def main():
start_time = time.time()
### --- Load stl
compas_mesh = Mesh.from_obj(os.path.join(DATA, MODEL))
### --- Move to origin
move_mesh_to_point(compas_mesh, Point(0, 0, 0))
### --- Slicer
# options: 'default' : Both for open and closed paths. But slow
# 'cgal' : Very fast. Only for closed paths. Requires additional installation (compas_cgal).
slicer = PlanarSlicer(compas_mesh, slicer_type="cgal", layer_height=1.5)
slicer.slice_model()
### --- Generate brim
generate_brim(slicer, layer_width=3.0, number_of_brim_paths=3)
### --- Simplify the paths by removing points with a certain threshold
# change the threshold value to remove more or less points
simplify_paths_rdp(slicer, threshold=0.7)
### --- Smooth the seams between layers
# change the smooth_distance value to achieve smoother, or more abrupt seams
seams_smooth(slicer, smooth_distance=10)
### --- Prints out the info of the slicer
slicer.printout_info()
viewer = ObjectViewer()
viewer.view.use_shaders = False
slicer.visualize_on_viewer(viewer)
utils.save_to_json(slicer.to_data(), OUTPUT_DIR, 'slicer_data.json')
### --- Fabrication - related information
print_organizer = PrintOrganizer(slicer)
print_organizer.create_printpoints(compas_mesh)
print_organizer.set_extruder_toggle()
print_organizer.add_safety_printpoints(z_hop=20)
print_organizer.set_linear_velocity("constant", v=25)
### --- Save printpoints dictionary to json file
printpoints_data = print_organizer.output_printpoints_dict()
utils.save_to_json(printpoints_data, OUTPUT_DIR, 'out_printpoints.json')
print_organizer.visualize_on_viewer(viewer, visualize_polyline=True, visualize_printpoints=False)
viewer.update()
viewer.show()
end_time = time.time()
print("Total elapsed time", round(end_time - start_time, 2), "seconds")
def main():
### --- Data paths
DATA = os.path.join(os.path.dirname(__file__), 'data')
INPUT_FILE = 'paths_from_gh.json'
slicer = PlanarSlicer.from_data(load_from_json(DATA, INPUT_FILE))
### --- Visualize using the compas_viewer
viewer = ObjectViewer()
viewer.view.use_shaders = False
slicer.visualize_on_viewer(viewer, visualize_mesh=False, visualize_paths=True)
viewer.update()
viewer.show()
def main():
start_time = time.time()
### --- Load stl
compas_mesh = Mesh.from_obj(os.path.join(DATA, MODEL))
### --- Move to origin
move_mesh_to_point(compas_mesh, Point(0, 0, 0))
### --- Slicer
# try out different slicers by changing the slicer_type
# options: 'default', 'meshcut', 'cgal'
slicer = PlanarSlicer(compas_mesh, slicer_type="default", layer_height=1.5)
slicer.slice_model()
### --- Generate brim
generate_brim(slicer, layer_width=3.0, number_of_brim_paths=3)
### --- Simplify the printpaths by removing points with a certain threshold
# change the threshold value to remove more or less points
simplify_paths_rdp(slicer, threshold=0.9)
### --- Prints out the info of the slicer
slicer.printout_info()
viewer = ObjectViewer()
viewer.view.use_shaders = False
slicer.visualize_on_viewer(viewer)
utils.save_to_json(slicer.to_data(), OUTPUT_DIR, 'slicer_data.json')
### --- Fabrication - related information
print_organizer = PrintOrganizer(slicer)
print_organizer.create_printpoints(compas_mesh)
print_organizer.set_extruder_toggle()
print_organizer.add_safety_printpoints(z_hop=20)
print_organizer.set_linear_velocity("constant", v=25)
### --- Save printpoints dictionary to json file
printpoints_data = print_organizer.output_printpoints_dict()
utils.save_to_json(printpoints_data, OUTPUT_DIR, 'out_printpoints.json')
# # print_organizer.visualize_on_viewer(viewer, visualize_polyline=True, visualize_printpoints=False)
viewer.update()
viewer.show()
end_time = time.time()
print("Total elapsed time", round(end_time - start_time, 2), "seconds")
mesh.transform(S * Rz * Rx)
# ==============================================================================
# Isolines
# ==============================================================================
scalars = mesh.vertices_attribute('z')
vertices, edges = igl.trimesh_isolines(mesh.to_vertices_and_faces(), scalars,
10)
isolines = igl.groupsort_isolines(vertices, edges)
# ==============================================================================
# Visualisation
# ==============================================================================
viewer = ObjectViewer()
viewer.add(mesh,
settings={
'color': '#ffffff',
'vertices.on': False,
'edges.on': False
})
cmap = Colormap(scalars, 'rgb')
for value, paths in isolines:
for path in paths:
points = [vertices[path[0][0]]]
for i, j in path:
points.append(vertices[j])
viewer.add(Polyline(points),
# ==========================================================================
# Set fabrication-related parameters
# ==========================================================================
set_extruder_toggle(print_organizer, slicer)
add_safety_printpoints(print_organizer, z_hop=10.0)
set_linear_velocity(print_organizer, "constant", v=25.0)
set_blend_radius(print_organizer, d_fillet=10.0)
# ==========================================================================
# Prints out the info of the PrintOrganizer
# ==========================================================================
print_organizer.printout_info()
# ==========================================================================
# Converts the PrintPoints to data and saves to JSON
# =========================================================================
printpoints_data = print_organizer.output_printpoints_dict()
utils.save_to_json(printpoints_data, OUTPUT_DIR, 'out_printpoints.json')
# ==========================================================================
# Initializes the compas_viewer and visualizes results
# ==========================================================================
viewer = ObjectViewer()
print_organizer.visualize_on_viewer(viewer,
visualize_polyline=True,
visualize_printpoints=False)
viewer.view.use_shaders = False
viewer.update()
viewer.show()
if (i2 - i1).length < 0.01:
x = intersection_line_plane((i1, r1), ground)
r1 = Point(*x)
reflections.append((i1, r1))
else:
reflections.append((i1, i2))
else:
x = intersection_line_plane((i1, r1), ground)
r1 = Point(*x)
reflections.append((i1, r1))
# ==============================================================================
# Visualisation
# ==============================================================================
viewer = ObjectViewer()
viewer.add(mesh,
settings={
'color': '#cccccc',
'opacity': 0.5,
'edges.on': False
})
for intersection in intersections:
viewer.add(Line(base, intersection),
settings={
'edges.color': '#ff0000',
'edges.width': 3
})
# ==============================================================================
mesh = Mesh.from_off(igl.get('tubemesh.off'))
mesh.quads_to_triangles()
# ==============================================================================
# curvature
# ==============================================================================
curvature = igl.trimesh_gaussian_curvature(mesh)
# ==============================================================================
# Visualisation
# ==============================================================================
viewer = ObjectViewer()
viewer.add(mesh,
settings={
'color': '#cccccc',
'vertices.on': True,
'edges.on': False,
'opacity': 0.7,
'vertices.size': 5
})
for vertex in mesh.vertices():
if mesh.is_vertex_on_boundary(vertex):
continue
point = Point(*mesh.vertex_coordinates(vertex))
import random
from compas.utilities import rgb_to_hex
from compas.geometry import Point
from compas.geometry import Line
from compas.geometry import Polyline
from compas.geometry import Plane
from compas.geometry import Circle
from compas_viewers.objectviewer import ObjectViewer
viewer = ObjectViewer()
for i in range(10):
line = Line(
Point(random.uniform(0, 10), random.uniform(0, 10),
random.uniform(0, 10)),
Point(random.uniform(0, 10), random.uniform(0, 10),
random.uniform(0, 10)))
viewer.add(line)
point = Point(0, 0, 0)
viewer.add(point, settings={'vertices.size': 10})
polyline = Polyline([[2, 0, 0], [1, 0, 0], [1, 1, 0], [1, 1, 1]])
viewer.add(polyline, settings={'vertices.size': 10})
plane = Plane([0, 0, 2], [1, 1, 1])
viewer.add(plane)
circle = Circle(Plane([0, 0, 3], [1, 1, 1]), 1)
from random import randint as rdi
from math import radians
from compas.geometry import Box
from compas.datastructures import Mesh
from compas.datastructures import mesh_transform_numpy
from compas.utilities import rgb_to_hex
from compas.geometry import Translation
from compas.geometry import Rotation
from compas_viewers.objectviewer import ObjectViewer
viewer = ObjectViewer(activate_selection=True)
# make 10 random meshes
# with random position and orientation
for i in range(10):
T = Translation.from_vector([rdi(0, 10), rdi(0, 10), rdi(0, 5)])
R = Rotation.from_axis_and_angle([0, 0, 1.0], radians(rdi(0, 180)))
X = T * R
box = Box.from_width_height_depth(rdi(1, 3), rdi(1, 3), rdi(1, 3))
mesh = Mesh.from_shape(box)
mesh_transform_numpy(mesh, X)
viewer.add(mesh,
name="Mesh.%s" % i,
settings={
'color': rgb_to_hex((rdi(0, 255), rdi(0, 255), rdi(0,
255))),
'edges.width': 2,
'opacity': 0.7,
Rz = Rotation.from_axis_and_angle([0, 0, 1], math.radians(90))
S = Scale.from_factors([10, 10, 10])
mesh.transform(S * Rz * Rx)
# ==============================================================================
# Boundaries
# ==============================================================================
boundaries = igl.trimesh_boundaries(mesh.to_vertices_and_faces())
# ==============================================================================
# Visualize
# ==============================================================================
viewer = ObjectViewer()
viewer.add(mesh,
settings={
'color': '#00ff00',
'opacity': 0.7,
'edges.on': False,
'vertices.on': False
})
for indices in boundaries:
points = mesh.vertices_attributes('xyz', keys=indices)
polyline = Polyline(points)
viewer.add(polyline,
settings={
'edges.color': '#ff0000',
import random from compas.geometry import Plane from compas.geometry import Circle from compas.geometry import Cone from compas.geometry import Polyhedron from compas_viewers.objectviewer import Arrow from compas_viewers.objectviewer import ObjectViewer viewer = ObjectViewer() plane = Plane([2, 0, 0], [0, 0, 1]) circle = Circle(plane, 0.5) cone = Cone(circle, 1) viewer.add(cone) polyhedron = Polyhedron(4) viewer.add(polyhedron) arrow = Arrow([-2, 0, 0], [0, 1, 1]) viewer.add(arrow) viewer.show()
n = scale_vector(mesh.face_normal(i), -1)
x = add_vectors(base, scale_vector(vector, d))
p = Point(*x)
r = base.transformed(Reflection.from_plane((p, n)))
n = add_vectors(n, x)
n = Point(*n)
intersections.append(p)
reflections.append(r)
normals.append(n)
centers.append(mesh.face_centroid(i))
# ==============================================================================
# Visualisation
# ==============================================================================
viewer = ObjectViewer()
viewer.add(mesh,
settings={
'color': '#cccccc',
'opacity': 0.7,
'vertices.on': False
})
for i in range(len(intersections) - 132):
p = intersections[i]
r = reflections[i]
n = normals[i]
c = centers[i]
viewer.add(Line(base, p),
settings={
