def add_labels(product, lr, st):
if product.links:
for link in product.links:
if link.product.doc_id != product.doc_id:
if not link.product.label_reference:
lr_2 = TDF_LabelSequence()
si = StepImporter(link.product.doc_path)
shape_tool = si.shape_tool
shape_tool.GetFreeShapes(lr_2)
add_labels(link.product, lr_2.Value(1), shape_tool)
link.product.label_reference = lr_2.Value(1)
# FIXME: free memory
del si
gc.collect()
for d in range(link.quantity):
transformation = gp_Trsf()
loc = link.locations[d]
transformation.SetValues(loc.x1, loc.x2, loc.x3, loc.x4,
loc.y1, loc.y2, loc.y3, loc.y4,
loc.z1, loc.z2, loc.z3, loc.z4, 1,
1)
new_label = st.AddComponent(
lr, link.product.label_reference,
TopLoc_Location(transformation))
set_label_name(new_label, link.names[d])
def composer(temp_file_name):
"""
:param temp_file_name: path of a :class:`.tempfile` **.arb** that contains the information to generate a :class:`.Product` relative to the arborescense of a **.stp** file
For every node of the :class:`.Product` the attribute **doc_file_path** indicates where is store the file **.stp** that represents the node
"""
output = open(temp_file_name.encode(), "r")
product = Product.from_list(json.loads(output.read()))
output.close()
output = open(temp_file_name.encode(), "w+") # erase old data
output.close()
WS = XSControl_WorkSession()
my_step_importer = StepImporter(product.doc_path)
st = my_step_importer.shape_tool
lr = TDF_LabelSequence()
st.GetFreeShapes(lr)
add_labels(product, lr.Value(1), st)
writer = STEPCAFControl_Writer(WS.GetHandle(), False)
for i in range(lr.Length()):
writer.Transfer(lr.Value(i + 1), STEPControl_AsIs)
writer.Write(temp_file_name)
def read_step_file_shapes(filename):
_shapes = []
# create an handle to a document
h_doc = Handle_TDocStd_Document()
# Create the application
app = XCAFApp_Application.GetApplication().GetObject()
app.NewDocument(TCollection_ExtendedString("MDTV-CAF"), h_doc)
# Get root assembly
doc = h_doc.GetObject()
h_shape_tool = XCAFDoc_DocumentTool_ShapeTool(doc.Main())
step_reader = STEPCAFControl_Reader()
step_reader.SetNameMode(True)
status = step_reader.ReadFile(filename)
if status == IFSelect_RetDone:
step_reader.Transfer(doc.GetHandle())
labels = TDF_LabelSequence()
shape_tool = h_shape_tool.GetObject()
h_shape_tool.GetObject().GetFreeShapes(labels)
print("Number of shapes at root :%i" % labels.Length())
for i in range(labels.Length()):
label = labels.Value(i + 1)
a_shape = h_shape_tool.GetObject().GetShape(label)
_shapes.append(a_shape)
return _shapes
def getShapes():
labels = TDF_LabelSequence()
h_shape_tool.GetObject().GetFreeShapes(labels)
global cnt
cnt += 1
print()
print("Number of shapes at root :", labels.Length())
print()
root = labels.Value(1)
getSubShapes(root, None)
def test_read_step_file(self):
''' Reads the previous step file '''
# create an handle to a document
h_doc = Handle_TDocStd_Document()
# Create the application
app = XCAFApp_Application.GetApplication().GetObject()
app.NewDocument(TCollection_ExtendedString("MDTV-CAF"), h_doc)
# Get root assembly
doc = h_doc.GetObject()
h_shape_tool = XCAFDoc_DocumentTool_ShapeTool(doc.Main())
l_colors = XCAFDoc_DocumentTool_ColorTool(doc.Main())
step_reader = STEPCAFControl_Reader()
step_reader.SetColorMode(True)
step_reader.SetLayerMode(True)
step_reader.SetNameMode(True)
step_reader.SetMatMode(True)
status = step_reader.ReadFile("./test_io/test_ocaf.stp")
if status == IFSelect_RetDone:
step_reader.Transfer(doc.GetHandle())
labels = TDF_LabelSequence()
color_labels = TDF_LabelSequence()
shape_tool = h_shape_tool.GetObject()
h_shape_tool.GetObject().GetFreeShapes(labels)
assert (labels.Length() == 1)
sub_shapes_labels = TDF_LabelSequence()
assert (not shape_tool.IsAssembly(labels.Value(1)))
shape_tool.GetSubShapes(labels.Value(1), sub_shapes_labels)
assert (sub_shapes_labels.Length() == 0)
l_colors.GetObject().GetColors(color_labels)
assert (color_labels.Length() == 1)
label_shp = labels.Value(1)
a_shape = h_shape_tool.GetObject().GetShape(label_shp)
assert (not a_shape.IsNull())
def generate_product_arbre(self):
"""
Generates a :class:`.Product` relative to the assemblies of the file **.stp**, for every node of the :class:`.Product` it includes a label (:class:`.OCC.TDF.TDF_Label`) that represents and identifies the node , openPLM can only work whit a single root **.stp** files
"""
roots = TDF_LabelSequence()
self.shape_tool.GetFreeShapes(roots)
if roots.Length() != 1:
raise MultiRootError
deep = 0
product_id = [1]
root = roots.Value(1)
name = get_label_name(root)
self.main_product = Product(name, deep, root, self.id, product_id[0],
self.file)
product_id[0] += 1
expand_product(self.shape_tool, self.main_product, self.shapes_simples,
deep + 1, self.id, self.main_product, product_id,
self.file)
return self.main_product
step_reader.SetMatMode(True)
status = step_reader.ReadFile(filename)
if status == IFSelect_RetDone:
step_reader.Transfer(doc.GetHandle())
labels = TDF_LabelSequence()
color_labels = TDF_LabelSequence()
shape_tool = h_shape_tool.GetObject()
h_shape_tool.GetObject().GetFreeShapes(labels)
print("Number of shapes at root :%i" % labels.Length())
for i in range(labels.Length()):
sub_shapes_labels = TDF_LabelSequence()
print("Is Assembly :", shape_tool.IsAssembly(labels.Value(i+1)))
sub_shapes = shape_tool.GetSubShapes(labels.Value(i+1), sub_shapes_labels)
print("Number of subshapes in the assemly :%i" % sub_shapes_labels.Length())
l_colors.GetObject().GetColors(color_labels)
print("Number of colors=%i" % color_labels.Length())
for i in range(color_labels.Length()):
color = color_labels.Value(i+1)
print(color.DumpToString())
for i in range(labels.Length()):
label = labels.Value(i+1)
a_shape = h_shape_tool.GetObject().GetShape(label)
m = l_layers.GetObject().GetLayers(a_shape)
_shapes.append(a_shape)
def getSubShapes(lab, loc):
global cnt, lvl
cnt += 1
print("\n[%d] level %d, handling LABEL %s\n" %
(cnt, lvl, get_label_name(lab)))
print()
print(lab.DumpToString())
print()
print("Is Assembly :", shape_tool.IsAssembly(lab))
print("Is Free :", shape_tool.IsFree(lab))
print("Is Shape :", shape_tool.IsShape(lab))
print("Is Compound :", shape_tool.IsCompound(lab))
print("Is Component :", shape_tool.IsComponent(lab))
print("Is SimpleShape :", shape_tool.IsSimpleShape(lab))
print("Is Reference :", shape_tool.IsReference(lab))
users = TDF_LabelSequence()
users_cnt = shape_tool.GetUsers(lab, users)
print("Nr Users :", users_cnt)
l_subss = TDF_LabelSequence()
shape_tool.GetSubShapes(lab, l_subss)
print("Nb subshapes :", l_subss.Length())
l_comps = TDF_LabelSequence()
shape_tool.GetComponents(lab, l_comps)
print("Nb components :", l_comps.Length())
print()
if shape_tool.IsAssembly(lab):
l_c = TDF_LabelSequence()
shape_tool.GetComponents(lab, l_c)
for i in range(l_c.Length()):
label = l_c.Value(i + 1)
if shape_tool.IsReference(label):
print("\n######## reference label :", label)
label_reference = TDF_Label()
shape_tool.GetReferredShape(label, label_reference)
loc = shape_tool.GetLocation(label)
print(" loc :", loc)
trans = loc.Transformation()
print(" tran form :", trans.Form())
rot = trans.GetRotation()
print(" rotation :", rot)
print(" X :", rot.X())
print(" Y :", rot.Y())
print(" Z :", rot.Z())
print(" W :", rot.W())
tran = trans.TranslationPart()
print(" translation :", tran)
print(" X :", tran.X())
print(" Y :", tran.Y())
print(" Z :", tran.Z())
locs.append(loc)
print(">>>>")
lvl += 1
getSubShapes(label_reference, loc)
lvl -= 1
print("<<<<")
locs.pop()
elif shape_tool.IsSimpleShape(lab):
print("\n######## simpleshape label :", lab)
shape = shape_tool.GetShape(lab)
print(" all ass locs :", locs)
loc = TopLoc_Location()
for i in range(len(locs)):
print(" take loc :", locs[i])
loc = loc.Multiplied(locs[i])
trans = loc.Transformation()
print(" FINAL loc :")
print(" tran form :", trans.Form())
rot = trans.GetRotation()
print(" rotation :", rot)
print(" X :", rot.X())
print(" Y :", rot.Y())
print(" Z :", rot.Z())
print(" W :", rot.W())
tran = trans.TranslationPart()
print(" translation :", tran)
print(" X :", tran.X())
print(" Y :", tran.Y())
print(" Z :", tran.Z())
shape = BRepBuilderAPI_Transform(shape, loc.Transformation()).Shape()
c = Quantity_Color()
colorSet = False
if (color_tool.GetInstanceColor(shape, 0, c)
or color_tool.GetInstanceColor(shape, 1, c)
or color_tool.GetInstanceColor(shape, 2, c)):
for i in (0, 1, 2):
color_tool.SetInstanceColor(shape, i, c)
colorSet = True
n = c.Name(c.Red(), c.Green(), c.Blue())
print(' instance color Name & RGB: ', c, n, c.Red(), c.Green(),
c.Blue())
if not colorSet:
if (color_tool.GetColor(lab, 0, c)
or color_tool.GetColor(lab, 1, c)
or color_tool.GetColor(lab, 2, c)):
for i in (0, 1, 2):
color_tool.SetInstanceColor(shape, i, c)
n = c.Name(c.Red(), c.Green(), c.Blue())
print(' shape color Name & RGB: ', c, n, c.Red(), c.Green(),
c.Blue())
# n = c.Name(c.Red(), c.Green(), c.Blue())
# print(' color Name & RGB: ', c, n, c.Red(), c.Green(), c.Blue())
# Display shape
display.DisplayColoredShape(shape, c)
for i in range(l_subss.Length()):
lab = l_subss.Value(i + 1)
print("\n######## simpleshape subshape label :", lab)
shape = shape_tool.GetShape(lab)
c = Quantity_Color()
colorSet = False
if (color_tool.GetInstanceColor(shape, 0, c)
or color_tool.GetInstanceColor(shape, 1, c)
or color_tool.GetInstanceColor(shape, 2, c)):
for i in (0, 1, 2):
color_tool.SetInstanceColor(shape, i, c)
colorSet = True
n = c.Name(c.Red(), c.Green(), c.Blue())
print(' instance color Name & RGB: ', c, n, c.Red(),
c.Green(), c.Blue())
if not colorSet:
if (color_tool.GetColor(lab, 0, c)
or color_tool.GetColor(lab, 1, c)
or color_tool.GetColor(lab, 2, c)):
for i in (0, 1, 2):
color_tool.SetInstanceColor(shape, i, c)
n = c.Name(c.Red(), c.Green(), c.Blue())
print(' shape color Name & RGB: ', c, n, c.Red(),
c.Green(), c.Blue())
# n = c.Name(c.Red(), c.Green(), c.Blue())
# print(' color Name & RGB: ', c, n, c.Red(), c.Green(), c.Blue())
# Display shape
display.DisplayColoredShape(shape, c)
def __init__(self, file_path, id=None):
self.file = file_path.encode("utf-8")
self.id = id
self.shapes_simples = []
self.main_product = None
basename = os.path.basename(self.file)
self.fileName = os.path.splitext(basename)[0]
self.STEPReader = STEPCAFControl_Reader()
if self.STEPReader.ReadFile(self.file) != 1:
raise OCCReadingStepError
self.h_doc = TDocStd.Handle_TDocStd_Document()
self.app = XCAFApp.GetApplication().GetObject()
self.app.NewDocument(TCollection_ExtendedString("MDTV-XCAF"),
self.h_doc)
self.STEPReader.Transfer(self.h_doc)
self.doc = self.h_doc.GetObject()
self.h_shape_tool = XCAFDoc.XCAFDoc_DocumentTool_ShapeTool(
self.doc.Main())
self.h_colors_tool = XCAFDoc.XCAFDoc_DocumentTool_ColorTool(
self.doc.Main())
self.shape_tool = self.h_shape_tool.GetObject()
self.color_tool = self.h_colors_tool.GetObject()
self.shapes = TDF_LabelSequence()
self.shape_tool.GetShapes(self.shapes)
for i in range(self.shapes.Length()):
shape = self.shapes.Value(i + 1)
if self.shape_tool.IsSimpleShape(shape):
compShape = self.shape_tool.GetShape(shape)
t = Topo(compShape)
if t.number_of_vertices() > 0:
label = get_label_name(shape)
color = find_color(shape, self.color_tool, self.shape_tool)
self.shapes_simples.append(
SimpleShape(label, compShape, color))
roots = TDF_LabelSequence()
self.shape_tool.GetFreeShapes(roots)
self.thumbnail_valid = False
if roots.Length() == 1:
shape = self.shape_tool.GetShape(roots.Value(1))
t = Topo(shape)
if t.number_of_vertices() > 0:
bbox = Bnd_Box()
gap = 0
bbox.SetGap(gap)
BRepMesh_Mesh(shape, get_mesh_precision(shape, 1))
faces_iterator = Topo(shape).faces()
for F in faces_iterator:
face_location = TopLoc_Location()
BRep_Tool_Triangulation(F, face_location)
BRepBndLib_Add(shape, bbox)
x_min, y_min, z_min, x_max, y_max, z_max = bbox.Get()
diagonal = max(x_max - x_min, y_max - y_min, z_max - z_min)
if diagonal > 0:
self.scale = 200. / diagonal
self.trans = ((x_max - x_min) / 2. - x_max,
(y_max - y_min) / 2. - y_max,
(z_max - z_min) / 2. - z_max)
self.thumbnail_valid = True
ws = self.STEPReader.Reader().WS().GetObject()
model = ws.Model().GetObject()
model.Clear()
class StepImporter(object):
"""
:param file_path: Path of the file **.stp** to analyzing
:param id: For the generation of the :class:`.Product`, **id** is assigned like product.doc_id for every node of :class:`.Product`. For the generation of the files of geometry **.geo**, **id** , together with an index generated by the class, are used to identify the content of every file
Generates from a path of :class:`~django.core.files.File` **.stp**:
-A set of files **.geo** that represents the geometry of the different simple products that are useful to realize the visualization 3D across the web browser.
-A structure of information that represents the arborescencse of the different assemblies,represented in a :class:`.Product` . (Including his spatial location and orientation and his label of reference (:class:`.OCC.TDF.TDF_Label`))
This class is invoked from three different subprocesses related to the functionality of pythonOCC(generate3D.py , generateComposition.py , generateDecomposition.py).
"""
def __init__(self, file_path, id=None):
self.file = file_path.encode("utf-8")
self.id = id
self.shapes_simples = []
self.main_product = None
basename = os.path.basename(self.file)
self.fileName = os.path.splitext(basename)[0]
self.STEPReader = STEPCAFControl_Reader()
if self.STEPReader.ReadFile(self.file) != 1:
raise OCCReadingStepError
self.h_doc = TDocStd.Handle_TDocStd_Document()
self.app = XCAFApp.GetApplication().GetObject()
self.app.NewDocument(TCollection_ExtendedString("MDTV-XCAF"),
self.h_doc)
self.STEPReader.Transfer(self.h_doc)
self.doc = self.h_doc.GetObject()
self.h_shape_tool = XCAFDoc.XCAFDoc_DocumentTool_ShapeTool(
self.doc.Main())
self.h_colors_tool = XCAFDoc.XCAFDoc_DocumentTool_ColorTool(
self.doc.Main())
self.shape_tool = self.h_shape_tool.GetObject()
self.color_tool = self.h_colors_tool.GetObject()
self.shapes = TDF_LabelSequence()
self.shape_tool.GetShapes(self.shapes)
for i in range(self.shapes.Length()):
shape = self.shapes.Value(i + 1)
if self.shape_tool.IsSimpleShape(shape):
compShape = self.shape_tool.GetShape(shape)
t = Topo(compShape)
if t.number_of_vertices() > 0:
label = get_label_name(shape)
color = find_color(shape, self.color_tool, self.shape_tool)
self.shapes_simples.append(
SimpleShape(label, compShape, color))
roots = TDF_LabelSequence()
self.shape_tool.GetFreeShapes(roots)
self.thumbnail_valid = False
if roots.Length() == 1:
shape = self.shape_tool.GetShape(roots.Value(1))
t = Topo(shape)
if t.number_of_vertices() > 0:
bbox = Bnd_Box()
gap = 0
bbox.SetGap(gap)
BRepMesh_Mesh(shape, get_mesh_precision(shape, 1))
faces_iterator = Topo(shape).faces()
for F in faces_iterator:
face_location = TopLoc_Location()
BRep_Tool_Triangulation(F, face_location)
BRepBndLib_Add(shape, bbox)
x_min, y_min, z_min, x_max, y_max, z_max = bbox.Get()
diagonal = max(x_max - x_min, y_max - y_min, z_max - z_min)
if diagonal > 0:
self.scale = 200. / diagonal
self.trans = ((x_max - x_min) / 2. - x_max,
(y_max - y_min) / 2. - y_max,
(z_max - z_min) / 2. - z_max)
self.thumbnail_valid = True
ws = self.STEPReader.Reader().WS().GetObject()
model = ws.Model().GetObject()
model.Clear()
def compute_geometries(self, root_path, pov_dir):
"""
:param root_path: Path where to store the files **.geo** generated
When we generate a new :class:`.StepImporter` we will refill a list(**shapes_simples**) whit the :class:`.SimpleShape` contained in the file **.stp**
For each :class:`.SimpleShape` in the list **shapes_simples**:
We call the method :func:`.write_geometries` to generate a file **.geo** representative of its geometry,the content of the file is identified by the index+1 (>0) of the position of the :class:`.SimpleShape` in the list of **SimpleShapes** and by the attribue id of :class:`.StepImporter`
Returns the list of the path of the generated **.geo** files
"""
files_index = ""
self.povs = []
for index, shape in enumerate(self.shapes_simples):
name = get_available_name(root_path, self.fileName + ".geo")
path = os.path.join(root_path, name)
identifier = "_" + str(index + 1) + "_" + str(self.id)
writer = GeometryWriter(shape, 0.3)
pov_filename = os.path.join(pov_dir,
os.path.basename(path + ".inc"))
writer.write_geometries(identifier, path, pov_filename)
files_index += "GEO:" + name + " , " + str(index + 1) + "\n"
if writer.triangle_count:
self.povs.append((os.path.basename(name + ".inc"), identifier))
return files_index
def generate_product_arbre(self):
"""
Generates a :class:`.Product` relative to the assemblies of the file **.stp**, for every node of the :class:`.Product` it includes a label (:class:`.OCC.TDF.TDF_Label`) that represents and identifies the node , openPLM can only work whit a single root **.stp** files
"""
roots = TDF_LabelSequence()
self.shape_tool.GetFreeShapes(roots)
if roots.Length() != 1:
raise MultiRootError
deep = 0
product_id = [1]
root = roots.Value(1)
name = get_label_name(root)
self.main_product = Product(name, deep, root, self.id, product_id[0],
self.file)
product_id[0] += 1
expand_product(self.shape_tool, self.main_product, self.shapes_simples,
deep + 1, self.id, self.main_product, product_id,
self.file)
return self.main_product
def expand_product(shape_tool, product, shapes_simples, deep, doc_id,
product_root, product_id, file_path):
"""
:param shape_tool: :class:`.OCC.XCAFDoc.XCAFDoc_ShapeTool`
:param product: :class:`.Product` that will be expanded
:param shapes_simples: list of :class:`.SimpleShape`
:param deep: Depth of the node that we explore
:param doc_id: id that references a :class:`.DocumentFile` of which we are generating the :class:`.Product`
:param product_root: :class:`.Product` root of the arborescense
We are going to expand a :class:`.Product` (**product**) from the :class:`.OCC.TDF.TDF_Label` who identifies it (**product**.label_reference)
If the **product** is an assembly:
* We generate the **list** of the :class:`.OCC.TDF.TDF_Label` that define it
* for each :class:`.OCC.TDF.TDF_Label` in **list**:
- We generate a new :class:`.document3D.classes.Link` or if two or more :class:`.OCC.TDF.TDF_Label` of the list are partner, add an occurrence extra to the :class:`.document3D.classes.Link` that already was generated
- The :class:`.document3D.classes.Link` is going to point at a new :class:`.Product` or, if the :class:`.Product` is already present in **product_root**, at the already definite product
- If the :class:`.document3D.classes.Link` pointed at a new :class:`.Product` we need to expand it
* The atribute **label_reference** of the new :class:`.Product` should be the :class:`.OCC.TDF.TDF_Label`
* We expand the :class:`.Product` in a recursive call of method
Else the **product** is a simple shape:
* We look in the list of **shapes_simples** for his partner
* We set the attribute **product**.geometry like the index+1 (>0) of the position of his partner in the list of **SimpleShape**
"""
if shape_tool.IsAssembly(product.label_reference):
l_c = TDF_LabelSequence()
shape_tool.GetComponents(product.label_reference, l_c)
for i in range(l_c.Length()):
label = l_c.Value(i + 1)
if shape_tool.IsReference(label):
label_reference = TDF_Label()
shape_tool.GetReferredShape(label, label_reference)
reference_found = False
matrix = TransformationMatrix(
get_matrix(shape_tool.GetLocation(label).Transformation()))
shape = shape_tool.GetShape(label_reference)
for link in product.links:
if shape_tool.GetShape(
link.product.label_reference).IsPartner(shape):
link.add_occurrence(get_label_name(label), matrix)
reference_found = True
break
if not reference_found:
new_product = Product(get_label_name(label_reference),
deep, label_reference, doc_id,
product_id[0], file_path)
product_assembly = search_assembly(new_product,
product_root)
if product_assembly:
product.links.append(Link(product_assembly))
else:
product.links.append(Link(new_product))
product_id[0] += 1
expand_product(shape_tool, new_product, shapes_simples,
deep + 1, doc_id, product_root,
product_id, file_path)
product.links[-1].add_occurrence(get_label_name(label),
matrix)
else:
compShape = shape_tool.GetShape(product.label_reference)
for index in range(len(shapes_simples)):
if compShape.IsPartner(shapes_simples[index].shape):
product.set_geometry(index + 1) #to avoid index==0
def loadShape(self, shape_list):
"""
Method for loading one or more shapes and displaying to Output Viewer.
This method uses libraries of iges caf control for fetching sub-shape names within .igs files. This method
is used when adding a case in the main routine.
@param shape_list [list] First index contains the path of shape, second index contains a list of display
exceptions, e.g: [[igs_2d_shape_path, ["HUB", "SHROUD"], [igs_3d_shape_path, ["STREAM"]]
@return First return contains list of ais_shapes handles and second return contains a list of sub-shape names
in strings
"""
loaded_ais_shape = []
loaded_h_ais_shape = []
loaded_subshape_names = []
default_displaying_h_ais_shape = []
for shape_case in shape_list:
loaded_shape_filename = os.path.basename(shape_case[0])
exception_list = shape_case[1]
exception_list = list(
filter(None, exception_list)
) # Mistake-prevention of user filling of exception list
# creates a handle for TdocStd documents
h_doc = Handle_TDocStd_Document()
# create the application
app = _XCAFApp.XCAFApp_Application_GetApplication().GetObject()
app.NewDocument(TCollection_ExtendedString(""), h_doc)
# get root assembly
doc = h_doc.GetObject()
h_shape_tool = XCAFDoc_DocumentTool().ShapeTool(doc.Main())
# creates a reader responsible for reading an IGS file
reader = IGESCAFControl_Reader()
reader.ReadFile(shape_case[0])
# Translates currently loaded IGES file into the document
reader.Transfer(doc.GetHandle())
# labels for the shapes. Every IGS file contains a name for each individual shape
labels = TDF_LabelSequence()
shape_tool = h_shape_tool.GetObject()
shape_tool.GetShapes(labels)
# gets the number of individual shapes contained in the igs file
nb = reader.NbShapes()
# for each individual shape gets the label nad creates a AIS_Shape for data contained in reader.Shape()
for i in range(1, nb + 1):
label = labels.Value(i)
h_name = Handle_TDataStd_Name()
label.FindAttribute(TDataStd_Name_GetID(), h_name)
str_dump = h_name.GetObject().DumpToString()
name_subshape = str_dump.split('|')[-2]
name = "%s - %s" % (loaded_shape_filename, name_subshape)
loaded_subshape_names.append(name)
shape = AIS_ColoredShape(reader.Shape(i))
loaded_ais_shape.append(shape)
loaded_h_ais_shape.append(shape.GetHandle())
if not any(iterator in name_subshape
for iterator in exception_list):
default_displaying_h_ais_shape.append(shape.GetHandle())
self.op_viewer.master_shape_list.append(shape.GetHandle())
# number of cases is a variable used to make the loaded shape color different from the previous one
number_of_cases = self.op_viewer.model.rowCount(
self.op_viewer.ui_case_treeview.rootIndex())
# sets the default attributes for ais shapes handles
for h_ais_shape in loaded_h_ais_shape:
self.op_viewer.display.Context.SetDeviationCoefficient(
h_ais_shape,
self.op_viewer.DC / self.op_viewer.default_shape_factor)
self.op_viewer.display.Context.SetHLRDeviationCoefficient(
h_ais_shape, self.op_viewer.DC_HLR /
self.op_viewer.default_shape_factor)
self.op_viewer.display.Context.SetColor(
h_ais_shape, shape_colordictionary[shape_colorlist[
(self.op_viewer.default_shape_color + number_of_cases)
% len(shape_colorlist)]])
self.op_viewer.display.Context.SetTransparency(
h_ais_shape, self.op_viewer.default_shape_transparency)
# displays the handles of the ais_shapes in the viewer3d context.
for h_ais_shape in default_displaying_h_ais_shape:
self.op_viewer.display.Context.Display(h_ais_shape)
return loaded_h_ais_shape, loaded_subshape_names