# Globals
_current_bar = None
+_med_field_sep = '@@][@@'
# Enumerations
NODE = 0
CELL = 1
- _type2name = {NODE: 'OnPoint',
- CELL: 'OnCell'}
+ _type2name = {NODE: 'P1',
+ CELL: 'P0'}
- _name2type = {'OnPoint': NODE,
- 'OnCell': CELL}
+ _name2type = {'P1': NODE,
+ 'P0': CELL}
_type2pvtype = {NODE: 'POINT_DATA',
CELL: 'CELL_DATA'}
# Auxiliary functions
+
+def get_field_mesh_name(full_field_name):
+ """Return mesh name of the field by its full name."""
+ aList = full_field_name.split('/')
+ if len(aList) >= 2 :
+ field_name = full_field_name.split('/')[1]
+ return field_name
+
+
+def get_field_entity(full_field_name):
+ """Return entity type of the field by its full name."""
+ aList = full_field_name.split(_med_field_sep)
+ if len(aList) == 2 :
+ entity_name = full_field_name.split(_med_field_sep)[-1]
+ entity = EntityType.get_type(entity_name)
+ return entity
+
+
+def get_field_short_name(full_field_name):
+ """Return short name of the field by its full name."""
+ aList = full_field_name.split('/')
+ if len(aList) == 4 :
+ short_name_with_type = full_field_name.split('/')[-1]
+ short_name = short_name_with_type.split(_med_field_sep)[0]
+ return short_name
+
+
+def find_mesh_full_name(proxy, short_mesh_name):
+ """Return full mesh path by short mesh name, if found"""
+ proxy.UpdatePipeline()
+ all_mesh_names = get_mesh_full_names(proxy)
+ for name in all_mesh_names:
+ if short_mesh_name == get_field_short_name(name):
+ return name
+
+
def process_prs_for_test(prs, view, picture_name, show_bar=True):
"""Show presentation and record snapshot image.
def display_only(prs, view=None):
"""Display only the given presentation in the view."""
- hide_all(view)
- if (hasattr(prs, 'Visibility') and prs.Visibility != 1):
- prs.Visibility = 1
+ if not view:
+ view = pvs.GetRenderView()
+
+ rep_list = view.Representations
+ for rep in rep_list:
+ if hasattr(rep, 'Visibility'):
+ rep.Visibility = (rep == prs)
pvs.Render(view=view)
Data range as [min, max]
"""
+ proxy.UpdatePipeline()
entity_data_info = None
field_data = proxy.GetFieldDataInformation()
def get_bounds(proxy):
"""Get bounds of the proxy in 3D."""
+ proxy.UpdatePipeline()
dataInfo = proxy.GetDataInformation()
bounds_info = dataInfo.GetBounds()
return bounds_info
def get_x_range(proxy):
"""Get X range of the proxy bounds in 3D."""
+ proxy.UpdatePipeline()
bounds_info = get_bounds(proxy)
return bounds_info[0:2]
def get_y_range(proxy):
"""Get Y range of the proxy bounds in 3D."""
+ proxy.UpdatePipeline()
bounds_info = get_bounds(proxy)
return bounds_info[2:4]
def get_z_range(proxy):
"""Get Z range of the proxy bounds in 3D."""
+ proxy.UpdatePipeline()
bounds_info = get_bounds(proxy)
return bounds_info[4:6]
def is_planar_input(proxy):
"""Check if the given input is planar."""
+ proxy.UpdatePipeline()
bounds_info = get_bounds(proxy)
if (abs(bounds_info[0] - bounds_info[1]) <= FLT_MIN or
def is_data_on_cells(proxy, field_name):
"""Check the existence of a field on cells with the given name."""
+ proxy.UpdatePipeline()
cell_data_info = proxy.GetCellDataInformation()
return (field_name in cell_data_info.keys())
False: otherwise
"""
+ proxy.UpdatePipeline()
data_info = proxy.GetDataInformation()
nb_cells = data_info.GetNumberOfCells()
def get_orientation(proxy):
"""Get the optimum cutting plane orientation for Plot 3D."""
+ proxy.UpdatePipeline()
orientation = Orientation.XY
bounds = get_bounds(proxy)
def get_nb_components(proxy, entity, field_name):
"""Return number of components for the field."""
+ proxy.UpdatePipeline()
entity_data_info = None
field_data = proxy.GetFieldDataInformation()
if field_name in field_data.keys():
entity_data_info = field_data
elif entity == EntityType.CELL:
+ select_cells_with_data(proxy, on_cells=[field_name])
entity_data_info = proxy.GetCellDataInformation()
elif entity == EntityType.NODE:
+ select_cells_with_data(proxy, on_points=[field_name])
entity_data_info = proxy.GetPointDataInformation()
nb_comp = None
def get_default_scale(prs_type, proxy, entity, field_name):
"""Get default scale factor."""
+ proxy.UpdatePipeline()
data_range = get_data_range(proxy, entity, field_name)
if prs_type == PrsTypeEnum.DEFORMEDSHAPE:
the calculator object.
"""
+ proxy.UpdatePipeline()
calculator = None
# Transform vector array to scalar array if possible
the calculator object.
"""
+ proxy.UpdatePipeline()
calculator = None
nb_components = get_nb_components(proxy, array_entity, array_name)
Used in creation of mesh/submesh presentation.
"""
- ### Old API all_cell_types = proxy.CellTypes.Available
- all_cell_types = proxy.Entity.Available
- ### Old API proxy.CellTypes = all_cell_types
- proxy.Entity = all_cell_types
proxy.UpdatePipeline()
+ extractCT = pvs.ExtractCellType()
+ extractCT.AllGeoTypes = extractCT.GetProperty("GeoTypesInfo")[::2]
+ extractCT.UpdatePipelineInformation()
-def select_cells_with_data(proxy, on_points=None, on_cells=None):
+def select_cells_with_data(proxy, on_points=[], on_cells=[], on_gauss=[]):
"""Select cell types with data.
Only cell types with data for the given fields will be selected.
types with data for even one field (from available) will be selected.
"""
- if not hasattr(proxy, 'Entity'):
+ if not proxy.GetProperty("FieldsTreeInfo"):
return
+
+ proxy.UpdatePipeline()
+ if not hasattr(proxy, 'Entity'):
+ fields_info = proxy.GetProperty("FieldsTreeInfo")[::2]
+ arr_name_with_dis=[elt.split("/")[-1] for elt in fields_info]
+
+ proxy.AllArrays = []
+ proxy.UpdatePipeline()
+
+ fields = []
+ for name in on_gauss:
+ fields.append(name+_med_field_sep+'GAUSS')
+ for name in on_cells:
+ fields.append(name+_med_field_sep+'P0')
+ for name in on_points:
+ fields.append(name+_med_field_sep+'P1')
+
+ field_list = []
+ for name in fields:
+ if arr_name_with_dis.count(name) > 0:
+ index = arr_name_with_dis.index(name)
+ field_list.append(fields_info[index])
+
+ proxy.AllArrays = field_list
+ proxy.UpdatePipeline()
+ return len(field_list) != 0
+
+ # TODO: VTN. Looks like this code is out of date.
#all_cell_types = proxy.CellTypes.Available
all_cell_types = proxy.Entity.Available
proxy.Entity = cell_types_on
proxy.UpdatePipeline()
-
-def extract_groups_for_field(proxy, field_name, field_entity, force=False):
- """Exctract only groups which have the field.
-
- Arguments:
- proxy: the pipeline object, containig data
- field_name: the field name
- field_entity: the field entity
- force: if True - ExtractGroup object will be created in any case
-
- Returns:
- ExtractGroup object: if not all groups have the field or
- the force argument is true
- The initial proxy: if no groups had been filtered.
-
- """
- source = proxy
-
- # Remember the state
- initial_groups = list(proxy.Groups)
-
- # Get data information for the field entity
- entity_data_info = None
- field_data = proxy.GetFieldDataInformation()
-
- if field_name in field_data.keys():
- entity_data_info = field_data
- elif field_entity == EntityType.CELL:
- entity_data_info = proxy.GetCellDataInformation()
- elif field_entity == EntityType.NODE:
- entity_data_info = proxy.GetPointDataInformation()
-
- # Collect groups for extraction
- groups_to_extract = []
-
- for group in initial_groups:
- proxy.Groups = [group]
- proxy.UpdatePipeline()
- if field_name in entity_data_info.keys():
- groups_to_extract.append(group)
-
- # Restore state
- proxy.Groups = initial_groups
- proxy.UpdatePipeline()
-
- # Extract groups if necessary
- if force or (len(groups_to_extract) < len(initial_groups)):
- extract_group = pvs.ExtractGroup(proxy)
- extract_group.Groups = groups_to_extract
- extract_group.UpdatePipeline()
- source = extract_group
-
- return source
-
-
-def if_possible(proxy, field_name, entity, prs_type):
+def if_possible(proxy, field_name, entity, prs_type, extrGrps=None):
"""Check if the presentation creation is possible on the given field."""
+ proxy.UpdatePipeline()
result = True
if (prs_type == PrsTypeEnum.DEFORMEDSHAPE or
prs_type == PrsTypeEnum.DEFORMEDSHAPESCALARMAP or
result = (entity == EntityType.CELL or
field_name in proxy.QuadraturePointArrays.Available)
elif (prs_type == PrsTypeEnum.MESH):
- result = len(get_group_names(proxy, field_name, entity)) > 0
+ result = len(get_group_names(extrGrps)) > 0
return result
def get_group_short_name(full_group_name):
"""Return short name of the group by its full name."""
- aList = full_group_name.split('/')
- if len(aList) >= 4 :
- short_name = full_group_name.split('/')[3]
- return short_name
+ short_name = re.sub('^GRP_', '', full_group_name)
+ return short_name
-def get_mesh_names(proxy):
+def get_mesh_full_names(proxy):
"""Return all mesh names in the given proxy as a set."""
- groups = proxy.Groups.Available
- mesh_names = set([get_group_mesh_name(item) for item in groups])
-
- return mesh_names
+ proxy.UpdatePipeline()
+ fields = proxy.GetProperty("FieldsTreeInfo")[::2]
+ mesh_full_names = set([item for item in fields if get_field_mesh_name(item) == get_field_short_name(item)])
+ return mesh_full_names
-def get_group_names(proxy, mesh_name, entity, wo_nogroups=False):
- """Return full names of all groups of the given entity type
- from the mesh with the given name as a list.
+def get_group_names(extrGrps):
+ """Return full names of all groups of the given 'ExtractGroup' filter object.
"""
- groups = proxy.Groups.Available
-
- condition = lambda item: (get_group_mesh_name(item) == mesh_name and
- get_group_entity(item) == entity)
- group_names = [item for item in groups if condition(item)]
-
- if wo_nogroups:
- # Remove "No_Group" group
- not_no_group = lambda item: get_group_short_name(item) != "No_Group"
- group_names = filter(not_no_group, group_names)
-
+ group_names = filter(lambda x:x[:4]=="GRP_",list(extrGrps.GetProperty("GroupsFlagsInfo")[::2]))
return group_names
def get_time(proxy, timestamp_nb):
"""Get time value by timestamp number."""
+ proxy.UpdatePipeline()
# Check timestamp number
timestamps = []
elif (hasattr(proxy.Input, 'TimestepValues')):
timestamps = proxy.Input.TimestepValues.GetData()
- if ((timestamp_nb - 1) not in xrange(len(timestamps))):
+ length = len(timestamps)
+ if (timestamp_nb > 0 and (timestamp_nb - 1) not in xrange(length) ) or (timestamp_nb < 0 and -timestamp_nb > length):
raise ValueError("Timestamp number is out of range: " + str(timestamp_nb))
# Return time value
- return timestamps[timestamp_nb - 1]
-
+ if timestamp_nb > 0:
+ return timestamps[timestamp_nb - 1]
+ else:
+ return timestamps[timestamp_nb]
def create_prs(prs_type, proxy, field_entity, field_name, timestamp_nb):
"""Auxiliary function.
Set the presentation properties like visu.CreatePrsForResult() do.
"""
+ proxy.UpdatePipeline()
prs = None
if prs_type == PrsTypeEnum.SCALARMAP:
Scalar Map as representation object.
"""
+ proxy.UpdatePipeline()
# We don't need mesh parts with no data on them
if entity == EntityType.NODE:
select_cells_with_data(proxy, on_points=[field_name])
pvs.GetRenderView().ViewTime = time_value
pvs.UpdatePipeline(time_value, proxy)
- # Extract only groups with data for the field
- new_proxy = extract_groups_for_field(proxy, field_name, entity,
- force=True)
-
# Get Scalar Map representation object
- scalarmap = pvs.GetRepresentation(new_proxy)
+ scalarmap = pvs.GetRepresentation(proxy)
# Get lookup table
lookup_table = get_lookup_table(field_name, nb_components, vector_mode)
Cut Planes as representation object.
"""
+ proxy.UpdatePipeline()
+ if entity == EntityType.NODE:
+ select_cells_with_data(proxy, on_points=[field_name])
+ else:
+ select_cells_with_data(proxy, on_cells=[field_name])
+
# Check vector mode
nb_components = get_nb_components(proxy, entity, field_name)
check_vector_mode(vector_mode, nb_components)
(Cut Lines as representation object, list of 'PlotOverLine') otherwise
"""
+ proxy.UpdatePipeline()
+ if entity == EntityType.NODE:
+ select_cells_with_data(proxy, on_points=[field_name])
+ else:
+ select_cells_with_data(proxy, on_cells=[field_name])
+
# Check vector mode
nb_components = get_nb_components(proxy, entity, field_name)
check_vector_mode(vector_mode, nb_components)
Cut Segment as 3D representation object.
"""
+ proxy.UpdatePipeline()
+ if entity == EntityType.NODE:
+ select_cells_with_data(proxy, on_points=[field_name])
+ else:
+ select_cells_with_data(proxy, on_cells=[field_name])
+
# Check vector mode
nb_components = get_nb_components(proxy, entity, field_name)
check_vector_mode(vector_mode, nb_components)
Vectors as representation object.
"""
+ proxy.UpdatePipeline()
+ if entity == EntityType.NODE:
+ select_cells_with_data(proxy, on_points=[field_name])
+ else:
+ select_cells_with_data(proxy, on_cells=[field_name])
+
# Check vector mode
nb_components = get_nb_components(proxy, entity, field_name)
check_vector_mode(vector_mode, nb_components)
pvs.UpdatePipeline(time_value, proxy)
# Extract only groups with data for the field
- new_proxy = extract_groups_for_field(proxy, field_name, entity)
- source = new_proxy
+ source = proxy
# Cell centers
if is_data_on_cells(proxy, field_name):
glyph.SetScaleFactor = scale_factor
else:
def_scale = get_default_scale(PrsTypeEnum.DEFORMEDSHAPE,
- new_proxy, entity, field_name)
+ proxy, entity, field_name)
glyph.SetScaleFactor = def_scale
glyph.UpdatePipeline()
Defromed Shape as representation object.
"""
+ proxy.UpdatePipeline()
# We don't need mesh parts with no data on them
if entity == EntityType.NODE:
select_cells_with_data(proxy, on_points=[field_name])
pvs.GetRenderView().ViewTime = time_value
pvs.UpdatePipeline(time_value, proxy)
- # Extract only groups with data for the field
- new_proxy = extract_groups_for_field(proxy, field_name, entity)
-
# Do merge
- source = pvs.MergeBlocks(new_proxy)
+ source = pvs.MergeBlocks(proxy)
# Cell data to point data
if is_data_on_cells(proxy, field_name):
Defromed Shape And Scalar Map as representation object.
"""
+ proxy.UpdatePipeline()
# We don't need mesh parts with no data on them
on_points = []
on_cells = []
else:
on_cells.append(scalar_field_name)
+ nb_components = get_nb_components(proxy, entity, field_name)
+
+ # Select fields
select_cells_with_data(proxy, on_points, on_cells)
# Check vector mode
- nb_components = get_nb_components(proxy, entity, field_name)
check_vector_mode(vector_mode, nb_components)
# Get time value
scalar_field_entity = entity
scalar_field = field_name
- # Extract only groups with data for the field
- new_proxy = extract_groups_for_field(proxy, field_name, entity)
-
# Do merge
- source = pvs.MergeBlocks(new_proxy)
+ source = pvs.MergeBlocks(proxy)
# Cell data to point data
if is_data_on_cells(proxy, field_name):
warp_vector.ScaleFactor = scale_factor
else:
def_scale = get_default_scale(PrsTypeEnum.DEFORMEDSHAPE,
- new_proxy, entity, field_name)
+ proxy, entity, field_name)
warp_vector.ScaleFactor = def_scale
# Get Defromed Shape And Scalar Map representation object
Plot 3D as representation object.
"""
+ proxy.UpdatePipeline()
# We don't need mesh parts with no data on them
if entity == EntityType.NODE:
select_cells_with_data(proxy, on_points=[field_name])
pvs.GetRenderView().ViewTime = time_value
pvs.UpdatePipeline(time_value, proxy)
- # Extract only groups with data for the field
- new_proxy = extract_groups_for_field(proxy, field_name, entity)
-
# Do merge
- merge_blocks = pvs.MergeBlocks(new_proxy)
+ merge_blocks = pvs.MergeBlocks(proxy)
merge_blocks.UpdatePipeline()
poly_data = None
Iso Surfaces as representation object.
"""
+ proxy.UpdatePipeline()
# We don't need mesh parts with no data on them
if entity == EntityType.NODE:
select_cells_with_data(proxy, on_points=[field_name])
pvs.GetRenderView().ViewTime = time_value
pvs.UpdatePipeline(time_value, proxy)
- # Extract only groups with data for the field
- new_proxy = extract_groups_for_field(proxy, field_name, entity)
-
# Do merge
- source = pvs.MergeBlocks(new_proxy)
+ source = pvs.MergeBlocks(proxy)
# Transform cell data into point data if necessary
if is_data_on_cells(proxy, field_name):
Gauss Points as representation object.
"""
+ proxy.UpdatePipeline()
# We don't need mesh parts with no data on them
- if entity == EntityType.NODE:
- select_cells_with_data(proxy, on_points=[field_name])
- else:
- select_cells_with_data(proxy, on_cells=[field_name])
+ on_gauss = select_cells_with_data(proxy, on_gauss=[field_name])
+ if not on_gauss:
+ if entity == EntityType.NODE:
+ select_cells_with_data(proxy, on_points=[field_name])
+ else:
+ select_cells_with_data(proxy, on_cells=[field_name])
# Check vector mode
nb_components = get_nb_components(proxy, entity, field_name)
pvs.GetRenderView().ViewTime = time_value
proxy.UpdatePipeline(time=time_value)
- # Extract only groups with data for the field
- source = extract_groups_for_field(proxy, field_name, entity)
-
- # Quadrature point arrays
- qp_arrays = proxy.QuadraturePointArrays.Available
+ source = proxy
# If no quadrature point array is passed, use cell centers
- if field_name in qp_arrays:
+ if on_gauss:
generate_qp = pvs.GenerateQuadraturePoints(source)
- generate_qp.SelectSourceArray = ['CELLS', 'ELGA_Offset']
+ generate_qp.QuadratureSchemeDef = ['CELLS', 'ELGA@0']
source = generate_qp
else:
# Cell centers
Gauss Points as representation object.
"""
+ proxy.UpdatePipeline()
+ select_cells_with_data(proxy, on_gauss=[field_name])
+
+ nb_components = get_nb_components(proxy, entity, field_name)
+
# Get time value
time_value = get_time(proxy, timestamp_nb)
gausspnt = pvs.GetRepresentation(source)
# Get lookup table
- entity_data_info = None
- point_data_info = source.GetPointDataInformation()
- if field_name in point_data_info.keys():
- entity_data_info = point_data_info
- else:
- entity_data_info = source.GetCellDataInformation()
- nb_components = entity_data_info[field_name].GetNumberOfComponents()
-
lookup_table = get_lookup_table(field_name, nb_components, vector_mode)
# Set field range if necessary
Stream Lines as representation object.
"""
+ proxy.UpdatePipeline()
# We don't need mesh parts with no data on them
if entity == EntityType.NODE:
select_cells_with_data(proxy, on_points=[field_name])
pvs.GetRenderView().ViewTime = time_value
pvs.UpdatePipeline(time_value, proxy)
- # Extract only groups with data for the field
- new_proxy = extract_groups_for_field(proxy, field_name, entity)
-
# Do merge
- source = pvs.MergeBlocks(new_proxy)
+ source = pvs.MergeBlocks(proxy)
# Cell data to point data
if is_data_on_cells(proxy, field_name):
lookup_table = get_lookup_table(field_name, nb_components, vector_mode)
# Set field range if necessary
- data_range = get_data_range(new_proxy, entity,
+ data_range = get_data_range(proxy, entity,
field_name, vector_mode)
lookup_table.LockScalarRange = 1
lookup_table.RGBPoints = [data_range[0], 0, 0, 1, data_range[1], 1, 0, 0]
Arguments:
proxy -- the pipeline object, containig data
- mesh_name -- the mesh name
- entity -- the entity type
+ mesh_name -- the full or short name of mesh field
Returns:
Submesh as representation object of the given source.
"""
- # Select all cell types
- select_all_cells(proxy)
-
- # Get subset of groups on the given entity
- subset = get_group_names(proxy, mesh_name, entity)
-
- # Select only groups of the given entity type
- proxy.Groups = subset
+ proxy.UpdatePipeline()
+ mesh_full_name = None
+ aList = mesh_name.split('/')
+ if len(aList) >= 2:
+ mesh_full_name = mesh_name
+ else:
+ mesh_full_name = find_mesh_full_name(proxy, mesh_name)
+ if not mesh_full_name:
+ raise RuntimeError, "The given mesh name was not found"
+ # Select only the given mesh
+ proxy.AllArrays = []
+ proxy.UpdatePipeline()
+ proxy.AllArrays = [mesh_full_name]
proxy.UpdatePipeline()
# Get representation object if the submesh is not empty
return prs
-def MeshOnGroup(proxy, group_name):
+def MeshOnGroup(proxy, extrGroups, group_name):
"""Creates submesh on the group.
Arguments:
proxy -- the pipeline object, containig data
group_name -- the full group name
+ extrGroups -- all extracted groups object
Returns:
Representation object of the given source with single group
selected.
"""
- # Select all cell types
- select_all_cells(proxy)
-
- # Select only the group with the given name
- one_group = [group_name]
- proxy.Groups = one_group
proxy.UpdatePipeline()
+ # Deselect all groups
+ extrGroups.AllGroups = []
+ extrGroups.UpdatePipelineInformation()
+ # Select only the group with the given name
+ extrGroups.AllGroups = [group_name]
+ extrGroups.UpdatePipelineInformation()
# Get representation object if the submesh is not empty
prs = None
# Check if the group was set
- if proxy.Groups.GetData() == one_group:
- group_entity = get_group_entity(group_name)
+ if len(extrGroups.AllGroups) == 1 and \
+ extrGroups.AllGroups[0] == group_name:
# Check if the submesh is not empty
- nb_items = 0
- if group_entity == EntityType.NODE:
- nb_items = proxy.GetDataInformation().GetNumberOfPoints()
- elif group_entity == EntityType.CELL:
- nb_items = proxy.GetDataInformation().GetNumberOfCells()
-
- if nb_items:
- prs = pvs.GetRepresentation(proxy)
+ nb_points = proxy.GetDataInformation().GetNumberOfPoints()
+ nb_cells = proxy.GetDataInformation().GetNumberOfCells()
+
+ if nb_points or nb_cells:
+# prs = pvs.GetRepresentation(proxy)
+ prs = pvs.Show()
prs.ColorArrayName = ''
+ display_only(prs)
return prs
print "Import " + file_name.split(os.sep)[-1] + "..."
try:
- paravis_instance.ImportFile(file_name)
- proxy = pvs.GetActiveSource()
+ proxy = pvs.MEDReader(FileName=file_name)
if proxy is None:
print "FAILED"
else:
CreatePrsForProxy(proxy, view, prs_types,
picture_dir, picture_ext)
-
def CreatePrsForProxy(proxy, view, prs_types, picture_dir, picture_ext):
"""Build presentations of the given types for all fields of the proxy.
picture_ext: graphics files extension (determines file type)
"""
+ proxy.UpdatePipeline()
# List of the field names
- field_names = list(proxy.PointArrays.GetData())
- nb_on_nodes = len(field_names)
- field_names.extend(proxy.CellArrays.GetData())
+ fields_info = proxy.GetProperty("FieldsTreeInfo")[::2]
# Add path separator to the end of picture path if necessery
if not picture_dir.endswith(os.sep):
# Mesh Presentation
if PrsTypeEnum.MESH in prs_types:
- # Create Mesh presentation. Build all possible submeshes.
-
- # Remember the current state
- groups = list(proxy.Groups)
-
# Iterate on meshes
- mesh_names = get_mesh_names(proxy)
+ mesh_names = get_mesh_full_names(proxy)
for mesh_name in mesh_names:
- # Build mesh on nodes and cells
- for entity in (EntityType.NODE, EntityType.CELL):
- entity_name = EntityType.get_name(entity)
- if if_possible(proxy, mesh_name, entity, PrsTypeEnum.MESH):
- print "Creating submesh on " + entity_name + " for '" + mesh_name + "' mesh... "
- prs = MeshOnEntity(proxy, mesh_name, entity)
- if prs is None:
- print "FAILED"
- continue
- else:
- print "OK"
- # Construct image file name
- pic_name = picture_dir + mesh_name + "_" + entity_name + "." + picture_ext
-
- # Show and dump the presentation into a graphics file
- process_prs_for_test(prs, view, pic_name, False)
-
- # Build submesh on all groups of the mesh
- mesh_groups = get_group_names(proxy, mesh_name,
- entity, wo_nogroups=True)
- for group in mesh_groups:
- print "Creating submesh on group " + group + "... "
- prs = MeshOnGroup(proxy, group)
+ # Build mesh field presentation
+ print "Creating submesh for '" + get_field_short_name(mesh_name) + "' mesh... "
+ prs = MeshOnEntity(proxy, mesh_name, None)
+ if prs is None:
+ print "FAILED"
+ continue
+ else:
+ print "OK"
+ # Construct image file name
+ pic_name = picture_dir + get_field_short_name(mesh_name) + "." + picture_ext
+
+ # Show and dump the presentation into a graphics file
+ process_prs_for_test(prs, view, pic_name, False)
+
+ # Create Mesh presentation. Build all groups.
+ extGrp = pvs.ExtractGroup()
+ extGrp.UpdatePipelineInformation()
+ if if_possible(proxy, None, None, PrsTypeEnum.MESH, extGrp):
+ for group in get_group_names(extGrp):
+ print "Creating submesh on group " + get_group_short_name(group) + "... "
+ prs = MeshOnGroup(proxy, extGrp, group)
if prs is None:
print "FAILED"
continue
else:
print "OK"
# Construct image file name
- pic_name = picture_dir + group.replace('/', '_') + "." + picture_ext
-
+ pic_name = picture_dir + get_group_short_name(group) + "." + picture_ext
+
# Show and dump the presentation into a graphics file
process_prs_for_test(prs, view, pic_name, False)
- # Restore the state
- proxy.Groups = groups
- proxy.UpdatePipeline()
-
# Presentations on fields
- for (i, field_name) in enumerate(field_names):
+ for field in fields_info:
+ field_name = get_field_short_name(field)
+ # Ignore mesh presentation
+ if field_name == get_field_mesh_name(field):
+ continue
+ field_entity = get_field_entity(field)
+ # Clear fields selection state
+ proxy.AllArrays = []
+ proxy.UpdatePipeline()
# Select only the current field:
# necessary for getting the right timestamps
- cell_arrays = proxy.CellArrays.GetData()
- point_arrays = proxy.PointArrays.GetData()
- field_entity = None
- if (i >= nb_on_nodes):
- field_entity = EntityType.CELL
- proxy.PointArrays.DeselectAll()
- proxy.CellArrays = [field_name]
- else:
- field_entity = EntityType.NODE
- proxy.CellArrays.DeselectAll()
- proxy.PointArrays = [field_name]
+ proxy.AllArrays = field
+ proxy.UpdatePipeline()
# Get timestamps
- proxy.UpdatePipelineInformation()
+ entity_data_info = proxy.GetCellDataInformation()
timestamps = proxy.TimestepValues.GetData()
- # Restore fields selection state
- proxy.CellArrays = cell_arrays
- proxy.PointArrays = point_arrays
- proxy.UpdatePipelineInformation()
-
for prs_type in prs_types:
# Ignore mesh presentation
if prs_type == PrsTypeEnum.MESH:
for timestamp_nb in xrange(1, len(timestamps) + 1):
time = timestamps[timestamp_nb - 1]
+ if (time == 0.0):
+ scalar_range = get_data_range(proxy, field_entity,
+ field_name, cut_off=True)
+ # exclude time stamps with null lenght of scalar range
+ if (scalar_range[0] == scalar_range[1]):
+ continue
print "Creating " + prs_name + " on " + field_name + ", time = " + str(time) + "... "
prs = create_prs(prs_type, proxy,
field_entity, field_name, timestamp_nb)
# Show and dump the presentation into a graphics file
process_prs_for_test(prs, view, pic_name)
+ return
