def xdraw_spheres(spheres):
rg_sheres = []
for s in iter(spheres):
pos = s['pos']
radius = s['radius']
rg_sheres.append(Sphere(Point3d(*pos), radius))
return rg_sheres
def draw_spheres(spheres):
"""Draw spheres.
Parameters
----------
spheres : list of dict
The sphere definitions.
Returns
-------
list of :class:`Rhino.Geometry.Sphere`
Notes
-----
.. code-block:: python
Schema({
'pos': lambda x: len(x) == 3,
'radius': And(Or(int, float), lambda x: x > 0)
})
"""
rg_sheres = []
for s in iter(spheres):
pos = s['pos']
radius = s['radius']
rg_sheres.append(Sphere(Point3d(*pos), radius))
return rg_sheres
def xdraw_spheres(spheres, **kwargs):
guids = []
for s in iter(spheres):
pos = s['pos']
radius = s['radius']
name = s.get('name', '')
color = s.get('color')
layer = s.get('layer')
sphere = Sphere(Point3d(*pos), radius)
guid = add_sphere(sphere)
if not guid:
continue
obj = find_object(guid)
if not obj:
continue
attr = obj.Attributes
if color:
attr.ObjectColor = FromArgb(*color)
attr.ColorSource = ColorFromObject
else:
attr.ColorSource = ColorFromLayer
if layer and find_layer_by_fullpath:
index = find_layer_by_fullpath(layer, True)
if index >= 0:
attr.LayerIndex = index
attr.Name = name
attr.WireDensity = -1
obj.CommitChanges()
guids.append(guid)
return guids
def draw_spheres(spheres, **kwargs):
"""Draw spheres and optionally set individual name, color, and layer properties.
Parameters
----------
spheres : list[dict]
A list of sphere dictionaries.
See Notes, for more information about the structure of the dict.
Returns
-------
list[System.Guid]
Notes
-----
A sphere dict has the following schema:
.. code-block:: python
Schema({
'pos': And(list, lambda x: len(x) == 3),
'radius': And(Or(int, float), lambda x: x > 0.0),
Optional('name', default=''): str,
Optional('color', default=None): And(lambda x: len(x) == 3, all(0 <= y <= 255 for y in x)),
Optional('layer', default=None): str,
})
"""
guids = []
for s in iter(spheres):
pos = s['pos']
radius = s['radius']
name = s.get('name', '')
color = s.get('color')
layer = s.get('layer')
sphere = Sphere(Point3d(*pos), radius)
guid = add_sphere(sphere)
if not guid:
continue
obj = find_object(guid)
if not obj:
continue
attr = obj.Attributes
if color:
attr.ObjectColor = FromArgb(*color)
attr.ColorSource = ColorFromObject
else:
attr.ColorSource = ColorFromLayer
if layer and find_layer_by_fullpath:
index = find_layer_by_fullpath(layer, True)
if index >= 0:
attr.LayerIndex = index
attr.Name = name
attr.WireDensity = -1
obj.CommitChanges()
guids.append(guid)
return guids
def _face_adjacency(xyz, faces, nmax=10, radius=2.0):
""""""
points = [
centroid_points([xyz[index] for index in face]) for face in faces
]
tree = RTree()
for i, point in enumerate(points):
tree.Insert(Point3d(*point), i)
def callback(sender, e):
data = e.Tag
data.append(e.Id)
closest = []
for i, point in enumerate(points):
sphere = Sphere(Point3d(*point), radius)
data = []
tree.Search(sphere, callback, data)
closest.append(data)
adjacency = {}
for face, vertices in enumerate(faces):
nbrs = []
found = set()
nnbrs = set(closest[face])
for u, v in pairwise(vertices + vertices[0:1]):
for nbr in nnbrs:
if nbr == face:
continue
if nbr in found:
continue
for a, b in pairwise(faces[nbr] + faces[nbr][0:1]):
if v == a and u == b:
nbrs.append(nbr)
found.add(nbr)
break
for a, b in pairwise(faces[nbr] + faces[nbr][0:1]):
if u == a and v == b:
nbrs.append(nbr)
found.add(nbr)
break
adjacency[face] = nbrs
return adjacency
def _mesh_face_adjacency(mesh, nmax=10, radius=2.0):
fkey_index = {fkey: index for index, fkey in enumerate(mesh.faces())}
index_fkey = {index: fkey for index, fkey in enumerate(mesh.faces())}
points = [mesh.face_centroid(fkey) for fkey in mesh.faces()]
k = min(mesh.number_of_faces(), nmax)
try:
from scipy.spatial import cKDTree
tree = cKDTree(points)
_, closest = tree.query(points, k=k, n_jobs=-1)
except Exception:
try:
import Rhino
except Exception:
from compas.geometry import KDTree
tree = KDTree(points)
closest = [tree.nearest_neighbors(point, k) for point in points]
closest = [[index for xyz, index, d in nnbrs] for nnbrs in closest]
else:
from Rhino.Geometry import RTree
from Rhino.Geometry import Sphere
from Rhino.Geometry import Point3d
tree = RTree()
for i, point in enumerate(points):
tree.Insert(Point3d(* point), i)
def callback(sender, e):
data = e.Tag
data.append(e.Id)
closest = []
for i, point in enumerate(points):
sphere = Sphere(Point3d(* point), radius)
data = []
tree.Search(sphere, callback, data)
closest.append(data)
adjacency = {}
for fkey in mesh.faces():
nbrs = []
index = fkey_index[fkey]
found = set()
nnbrs = set(closest[index])
for u, v in mesh.face_halfedges(fkey):
for index in nnbrs:
nbr = index_fkey[index]
if nbr == fkey:
continue
if nbr in found:
continue
for a, b in mesh.face_halfedges(nbr):
if v == a and u == b:
nbrs.append(nbr)
found.add(nbr)
break
for a, b in mesh.face_halfedges(nbr):
if u == a and v == b:
nbrs.append(nbr)
found.add(nbr)
break
adjacency[fkey] = nbrs
return adjacency
from __future__ import absolute_import
def face_adjacency(mesh):
"""Build a face adjacency dict.
Parameters
----------
mesh : Mesh
A mesh object.
Returns
-------
dict
A dictionary mapping face identifiers (keys) to lists of neighbouring faces.
Notes
-----
This algorithm is used primarily to unify the cycle directions of a given mesh.
Therefore, the premise is that the topological information of the mesh is corrupt
and cannot be used to construct the adjacency structure. The algorithm is thus
purely geometrical, but uses a spatial indexing tree to speed up the search.
"""
fkey_index = {fkey: index for index, fkey in enumerate(mesh.faces())}
index_fkey = {index: fkey for index, fkey in enumerate(mesh.faces())}
points = [mesh.face_centroid(fkey) for fkey in mesh.faces()]
try:
from scipy.spatial import cKDTree
tree = cKDTree(points)
_, closest = tree.query(points, k=10, n_jobs=-1)
except Exception:
try:
import Rhino
except Exception:
from compas.geometry import KDTree
tree = KDTree(points)
closest = [tree.nearest_neighbours(point, 10) for point in points]
closest = [[index for xyz, index, d in nnbrs] for nnbrs in closest]
else:
from Rhino.Geometry import RTree
from Rhino.Geometry import Sphere
from Rhino.Geometry import Point3d
tree = RTree()
for i, point in enumerate(points):
tree.Insert(Point3d(*point), i)
def callback(sender, e):
data = e.Tag
data.append(e.Id)
closest = []
for i, point in enumerate(points):
sphere = Sphere(Point3d(*point), 2.0)
data = []
tree.Search(sphere, callback, data)
closest.append(data)
adjacency = {}
for fkey in mesh.faces():
nbrs = []
index = fkey_index[fkey]
found = set()
nnbrs = closest[index]
for u, v in mesh.face_halfedges(fkey):
for index in nnbrs:
nbr = index_fkey[index]
if nbr == fkey:
continue
if nbr in found:
continue
for a, b in mesh.face_halfedges(nbr):
if v == a and u == b:
nbrs.append(nbr)
found.add(nbr)
break
for a, b in mesh.face_halfedges(nbr):
if u == a and v == b:
nbrs.append(nbr)
found.add(nbr)
break
adjacency[fkey] = nbrs
return adjacency
def face_adjacency(xyz, faces):
""""""
points = [
centroid_points([xyz[index] for index in face]) for face in faces
]
try:
from scipy.spatial import cKDTree
tree = cKDTree(points)
_, closest = tree.query(points, k=10, n_jobs=-1)
except Exception:
try:
import Rhino
except Exception:
from compas.geometry import KDTree
tree = KDTree(points)
closest = [tree.nearest_neighbors(point, 10) for point in points]
closest = [[index for _, index, _ in nnbrs] for nnbrs in closest]
else:
from Rhino.Geometry import RTree
from Rhino.Geometry import Sphere
from Rhino.Geometry import Point3d
tree = RTree()
for i, point in enumerate(points):
tree.Insert(Point3d(*point), i)
def callback(sender, e):
data = e.Tag
data.append(e.Id)
closest = []
for i, point in enumerate(points):
sphere = Sphere(Point3d(*point), 2.0)
data = []
tree.Search(sphere, callback, data)
closest.append(data)
adjacency = {}
for face, vertices in enumerate(faces):
nbrs = []
found = set()
nnbrs = set(closest[face])
for u, v in pairwise(vertices + vertices[0:1]):
for nbr in nnbrs:
if nbr == face:
continue
if nbr in found:
continue
for a, b in pairwise(faces[nbr] + faces[nbr][0:1]):
if v == a and u == b:
nbrs.append(nbr)
found.add(nbr)
break
for a, b in pairwise(faces[nbr] + faces[nbr][0:1]):
if u == a and v == b:
nbrs.append(nbr)
found.add(nbr)
break
adjacency[face] = nbrs
return adjacency
import clr
clr.AddReference('RevitAPI')
clr.AddReference('RhinoCommon')
clr.AddReference('RhinoInside.Revit')
from Autodesk.Revit.DB import Transaction, ElementId, BuiltInCategory, DirectShape
from Rhino.Geometry import Point3d, Vector3d, Mesh, MeshingParameters, Sphere
from RhinoInside.Revit import Revit
import RhinoInside.Revit
clr.ImportExtensions(RhinoInside.Revit.Convert.Geometry)
doc = Revit.ActiveDBDocument
with Transaction(doc, "Sample7") as trans:
trans.Start()
sphere = Sphere(Point3d.Origin, 12 * Revit.ModelUnits)
brep = sphere.ToBrep()
meshes = Mesh.CreateFromBrep(brep, MeshingParameters.Default)
category = ElementId(BuiltInCategory.OST_GenericModel)
ds = DirectShape.CreateElement(doc, category)
for mesh in meshes:
ds.AppendShape(mesh.ToShape())
trans.Commit()
