def ptCheck(a):
#determines if the submitted point is a point object in space or array value
#if object is
#designation implemented to determine if it is not a point object
designation = 0
try:
if rs.ObjectType(a) == 1: #collect point object value
b = rs.coerce3dpoint(a)
elif rs.ObjectType(a)!= 1: #item is not a point
designation = 1
except:
#item already an array object for use
b = a
#exporting value
if designation == 0:
return b
#not a point object
else:
rs.UnselectAllObjects()
print "Collecting point value but is another object type"
rs.SelectObject(a)
exit()
def get_breps_on_layer(layername):
buildings = rs.ObjectsByLayer(layername)
breps = []
for b in buildings:
if rs.ObjectType(b) == 16 or rs.ObjectType(b) == 1073741824:
breps.append(b)
return breps
def brep_or_crv(guids):
#probably want to add extrusions, type 1073741824, as if they are breps
c = [x for x in guids if rs.ObjectType(x) == 4]
b = [
x for x in guids
if (rs.ObjectType(x) == 16 or rs.ObjectType(x) == 1073741824)
]
return c, b
def _is_element(cls, object_guid):
"""Receives:
object_guid guid. The guid of an object
Returns:
value boolean. True, if the object is a line or a
textdot. False, otherwise
## Identify hatch annotation ##
"""
curve_type = 4
textdot_type = 8192
value = (rs.ObjectType(object_guid) == curve_type
or rs.ObjectType(object_guid) == textdot_type)
return value
def _make_element_lists(self, guids):
"""Receives a list of guids:
[guid, ...]
Returns lists of coords, lines, and textdots:
( [(num, num, num), ...],
[((num, num, num), (num, num, num)), ...],
[((num, num, num), str), ...]
)
"""
coords, lines, lpoints = [], [], []
line_type = 4
textdot_type = 8192
# if not type(guids) == list:
# guids = []
for guid in guids:
guid_type = rs.ObjectType(guid)
if guid_type == line_type:
line_coords = self._get_line_coords(guid)
lines.append(line_coords)
for coord in line_coords:
coords.append(coord)
elif guid_type == textdot_type:
coord = self._get_coord(guid)
label = self._get_label(guid)
coords.append(coord)
lpoint = (coord, label)
lpoints.append(lpoint)
element_lists = (coords, lines, lpoints)
return element_lists
def checkCurvePosition(objs):
layers = []
selection = []
for obj in objs:
if rs.IsCurve(obj):
if not isCurveOnCPlane(obj):
# print "Curve {} not on Cplane".format(obj)
selection.append(obj)
appendLayer(layers, obj)
elif rs.IsPoint(obj):
if not isPointOnCplane(obj):
# print "Curve {} not on Cplane".format(obj)
rs.SelectObject(obj)
appendLayer(layers, obj)
else:
print "object {} is not a curve or point. {}".format(
obj, rs.ObjectType(obj))
if len(selection) > 0:
rs.SelectObjects(selection)
# when an object is found on > 0 layers, prompt for proceed
if len(layers) > 0:
msg = "there were non-planar or elevated curves found on layers:\n"
for layer in layers:
msg = msg + "- " + layer + " \n"
msg = msg + '\n Do you want to proceed?'
if rs.MessageBox(msg, 1) != 1:
return False
# else
return True
def main():
msg = "Select polysurface objects to export data"
objs = rs.GetObjects(msg, 16, preselect=True)
if not objs: return
extrusions = []
rs.UnselectAllObjects()
for obj in objs:
if rs.ObjectType(obj) == 1073741824:
extrusions.append(obj)
if len(extrusions) > 0:
rs.SelectObjects(extrusions)
resp = rs.MessageBox(
"Selected objects will be converted to polysurfaces.\n Press OK to continue, Cancel to abort",
1)
if resp == 1:
rs.Command("ConvertExtrusion _Enter")
rs.UnselectAllObjects()
else:
return
keys = [i.name for i in ATTRS if i.isEditable]
makeDetail(keys, objs)
details = []
spec = dict([])
ids = dict([])
for obj in objs:
detail = Detail(obj)
details.append(detail)
spec = Specification([], details)
dialog = SpecDialog()
dialog.setData(spec)
rs.UnselectAllObjects()
Rhino.UI.EtoExtensions.ShowSemiModal(dialog, Rhino.RhinoDoc.ActiveDoc,
Rhino.UI.RhinoEtoApp.MainWindow)
def collect_data_density(self):
"""Collect the existing density mesh in the density layer.
Parameters
----------
Returns
-------
"""
objects = rs.ObjectsByLayer('density')
if objects is not None:
if len(objects) == 1:
if rs.ObjectType(objects[0]) == 32:
vertices, faces = RhinoGeometry.from_guid(
objects[0]).get_vertices_and_faces()
self.density_mesh = Mesh.from_vertices_and_faces(
vertices, faces)
else:
print 'the object in the density layer is not a mesh'
elif len(objects) > 1:
print 'too many objects in the density layer'
def main():
object_id = rs.GetObject("Select an object to sort")
if object_id is None: return
object_type = rs.ObjectType(object_id)
if object_type is None: return
layer_name = "Unsorted"
if object_type == 1 or object_type == 2:
layer_name = "Points"
elif object_type == 4:
layer_name = "Curves"
elif object_type == 8 or object_type == 16:
layer_name = "PolySurfaces"
elif object_type == 32:
layer_name = "Meshes"
elif object_type == 256:
layer_name = "Lights"
elif object_type == 512 or object_type == 8192:
layer_name = "Annotations"
elif object_type == 2048 or object_type == 4096:
layer_name = "Blocks"
if not rs.IsLayer(layer_name):
rs.AddLayer(layer_name)
rs.ObjectLayer(object_id, layer_name)
def _get_line_specs_and_lpoint_specs(self, guids):
"""Receives a list of guids:
[guid, ...]
Returns a list of coord-coord pairs and a list of coord-label pairs:
( [((num, num, num), (num, num, num)), ...],
[((num, num, num), str), ...]
)
"""
line_specs = []
lpoint_specs = []
line_type = 4 ## limit to straight lines
annotation_type = 512
textdot_type = 8192
for guid in guids:
guid_type = rs.ObjectType(guid)
if guid_type == line_type:
line_spec = self._get_line_spec(guid)
line_specs.append(line_spec)
elif guid_type == annotation_type:
point = rs.TextObjectPoint(guid)
x, y, z = point[0], point[1], point[2]
coord = (x, y, z)
label = rs.TextObjectText(guid)
lpoint_spec = (coord, label)
lpoint_specs.append(lpoint_spec)
elif guid_type == textdot_type:
coord, label = self._get_lpoint_spec(guid)
lpoint_spec = (coord, label)
lpoint_specs.append(lpoint_spec)
return (line_specs, lpoint_specs)
def from_guid(guid):
"""Create a ``RhinoGeometry`` instance of the correct type based on a given guid.
Parameters
----------
guid : str or System.Guid
The *guid* of the Rhino object.
Returns
-------
RhinoPoint
If the type of the Rhino object is ``rs.filter.point``.
RhinoCurve
If the type of the Rhino object is ``rs.filter.curve``.
RhinoMesh
If the type of the Rhino object is ``rs.filter.mesh``.
RhinoSurface
If the type of the Rhino object is ``rs.filter.surface``.
Examples
--------
.. code-block:: python
import compas
import compas_rhino
from compas.datastructures import Mesh
from compas_rhino.geometry import RhinoGeometry
mesh = Mesh.from_json(...)
mesh.update_default_vertex_attributes(constraint=None)
# interesting stuff happens here
for key, attr in mesh.vertices(True):
guid = attr['constraint']
if guid:
constraint = RhinoGeometry.from_guid(guid)
xyz = constraint.closest_point(mesh.get_vertex_attributes(key, 'xyz'))
mesh.set_vertex_attributes(key, 'xyz', xyz)
# more interesting stuff happens here
"""
otype = rs.ObjectType(guid)
if otype == rs.filter.point:
return RhinoPoint(guid)
if otype == rs.filter.curve:
return RhinoCurve(guid)
if otype == rs.filter.mesh:
return RhinoMesh(guid)
if otype == rs.filter.surface:
return RhinoSurface(guid)
def layer_objects_types(layer):
object_types = []
layer_objects = rs.ObjectsByLayer(layer)
for object in layer_objects:
object_type = rs.ObjectType(object)
object_types.append(object_type)
object_types = list(set(object_types))
return object_types
def print_info(guid):
curve = 4
block = 4096
object_type = rs.ObjectType(guid)
if object_type == curve:
string = get_curve_info(guid)
elif object_type == block:
string = get_block_info(guid)
print(string)
def find_constraint(name):
rail = None
if name:
guids = compas_rhino.get_objects(name=name)
if len(guids) == 1:
otype = rs.ObjectType(guids[0])
if otype == rs.filter.curve:
rail = find_object(guids[0])
return rail
def ConvertPolysurfaceToSurface(self, polysurface):
"""
converts polysurfaces to surface and returns False and surface
if the argument is a polysurface. Returns True and the argument
type if it is not a polysurface. Polysurfaces are made by SplitBrep
We can't use normal functions on them. So, we have to turn them
into seperate surfaces with ExplodePolysurfaces. SplitBrep function is
used in RemoveSurfacesOutsideOfBox().
An auxilliary method to trim extruding fractures.
Parameters
----------
ploysurface: GUID
guid of a Rhino surface
"""
# Confirm this is a polysurface
if rs.ObjectType(polysurface) != 16:
return [False, [polysurface]] # false, not a ploysurface
# unjoins the polysurface and get identifiers of he separate surfaces
surfaces = rs.ExplodePolysurfaces(polysurface)
# Sometimes, the function ExplodePolysurfaces makes polysurfaces.
# If it did, call this function again on those surfaces!
non_poly_surfaces = []
for surf in surfaces:
# check if polysurface was created instead of surface
if rs.ObjectType(surf) == 16:
# convert the object to surface using its GUID once more,
# incase polysurface was created
# NB: RECURSIVE
additional_split_surfaces = ConvertPolysurfaceToSurface(
surf)[1]
for new_surf in additional_split_surfaces:
non_poly_surfaces.append(new_surf)
# self.new_fractures.append(new_surf)
else:
non_poly_surfaces.append(surf)
# self.new_fractures.append(surf)
# Delete the old polysurface
rs.DeleteObject(polysurface)
return [True, non_poly_surfaces]
def get_annotation():
prompt_for_annotation = 'Select objects'
guids = rs.GetObjects(prompt_for_annotation)
print('number of objects: %i' % len(guids))
for guid in guids:
print('object type: %i' % rs.ObjectType(guid))
if rs.IsText(guid):
print('text: %s' % rs.TextObjectText(guid))
elif rs.IsTextDot(guid):
print('text dot: %s' % rs.TextDotText(guid))
else:
print('guid is not text')
def ptCheck(self, a):
designation = 0
try:
if rs.ObjectType(a) == 1: #collect point object value
b = rs.coerce3dpoint(a)
elif rs.ObjectType(a) != 1: #item is not a point
designation = 1
except:
#item already an array object for use
b = a
#exporting value
if designation == 0:
return b
#not a point object
else:
rs.UnselectAllObjects()
print "Collecting point value but is another object type"
rs.SelectObject(a)
exit()
def callback(k, args):
mesh, constraints = args
for vkey, constraint in constraints.items():
if rs.ObjectType(constraint) == 1:
x, y, z = RhinoPoint.from_guid(constraint).xyz
elif rs.ObjectType(constraint) == 4:
x, y, z = RhinoCurve.from_guid(constraint).closest_point(
mesh.vertex_coordinates(vkey))
elif rs.ObjectType(constraint) == 8:
x, y, z = RhinoSurface.from_guid(constraint).closest_point(
mesh.vertex_coordinates(vkey))
elif rs.ObjectType(constraint) == 32:
x, y, z = RhinoMesh.from_guid(constraint).closest_point(
mesh.vertex_coordinates(vkey))
else:
continue
mesh.vertex[vkey]['x'] = x
mesh.vertex[vkey]['y'] = y
mesh.vertex[vkey]['z'] = z
def get_allowed_geometry(self):
"""Returns geometry that is allowed in the current layer (point for nodes, line for beams etc.)"""
objects = self.get_geometry()
allowed_objects = []
for obj in objects:
if rs.ObjectType(obj) == gs.allowed_object_types[self.path[1]]:
allowed_objects.append(obj)
return allowed_objects
def _object_is_in_box(cls, object_guid, box_position, box_size):
"""Receives:
object_guid guid. The guid of an object
box_position Point3d. The position of the frame instance
box_size (num, num, num). The size of the frame block
"""
curve_type = 4
textdot_type = 8192
if rs.ObjectType(object_guid) == curve_type:
tail = rs.CurveStartPoint(object_guid)
head = rs.CurveEndPoint(object_guid)
points = [tail, head]
elif rs.ObjectType(object_guid) == textdot_type:
point = rs.TextDotPoint(object_guid)
points = [point]
else:
pass
value = True
for point in points:
if not cls._point_is_in_box(point, box_position, box_size):
value = False
break
return value
def get_object_types(guids):
"""Get the type of multiple objects.
Parameters
----------
guids : list[System.Guid]
Object identifiers.
Returns
-------
list[str]
"""
return [rs.ObjectType(guid) for guid in guids]
def input_objects():
"""Get input objects.
Parameters
----------
Returns
-------
surfaces : list
The guids of the surfaces
points : list
The guids of the points
curves : list
The guids of the curves
"""
input_objects = rs.ObjectsByLayer('input')
surfaces = [obj for obj in input_objects if rs.ObjectType(obj) == 8]
points = [obj for obj in input_objects if rs.ObjectType(obj) == 1]
curves = [obj for obj in input_objects if rs.ObjectType(obj) == 4]
return surfaces, points, curves
def main():
objs = rs.GetObjects("select block", 0, True, True)
print len(objs)
for obj in objs:
if rs.ObjectType(obj) == 4096:
name = rs.BlockInstanceName(obj)
print rs.BlockDescription(name)
children = rs.ExplodeBlockInstance(obj)
text = rs.AddText(name, [0, 0, 0],
height=1.0,
font="Arial",
font_style=0,
justification=None)
print type(children)
children.Append(text)
print children[0]
def from_guid(guid):
"""Create a ``RhinoGeometry`` instance of the correct type based on a given guid.
Parameters
----------
guid : str or System.Guid
The *guid* of the Rhino object.
Returns
-------
RhinoPoint
If the type of the Rhino object is ``rs.filter.point``.
RhinoCurve
If the type of the Rhino object is ``rs.filter.curve``.
RhinoMesh
If the type of the Rhino object is ``rs.filter.mesh``.
RhinoSurface
If the type of the Rhino object is ``rs.filter.surface``.
Examples
--------
>>>
"""
from compas_rhino.geometry import RhinoPoint
from compas_rhino.geometry import RhinoCurve
from compas_rhino.geometry import RhinoMesh
from compas_rhino.geometry import RhinoSurface
otype = rs.ObjectType(guid)
if otype == rs.filter.point:
return RhinoPoint(guid)
if otype == rs.filter.curve:
return RhinoCurve(guid)
if otype == rs.filter.mesh:
return RhinoMesh(guid)
if otype == rs.filter.surface:
return RhinoSurface(guid)
def _get_line_specs_and_lpoint_specs(self, guids):
"""Receives a list of line or textdot guids:
[guid, ...]
Returns a list of coord-coord pairs and a list of coord-label pairs:
( [((num, num, num), (num, num, num)), ...],
[((num, num, num), str), ...]
)
"""
line_specs = []
lpoint_specs = []
line_type = 4
textdot_type = 8192
for guid in guids:
guid_type = rs.ObjectType(guid)
if guid_type == line_type:
line_spec = self._get_line_spec(guid)
line_specs.append(line_spec)
elif guid_type == textdot_type:
coord, label = self._get_lpoint_spec(guid)
lpoint_spec = (coord, label)
lpoint_specs.append(lpoint_spec)
return (line_specs, lpoint_specs)
def classify_guids(cls, guids): ## 05-28 09:06
"""Receives:
guids [guid, ...]. A list of guids
Classifies the guids by type. Returns:
(line_guids, lpoint_guids, text_guids, frame_guid)
line_guids: [line_guid, ...]
lpoint_guids: [lpoint_guid, ...]
text_guids: [text_guid, ...]
frame_guid
"""
line_guids, lpoint_guids, text_guids = [], [], []
line_type, lpoint_type, text_type = 4, 8192, 512
for guid in guids:
guid_type = rs.ObjectType(guid)
if guid_type == line_type:
line_guids.append(guid)
elif guid_type == lpoint_type:
lpoint_guids.append(guid)
elif guid_type == text_type:
text_guids.append(guid)
else:
pass
return (line_guids, lpoint_guids, text_guids, frame_guid)
def processObject(object, parentInstances):
global g_instances
global g_instancesByName
global g_parts
global g_materials
name = rs.ObjectName(object)
if not name:
name = "Unnamed"
type = rs.ObjectType(object)
layer = rs.ObjectLayer(object)
if type == rs.filter.instance:
type = rs.BlockInstanceName(object)
xform = rs.BlockInstanceXform(object)
# Seems like transforms are in global frame already
# --> Probably due to exploding the block hierarchies...
#for parent in reversed(parentInstances[1:]) :
# xform = parent["xform"] * xform
subObjects = rs.ExplodeBlockInstance(object)
fullName = name
if len(parentInstances) > 1:
for parent in parentInstances[1:]:
fullName = parent["name"] + "." + fullName
originalFullName = fullName
appendixCtr = 1
while fullName in g_instancesByName:
fullName = format("%s+%d" % (originalFullName, appendixCtr))
appendixCtr += 1
if fullName != originalFullName:
print("WARNING: Renamed %s => %s" % (originalFullName, fullName))
instance = \
{
"name" : name,
"fullName" : fullName,
"type" : type,
"xform" : xform,
"parents" : list(parentInstances),
"parts" : [],
"touched" : False,
}
g_instances.append(instance)
g_instancesByName[fullName] = instance
for subObject in subObjects:
processObject(subObject, parentInstances + [instance])
return
skipReason = None
if rs.LayerLocked(layer):
skipReason = "layer locked"
elif not rs.LayerVisible(layer):
skipReason = "layer hidden"
elif type != rs.filter.polysurface and type != rs.filter.surface:
skipReason = "bad type - " + typeStr[type]
if skipReason:
# make sure we can delete object by moving to current layer
rs.ObjectLayer(object, rs.CurrentLayer())
print("Skipping %s (%s)" % (str(object), skipReason))
else:
brep = rs.coercebrep(object)
meshes = rc.Geometry.Mesh.CreateFromBrep(brep, g_meshParams)
joinedMesh = rc.Geometry.Mesh()
for mesh in meshes:
joinedMesh.Append(mesh)
joinedMesh.Reduce(0, False, 10, False)
if not joinedMesh.Faces.ConvertQuadsToTriangles():
print("WARNING: Failed to convert quads to tris for %s" %
(str(object)))
if not joinedMesh.Compact():
print("WARNING: Failed to compact %s" % (str(object)))
materialSrc = rs.ObjectMaterialSource(object)
if materialSrc == 0:
materialIdx = rs.LayerMaterialIndex(rs.ObjectLayer(object))
else:
materialIdx = rs.ObjectMaterialIndex(object)
material = rs.MaterialName(materialIdx)
if not material:
material = "None"
g_materials[material] = materialIdx
joinedMeshGuid = sc.doc.Objects.AddMesh(joinedMesh)
rs.ObjectName(joinedMeshGuid, name)
rs.ObjectMaterialSource(joinedMeshGuid, 1)
rs.ObjectMaterialIndex(joinedMeshGuid, materialIdx)
part = \
{
"name" : name,
"mesh" : joinedMesh,
"instance" : parentInstances[-1],
"material" : material,
}
parentInstances[-1]["parts"].append(part)
if not parentInstances[-1]["touched"]:
for parentInstance in parentInstances:
parentInstance["touched"] = True
g_parts.append(part)
rs.DeleteObject(object)
def main():
global g_instances
global g_parts
global g_indent
global g_materials
#print(sys.version_info) # (2, 7, 0, 'beta', 0)
dlg = rc.UI.SaveFileDialog()
dlg.DefaultExt = "model"
dlg.Filter = "RocketScience 3D Model (*.model)"
dlg.InitialDirectory = os.path.dirname(sc.doc.Path)
if not dlg.ShowSaveDialog(): return None
selectedObjects = rs.SelectedObjects()
objects = []
origin = [0, 0, 0]
for object in selectedObjects:
name = rs.ObjectName(object)
type = rs.ObjectType(object)
if type == rs.filter.point:
if name.startswith("Origin"):
origin = rs.PointCoordinates(object)
else:
objects.append(object)
print("Processing " + str(len(objects)) + " object(s)")
print("Origin is [%.2f,%.2f,%.2f]" % (origin[0], origin[1], origin[2]))
rootInstance = \
{
"name" : "*",
"fullName" : "*",
"type" : "*",
"xform" : None,
"parents" : [],
"parts" : [],
"touched" : False,
}
g_instances.append(rootInstance)
objectsCopied = rs.CopyObjects(objects, rs.VectorScale(origin, -1))
for object in objectsCopied:
processObject(object, [rootInstance])
output = open(dlg.FileName, "w")
#output.write("# i <instance-type> <instance-name> "
# "<parent-instance-name>\n")
#output.write("# x <x-axis-x> <y-axis-x> <z-axis-x> <translation-x>\n")
#output.write("# x <x-axis-y> <y-axis-y> <z-axis-y> <translation-y>\n")
#output.write("# x <x-axis-z> <y-axis-z> <z-axis-z> <translation-z>\n")
#output.write("# m <material-name> <ambient> <diffuse> <emission>\n")
#output.write("# p <part-name> <instance-name> <material-name> "
# "<vertices> <triangles>\n")
#output.write("# v <pos-x> <pos-y> <pox-z> <norm-x> <norm-y> <norm-z>\n")
#output.write("# t <vertex-1> <vertex-2> <vertex-3>\n")
#output.write("\n")
g_instances.sort(key=instanceSortKey)
for instance in g_instances:
parentCount = len(instance["parents"])
indent = g_indent * (parentCount - 1)
parentName = "*"
if instance["parents"]:
parentName = instance["parents"][-1]["name"]
line = format(
"i%s %s %s %s" %
(indent, instance["type"], instance["fullName"], parentName))
print(line)
output.write(line + "\n")
if parentCount < 1:
xform = rc.Geometry.Transform(1.0)
else:
xform = instance["xform"]
indent += " "
output.write("x " + indent + formatHexFloats(
[xform.M00, xform.M01, xform.M02, xform.M03], True) + "\n")
output.write("x " + indent + formatHexFloats(
[xform.M10, xform.M11, xform.M12, xform.M13], True) + "\n")
output.write("x " + indent + formatHexFloats(
[xform.M20, xform.M21, xform.M22, xform.M23], True) + "\n")
for materialName, materialIdx in g_materials.iteritems():
material = sc.doc.Materials[materialIdx]
ambient = material.AmbientColor
diffuse = material.DiffuseColor
emission = material.EmissionColor
line = format(
"m %s %s" %
(materialName, formatColors([ambient, diffuse, emission])))
print(line)
output.write(line + "\n")
g_parts.sort(key=partSortKey)
for part in g_parts:
mesh = part["mesh"]
line = format(
"p %s %s %s %d %d" %
(part["name"], part["instance"]["fullName"], part["material"],
mesh.Vertices.Count, mesh.Faces.Count))
print(line)
output.write(line + "\n")
indent = " "
for vertexIdx in range(0, mesh.Vertices.Count):
vertex = mesh.Vertices[vertexIdx]
normal = mesh.Normals[vertexIdx]
output.write("v " + indent + formatHexFloats(
[vertex.X, vertex.Y, vertex.Z, normal.X, normal.Y, normal.Z]) +
"\n")
line = lineInit = "t" + indent
for faceIdx in range(0, mesh.Faces.Count):
face = mesh.Faces[faceIdx]
if not face.IsTriangle:
print("WARNING: Non-triangle face %d" % (faceIdx))
part = format(" %d %d %d" % (face.A, face.B, face.C))
if len(line) + len(part) > 100:
output.write(line + "\n")
line = lineInit
line += part
if len(line) > 0:
output.write(line + "\n")
output.close()
print "rotation", rotations
for ix in range(counts[0]):
newobj = rs.CopyObject(obj, [spacings[0] * ix, 0, 0])
bbox = rs.BoundingBox(newobj)
if bbox:
centroid = rs.PointSubtract(bbox[0], bbox[6])
print bbox[6], bbox[0]
print centroid
rs.AddPoint(centroid)
else:
print "no bbox"
# rs.RotateObject(newobj, )
obj = rs.GetObject()
if obj:
ot = rs.ObjectType(obj)
print(ot)
if ot == 4 or 8 or 16 or 32: # crv, srf, polysrf, mesh
# if ot == 4: #curve
# cent =
main()
else:
rs.MessageBox(
"incompatible object type (works only with curves, surfaces, polysurfaces, meshes)"
)
import rhinoscriptsyntax as rs
selected_objects = rs.GetObjects(
'Select objects', rs.filter.curve + rs.filter.textdot)
print(type(selected_objects))
print('number of objects: %i' % len(selected_objects))
for object in selected_objects:
object_type = rs.ObjectType(object)
print('type: %s' % object_type)
