBoundaryType->currentText().toStdString();
Base::Console().Error("Fluid boundary recomputationg failed for boundaryType `%s` \n",
boundaryType.c_str());
}
}
void TaskFemConstraintFluidBoundary::onSubtypeChanged()
{
updateSubtypeUI(); // todo: change color for different kind of subtype,
// Fem::ConstraintFluidBoundary::onChanged() and viewProvider
}
void TaskFemConstraintFluidBoundary::onBoundaryValueChanged(double)
{
// left empty for future extension
}
void TaskFemConstraintFluidBoundary::onTurbulenceSpecificationChanged()
{
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
pcConstraint->TurbulenceSpecification.setValue(
ui->comboTurbulenceSpecification->currentIndex());
updateTurbulenceUI();
}
void TaskFemConstraintFluidBoundary::onThermalBoundaryTypeChanged()
{
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
pcConstraint->ThermalBoundaryType.setValue(ui->comboThermalBoundaryType->currentIndex());
updateThermalBoundaryUI();
}
void TaskFemConstraintFluidBoundary::onReferenceDeleted()
{
TaskFemConstraintFluidBoundary::removeFromSelection(); // On right-click face is automatically
// selected, so just remove
}
void TaskFemConstraintFluidBoundary::onButtonDirection(const bool pressed)
{
// sets the normal vector of the currently selecteed planar face as direction
Q_UNUSED(pressed);
clearButtons(SelectionChangeModes::none);
// get vector of selected objects of active document
std::vector<Gui::SelectionObject> selection = Gui::Selection().getSelectionEx();
if (selection.empty()) {
QMessageBox::warning(this, tr("Empty selection"), tr("Select an edge or a face, please."));
return;
}
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
// we only handle the first selected object
Gui::SelectionObject& selectionElement = selection.at(0);
// we can only handle part objects
if (!selectionElement.isObjectTypeOf(Part::Feature::getClassTypeId())) {
QMessageBox::warning(this,
tr("Wrong selection"),
tr("Selected object is not a part object!"));
return;
}
// get the names of the subobjects
const std::vector<std::string>& subNames = selectionElement.getSubNames();
if (subNames.size() != 1) {
QMessageBox::warning(this,
tr("Wrong selection"),
tr("Only one planar face or edge can be selected!"));
return;
}
// we are now sure we only have one object
std::string subNamesElement = subNames[0];
// vector for the direction
std::vector<std::string> direction(1, subNamesElement);
Part::Feature* feat = static_cast<Part::Feature*>(selectionElement.getObject());
TopoDS_Shape ref = feat->Shape.getShape().getSubShape(subNamesElement.c_str());
if (subNamesElement.substr(0, 4) == "Face") {
if (!Fem::Tools::isPlanar(TopoDS::Face(ref))) {
QMessageBox::warning(this,
tr("Wrong selection"),
tr("Only planar faces can be picked for 3D"));
return;
}
}
else if (subNamesElement.substr(0, 4) == "Edge") { // 2D or 3D can use edge as direction vector
if (!Fem::Tools::isLinear(TopoDS::Edge(ref))) {
QMessageBox::warning(this,
tr("Wrong selection"),
tr("Only planar edges can be picked for 2D"));
return;
}
}
else {
QMessageBox::warning(this,
tr("Wrong selection"),
tr("Only faces for 3D part or edges for 2D can be picked"));
return;
}
// update the direction
pcConstraint->Direction.setValue(feat, direction);
ui->lineDirection->setText(makeRefText(feat, subNamesElement));
// Update UI
updateUI();
}
void TaskFemConstraintFluidBoundary::onCheckReverse(const bool pressed)
{
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
pcConstraint->Reversed.setValue(pressed);
}
std::string TaskFemConstraintFluidBoundary::getBoundaryType() const
{
return ui->comboBoundaryType->currentText().toStdString();
}
std::string TaskFemConstraintFluidBoundary::getSubtype() const
{
return ui->comboSubtype->currentText().toStdString();
}
double TaskFemConstraintFluidBoundary::getBoundaryValue() const
{
return ui->spinBoundaryValue->value();
}
std::string TaskFemConstraintFluidBoundary::getTurbulenceModel() const
{
if (pTurbulenceModel) {
return pTurbulenceModel->getValueAsString();
}
else {
return "laminar";
}
}
std::string TaskFemConstraintFluidBoundary::getTurbulenceSpecification() const
{
return ui->comboTurbulenceSpecification->currentText().toStdString();
}
double TaskFemConstraintFluidBoundary::getTurbulentIntensityValue() const
{
return ui->spinTurbulentIntensityValue->value();
}
double TaskFemConstraintFluidBoundary::getTurbulentLengthValue() const
{
return ui->spinTurbulentLengthValue->value();
}
bool TaskFemConstraintFluidBoundary::getHeatTransferring() const
{
if (pHeatTransferring) {
return pHeatTransferring->getValue();
}
else {
return false;
}
}
std::string TaskFemConstraintFluidBoundary::getThermalBoundaryType() const
{
return ui->comboThermalBoundaryType->currentText().toStdString();
}
double TaskFemConstraintFluidBoundary::getTemperatureValue() const
{
return ui->spinTemperatureValue->value();
}
double TaskFemConstraintFluidBoundary::getHeatFluxValue() const
{
return ui->spinHeatFluxValue->value();
}
double TaskFemConstraintFluidBoundary::getHTCoeffValue() const
{
return ui->spinHTCoeffValue->value();
}
const std::string TaskFemConstraintFluidBoundary::getReferences() const
{
int rows = ui->listReferences->model()->rowCount();
std::vector<std::string> items;
for (int r = 0; r < rows; r++) {
items.push_back(ui->listReferences->item(r)->text().toStdString());
}
return TaskFemConstraint::getReferences(items);
}
const std::string TaskFemConstraintFluidBoundary::getDirectionName() const
{
std::string dir = ui->lineDirection->text().toStdString();
if (dir.empty()) {
return "";
}
int pos = dir.find_last_of(":");
return dir.substr(0, pos).c_str();
}
const std::string TaskFemConstraintFluidBoundary::getDirectionObject() const
{
std::string dir = ui->lineDirection->text().toStdString();
if (dir.empty()) {
return "";
}
int pos = dir.find_last_of(":");
return dir.substr(pos + 1).c_str();
}
bool TaskFemConstraintFluidBoundary::getReverse() const
{
return ui->checkReverse->isChecked();
}
TaskFemConstraintFluidBoundary::~TaskFemConstraintFluidBoundary() = default;
void TaskFemConstraintFluidBoundary::addToSelection()
{
std::vector<Gui::SelectionObject> selection =
Gui::Selection().getSelectionEx(); // gets vector of selected objects of active document
if (selection.empty()) {
QMessageBox::warning(this, tr("Selection error"), tr("Nothing selected!"));
return;
}
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
std::vector<App::DocumentObject*> Objects = pcConstraint->References.getValues();
std::vector<std::string> SubElements = pcConstraint->References.getSubValues();
for (auto& it : selection) { // for every selected object
if (!it.isObjectTypeOf(Part::Feature::getClassTypeId())) {
QMessageBox::warning(this, tr("Selection error"), tr("Selected object is not a part!"));
return;
}
const std::vector<std::string>& subNames = it.getSubNames();
App::DocumentObject* obj = it.getObject();
for (const auto& subName : subNames) { // for every selected sub element
bool addMe = true;
for (auto itr = std::ranges::find(SubElements, subName); itr != SubElements.end();
itr = std::find(++itr,
SubElements.end(),
subName)) { // for every sub element in selection that
// matches one in old list
if (obj
== Objects[std::distance(
SubElements.begin(),
itr)]) { // if selected sub element's object equals the one in old list
// then it was added before so don't add
addMe = false;
}
}
// limit constraint such that only vertexes or faces or edges can be used depending on
// what was selected first
std::string searchStr;
if (subName.find("Vertex") != std::string::npos) {
searchStr = "Vertex";
}
else if (subName.find("Edge") != std::string::npos) {
searchStr = "Edge";
}
else {
searchStr = "Face";
}
for (const auto& SubElement : SubElements) {
if (SubElement.find(searchStr) == std::string::npos) {
QString msg = tr("Only one type of selection (vertex, face or edge) per "
"analysis feature allowed!");
QMessageBox::warning(this, tr("Selection error"), msg);
addMe = false;
break;
}
}
if (addMe) {
QSignalBlocker block(ui->listReferences);
Objects.push_back(obj);
SubElements.push_back(subName);
ui->listReferences->addItem(makeRefText(obj, subName));
}
}
}
// Update UI
pcConstraint->References.setValues(Objects, SubElements);
updateUI();
}
void TaskFemConstraintFluidBoundary::removeFromSelection()
{
std::vector<Gui::SelectionObject> selection =
Gui::Selection().getSelectionEx(); // gets vector of selected objects of active document
if (selection.empty()) {
QMessageBox::warning(this, tr("Selection error"), tr("Nothing selected!"));
return;
}
Fem::ConstraintFluidBoundary* pcConstraint =
ConstraintView->getObject<Fem::ConstraintFluidBoundary>();
std::vector<App::DocumentObject*> Objects = pcConstraint->References.getValues();
std::vector<std::string> SubElements = pcConstraint->References.getSubValues();
std::vector<size_t> itemsToDel;
for (const auto& it : selection) { // for every selected object
if (!it.isObjectTypeOf(Part::Feature::getClassTypeId())) {
QMessageBox::warning(this, tr("Selection error"), tr("Selected object is not a part!"));
return;
}
const std::vector<std::string>& subNames = it.getSubNames();
const App::DocumentObject* obj = it.getObject();
for (const auto& subName : subNames) { // for every selected sub element
for (auto itr = std::ranges::find(SubElements, subName); itr != SubElements.end();
itr = std::find(++itr,
SubElements.end(),
subName)) { // for every sub element in selection that
// matches one in old list
if (obj
== Objects[std::distance(
SubElements.begin(),
itr)]) { // if selected sub element's object equals the one in old list
// then it was added before so mark for deletion
itemsToDel.push_back(std::distance(SubElements.begin(), itr));
}
}
}
}
std::sort(itemsToDel.begin(), itemsToDel.end());
while (!itemsToDel.empty()) {
Objects.erase(Objects.begin() + itemsToDel.back());
SubElements.erase(SubElements.begin() + itemsToDel.back());
itemsToDel.pop_back();
}
// Update UI
{
QSignalBlocker block(ui->listReferences);
ui->listReferences->clear();
for (size_t j = 0; j < Objects.size(); j++) {
ui->listReferences->addItem(makeRefText(Objects[j], SubElements[j]));
}
}
pcConstraint->References.setValues(Objects, SubElements);
updateUI();
}
void TaskFemConstraintFluidBoundary::updateUI()
{
if (ui->listReferences->model()->rowCount() == 0) {
// Go into reference selection mode if no reference has been selected yet
onButtonReference(true);
return;
}
}
void TaskFemConstraintFluidBoundary::changeEvent(QEvent* e)
{
TaskBox::changeEvent(e);
if (e->type() == QEvent::LanguageChange) {
ui->spinBoundaryValue->blockSignals(true);
// more ui widget? those UI are does not support tr yet!
ui->retranslateUi(proxy);
ui->spinBoundaryValue->blockSignals(false);
}
}
void TaskFemConstraintFluidBoundary::clearButtons(const SelectionChangeModes notThis)
{
if (notThis != SelectionChangeModes::refAdd) {
ui->btnAdd->setChecked(false);
}
if (notThis != SelectionChangeModes::refRemove) {
ui->btnRemove->setChecked(false);
}
}
//**************************************************************************
//**************************************************************************
// TaskDialog
//++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++++
TaskDlgFemConstraintFluidBoundary::TaskDlgFemConstraintFluidBoundary(
ViewProviderFemConstraintFluidBoundary* ConstraintView)
{
this->ConstraintView = ConstraintView;
assert(ConstraintView);
this->parameter = new TaskFemConstraintFluidBoundary(ConstraintView);
Content.push_back(parameter);
}
//==== calls from the TaskView ===============================================================
bool TaskDlgFemConstraintFluidBoundary::accept()
{
std::string name = ConstraintView->getObject()->getNameInDocument();
const TaskFemConstraintFluidBoundary* boundary =
static_cast<const TaskFemConstraintFluidBoundary*>(parameter);
// no need to backup pcConstraint object content, if rejected, content can be recovered by
// transaction manager
try {
// Gui::Command::openCommand(QT_TRANSLATE_NOOP("Command", "Fluid boundary condition
// changed"));
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.BoundaryType = '%s'",
name.c_str(),
boundary->getBoundaryType().c_str());
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.Subtype = '%s'",
name.c_str(),
boundary->getSubtype().c_str());
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.BoundaryValue = %f",
name.c_str(),
boundary->getBoundaryValue());
std::string dirname = boundary->getDirectionName().data();
std::string dirobj = boundary->getDirectionObject().data();
if (!dirname.empty()) {
QString buf = QStringLiteral("(App.ActiveDocument.%1,[\"%2\"])");
buf = buf.arg(QString::fromStdString(dirname));
buf = buf.arg(QString::fromStdString(dirobj));
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.Direction = %s",
name.c_str(),
buf.toStdString().c_str());
}
else {
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.Direction = None",
name.c_str());
}
// Reverse control is done at BoundaryType selection, this UI is hidden from user
// Gui::Command::doCommand(Gui::Command::Doc,"App.ActiveDocument.%s.Reversed = %s",
// name.c_str(), boundary->getReverse() ? "True" : "False");
// solver specific setting, physical model selection
const Fem::FemSolverObject* pcSolver = boundary->getFemSolver();
if (pcSolver) {
App::PropertyBool* pHeatTransferring = nullptr;
App::PropertyEnumeration* pTurbulenceModel = nullptr;
pHeatTransferring =
static_cast<App::PropertyBool*>(pcSolver->getPropertyByName("HeatTransferring"));
pTurbulenceModel = static_cast<App::PropertyEnumeration*>(
pcSolver->getPropertyByName("TurbulenceModel"));
if (pHeatTransferring && pHeatTransferring->getValue()) {
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.ThermalBoundaryType = '%s'",
name.c_str(),
boundary->getThermalBoundaryType().c_str());
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.TemperatureValue = %f",
name.c_str(),
boundary->getTemperatureValue());
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.HeatFluxValue = %f",
name.c_str(),
boundary->getHeatFluxValue());
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.HTCoeffValue = %f",
name.c_str(),
boundary->getHTCoeffValue());
}
if (pTurbulenceModel
&& std::string(pTurbulenceModel->getValueAsString())
!= "laminar") { // Invisic and DNS flow also does not need this
// update turbulence and thermal boundary settings, only if those models are
// activated
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.TurbulenceSpecification = '%s'",
name.c_str(),
boundary->getTurbulenceSpecification().c_str());
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.TurbulentIntensityValue = %f",
name.c_str(),
boundary->getTurbulentIntensityValue());
Gui::Command::doCommand(Gui::Command::Doc,
"App.ActiveDocument.%s.TurbulentLengthValue = %f",
name.c_str(),
boundary->getTurbulentLengthValue());
}
}
else {
Base::Console().Warning("FemSolverObject is not found in the FemAnalysis object, "
"thermal and turbulence setting is not accepted\n");
}
}
catch (const Base::Exception& e) {
QMessageBox::warning(parameter, tr("Input error"), QString::fromLatin1(e.what()));
return false;
}
return TaskDlgFemConstraint::accept();
}
#include "moc_TaskFemConstraintFluidBoundary.cpp"