def wrapper(*args, **kwargs):
layer = kwargs.get('layer', None)
clear = kwargs.get('clear', False)
redraw = kwargs.get('redraw', True)
if layer:
if not rs.IsLayer(layer):
create_layers_from_path(layer)
previous = rs.CurrentLayer(layer)
if clear:
if not layer:
clear_current_layer()
else:
clear_layer(layer)
rs.EnableRedraw(False)
res = f(*args, **kwargs)
if redraw:
rs.EnableRedraw(True)
if layer:
rs.CurrentLayer(previous)
return res
# Python
xfunc.funcname = 'hpc_normals_func.python_normals'
normals, toc1 = xfunc(points, offset=0.5)['data']
print('Python : {0:.6f} ms'.format(toc1 * 1000))
# Numba
xfunc.funcname = 'hpc_normals_func.numba_normals'
normals, toc2 = xfunc(points, offset=0.5)['data']
print('Numba : {0:.6f} ms'.format((toc2 * 1000)))
# Numpy
xfunc.funcname = 'hpc_normals_func.numpy_normals'
normals, toc3 = xfunc(points, offset=0.5)['data']
print('Numpy : {0:.6f} ms'.format(toc3 * 1000))
# Plot
clear_layer(name='Plots')
n = len(points)
plot1 = rs.AddMesh(vertices=points,
face_vertices=faces,
vertex_colors=[[255, 0, 0]] * n)
plot2 = rs.AddMesh(vertices=normals,
face_vertices=faces,
vertex_colors=[[0, 0, 255]] * n)
rs.ObjectLayer([plot1, plot2], 'Plots')
PointArtist.draw_collection(intersections_back,
layer=name + "::Intersections_back",
clear=True)
PointArtist.draw_collection(pca_points,
layer=name + "::Intersections_front",
clear=True)
# # ==============================================================================
# # Generate a beam every 3 vertices of the boundary. Compute a local frame for the
# # selected vertices using a PCA of the vertex locations.
# # ==============================================================================
step = 6
start = 0
end = step
clear_layer(name + "::Beams", include_children=True, include_hidden=True)
while end <= len(pca_points):
points = pca_points[start:end]
start = end
end += (step)
origin, axes, values = pca_numpy(points)
frame = Frame(origin, axes[0], axes[1])
# # ==============================================================================
# # Transform the local coordinates to world coordinates to make it an axis-aligned
# # problem.
# # ==============================================================================
