private RFEMobjectOps.MatchSurfacePropertiesSettings processMatchSurfaceProps()
{
RFEMobjectOps.MatchSurfacePropertiesSettings matchSettings = new RFEMobjectOps.MatchSurfacePropertiesSettings();
//thickness
if (MatchSrfThickness.Checked == true)
{
matchSettings.Thickness = true;
}
else
{
matchSettings.Thickness = false;
}
//material
if (MatchSrfMaterial.Checked == true)
{
matchSettings.MaterialNo = true;
}
else
{
matchSettings.MaterialNo = false;
}
//stiffness
if (MatchSrfStiffness.Checked == true)
{
matchSettings.StiffnessType = true;
}
else
{
matchSettings.StiffnessType = false;
}
//comment
if (MatchSrfComment.Checked == true)
{
matchSettings.Comment = true;
}
else
{
matchSettings.Comment = false;
}
return(matchSettings);
}
public static void MatchSurfaceProps(RFEMobjectOps.MatchSurfacePropertiesSettings matchPropSettings)
{
IModel model = RFEMconnection.getRFEMconnection();
IModelData modelData = model.GetModelData();
IView view = model.GetActiveView();
//select Source surface //
Common.IO.Log("Select one source surface!");
List <Surface> sourceSurfaces = RFEMselectOps.selectSurfaces(model);
if (sourceSurfaces.Count == 0)
{
Common.IO.Log("");
return;
}
Surface sourceSurface = sourceSurfaces[0];
//select Destination surfaces
Common.IO.Log("Select one or multiple destination surfaces!");
List <Surface> destinationSurfaces = RFEMselectOps.selectSurfaces(model);
if (destinationSurfaces.Count == 0)
{
Common.IO.Log("");
return;
}
List <Surface> surfacesToWrite = new List <Surface>();
foreach (Surface surface in destinationSurfaces)
{
Surface targetSurface = new Surface();
RFEMobjectOps.MatchSurfaceProperties(sourceSurface, ref targetSurface, matchPropSettings);
targetSurface.No = surface.No;
targetSurface.BoundaryLineList = surface.BoundaryLineList;
surfacesToWrite.Add(targetSurface);
}
try
{
//prepares model for modification and writes data
modelData.PrepareModification();
foreach (Surface surfaceToWrite in surfacesToWrite)
{
modelData.SetSurface(surfaceToWrite);
}
//finishes modifications - regenerates numbering etc.
modelData.FinishModification();
Common.IO.Log("Surface properties have been matched");
}
catch (Exception ex)
{
Common.IO.Log("Error in matching the surface properties");
MessageBox.Show(ex.Message, "Error - Surface Write", MessageBoxButtons.OK, MessageBoxIcon.Error);
}
finally
{
//closing the connection with RFEM
RFEMconnection.closeRFEMconnection(model);
}
}
private void button2_Click_1(object sender, EventArgs e)
{
RFEMobjectOps.MatchSurfacePropertiesSettings matchSettings = processMatchSurfaceProps();
MatchProps.MatchSurfaceProps(matchSettings);
}
/// <summary>
/// Method for spliting surfaces with line
/// Takes no arguments, because surface and line is selected in RFEM surface
/// </summary>
public static void splitSurfaces()
{
IModel model = RFEMconnection.getRFEMconnection();
IModelData modelData = model.GetModelData();
IView view = model.GetActiveView();
//select surface - cast to be used because selectObjects returns generic "object"
Common.IO.Log("Select one surface to split!");
List <Surface> selectedSurfaces = RFEMselectOps.selectSurfaces(model);
if (selectedSurfaces.Count == 0)
{
Common.IO.Log("");
return;
}
Surface selectedSurface = selectedSurfaces[0];
int selectedSurfaceNo = selectedSurface.No;
//select line - cast to be used because selectObjects returns generic "object"
Common.IO.Log("Select one line to split with!");
List <Line> selectedLines = RFEMselectOps.selectLines(model);
if (selectedLines.Count == 0)
{
Common.IO.Log("");
return;
}
int splitLineNo = selectedLines[0].No;
//get boundary lines of existing surface
string boundaryLinesListString = selectedSurface.BoundaryLineList;
List <int> boundaryLinesList = ListOperations.objectNumbersToList(boundaryLinesListString);
//get boundary lines of split surfaces
List <List <int> > newSurfacesBoundLines = getBoundaryLinesOfSplitSurfaces(modelData, boundaryLinesList, splitLineNo);
//Define new surfaces using existing surface data as a template
Surface newSplitSurface1 = new Surface();
Surface newSplitSurface2 = new Surface();
//first surface will keep the number or original surface
RFEMobjectOps.MatchSurfacePropertiesSettings surfMatchPropsSurf1 = new RFEMobjectOps.MatchSurfacePropertiesSettings();
surfMatchPropsSurf1.No = true;
//for second one, new number will be assigned
RFEMobjectOps.MatchSurfacePropertiesSettings surfMatchPropsSurf2 = new RFEMobjectOps.MatchSurfacePropertiesSettings();
int nextAvailableSurfaceNo = modelData.GetLastObjectNo(ModelObjectType.SurfaceObject) + 1;
newSplitSurface2.No = nextAvailableSurfaceNo;
//match properties
RFEMobjectOps.MatchSurfaceProperties(selectedSurface, ref newSplitSurface1, surfMatchPropsSurf1);
RFEMobjectOps.MatchSurfaceProperties(selectedSurface, ref newSplitSurface2, surfMatchPropsSurf2);
//convert list of integers to RFEM text, assign these to newly created surfaces
newSplitSurface1.BoundaryLineList = ListOperations.objectNumbersToSting(newSurfacesBoundLines[0]);
newSplitSurface2.BoundaryLineList = ListOperations.objectNumbersToSting(newSurfacesBoundLines[1]);
try
{
//prepares model for modification and writes data
modelData.PrepareModification();
modelData.SetSurface(newSplitSurface1);
modelData.SetSurface(newSplitSurface2);
//finishes modifications - regenerates numbering etc.
modelData.FinishModification();
Common.IO.Log("Surface has been split in two");
}
catch (Exception ex)
{
Common.IO.Log("Error in splitting the surface");
MessageBox.Show(ex.Message, "Error - Surface Write", MessageBoxButtons.OK, MessageBoxIcon.Error);
}
finally
{
//closing the connection with RFEM
RFEMconnection.closeRFEMconnection(model);
}
}
