void ScriptEngineRemote::disconnected()
{
logMessage("ScriptEngineRemote::disconnected()");
m_server_socket->deleteLater();
ScriptResult result;
if (!command.isEmpty())
{
result = runPythonScript(command);
}
m_client_socket = new QLocalSocket();
connect(m_client_socket, SIGNAL(error(QLocalSocket::LocalSocketError)), this, SLOT(displayError(QLocalSocket::LocalSocketError)));
m_client_socket->connectToServer("agros2d-client");
if (m_client_socket->waitForConnected(1000))
{
QTextStream out(m_client_socket);
out << result.text;
out.flush();
m_client_socket->waitForBytesWritten();
}
else
{
displayError(QLocalSocket::ConnectionRefusedError);
}
delete m_client_socket;
}
void Terminal::doExecute()
{
logMessage("Terminal::doExecute()");
if (!txtCommand->text().isEmpty())
{
QSettings settings;
QStringList list = settings.value("CommandDialog/RecentCommands").value<QStringList>();
list.insert(0, txtCommand->text());
// remove last item (over 50), empty strings and duplicates
list.removeAll("");
// list.removeDuplicates();
while (list.count() > 50)
list.removeAt(list.count()-1);
txtCommand->model()->setStringList(list);
settings.setValue("CommandDialog/RecentCommands", list);
// command
doPrintStdout(">>> " + txtCommand->text() + "\n", Qt::black);
// execute command
doWriteResult(runPythonScript(txtCommand->text()));
}
txtCommand->clear();
txtCommand->setFocus();
}
bool ProblemDialog::save()
{
logMessage("ProblemDialog::save()");
// physical field type
if (Util::scene()->problemInfo()->physicField() != ((PhysicField) cmbPhysicField->itemData(cmbPhysicField->currentIndex()).toInt()))
{
if (!this->m_isNewProblem)
{
if (Util::scene()->boundaries.count() != 1 || Util::scene()->materials.count() != 1)
{
if (QMessageBox::question(this, tr("Change physical field type"), tr("Are you sure change physical field type?"), tr("&Yes"), tr("&No")) == 1)
return false;
}
}
if (Util::scene()->sceneSolution()->isSolved())
Util::scene()->doClearSolution();
m_problemInfo->setHermes(hermesFieldFactory((PhysicField) cmbPhysicField->itemData(cmbPhysicField->currentIndex()).toInt()));
for (int i = 1; i < Util::scene()->boundaries.count(); i++)
{
Util::scene()->replaceBoundary(Util::scene()->boundaries[1]);
}
for (int i = 1; i < Util::scene()->materials.count(); i++)
{
Util::scene()->replaceMaterial(Util::scene()->materials[1]);
}
}
else
{
m_problemInfo->setHermes(hermesFieldFactory((PhysicField) cmbPhysicField->itemData(cmbPhysicField->currentIndex()).toInt()));
}
// check values
if ((ProblemType) cmbProblemType->itemData(cmbProblemType->currentIndex()).toInt() == ProblemType_Axisymmetric)
{
for (int i = 0; i<Util::scene()->nodes.count(); i++)
{
if (Util::scene()->nodes[i]->point.x < 0.0)
{
QMessageBox::warning(QApplication::activeWindow(), QObject::tr("Error"), tr("Some nodes are placed outside the permitted area (coordinate x must be positive)."));
break;
}
}
}
if (cmbAnalysisType->itemData(cmbAnalysisType->currentIndex()).toInt() == AnalysisType_Harmonic)
{
if (txtFrequency->value() < 0)
{
QMessageBox::critical(this, tr("Error"), tr("Frequency cannot be negative."));
return false;
}
}
if (cmbAnalysisType->itemData(cmbAnalysisType->currentIndex()).toInt() == AnalysisType_Transient)
{
txtTransientTimeStep->evaluate(false);
if (txtTransientTimeStep->number() <= 0.0)
{
QMessageBox::critical(this, tr("Error"), tr("Time step must be positive."));
return false;
}
txtTransientTimeTotal->evaluate(false);
if (txtTransientTimeTotal->number() <= 0.0)
{
QMessageBox::critical(this, tr("Error"), tr("Total time must be positive."));
return false;
}
txtTransientTimeStep->evaluate(false);
if (txtTransientTimeStep->number() > txtTransientTimeTotal->number())
{
QMessageBox::critical(this, tr("Error"), tr("Time step is greater then total time."));
return false;
}
}
// run and check startup script
if (!txtStartupScript->toPlainText().isEmpty())
{
ScriptResult scriptResult = runPythonScript(txtStartupScript->toPlainText());
if (scriptResult.isError)
{
QMessageBox::critical(QApplication::activeWindow(), QObject::tr("Error"), scriptResult.text);
return false;
}
}
// save properties
m_problemInfo->name = txtName->text();
m_problemInfo->date = dtmDate->date();
m_problemInfo->problemType = (ProblemType) cmbProblemType->itemData(cmbProblemType->currentIndex()).toInt();
m_problemInfo->numberOfRefinements = txtNumberOfRefinements->value();
m_problemInfo->polynomialOrder = txtPolynomialOrder->value();
m_problemInfo->meshType = (MeshType) cmbMeshType->itemData(cmbMeshType->currentIndex()).toInt();
m_problemInfo->adaptivityType = (AdaptivityType) cmbAdaptivityType->itemData(cmbAdaptivityType->currentIndex()).toInt();
m_problemInfo->adaptivitySteps = txtAdaptivitySteps->value();
m_problemInfo->adaptivityTolerance = txtAdaptivityTolerance->value();
m_problemInfo->frequency = txtFrequency->value();
m_problemInfo->analysisType = (AnalysisType) cmbAnalysisType->itemData(cmbAnalysisType->currentIndex()).toInt();
m_problemInfo->timeStep = txtTransientTimeStep->value();
m_problemInfo->timeTotal = txtTransientTimeTotal->value();
m_problemInfo->initialCondition = txtTransientInitialCondition->value();
m_problemInfo->description = txtDescription->toPlainText();
m_problemInfo->scriptStartup = txtStartupScript->toPlainText();
m_problemInfo->linearityType = (LinearityType) cmbLinearityType->itemData(cmbLinearityType->currentIndex()).toInt();
m_problemInfo->linearityNonlinearSteps = txtLinearityNonlinearitySteps->value();
m_problemInfo->linearityNonlinearTolerance = txtLinearityNonlinearityTolerance->value();
// matrix solver
m_problemInfo->matrixSolver = (MatrixSolverType) cmbMatrixSolver->itemData(cmbMatrixSolver->currentIndex()).toInt();
return true;
}
