def execute(self, context):
A = context.active_object
polygon = new_polygon(sides=self.sides_number,
length=self.sides_length,
hide=True)
add_abs_bevel(polygon, self.bevel_depth)
polygon.parent = A
polygon.rotation_euler[2] = math.radians(self.polygon_rotate)
vertices = []
for i in range(int(self.sides_number)):
s = new_point(radius=self.sphere_radius)
position_on_curve(s, polygon, position=i / self.sides_number)
add_driver(obj=s, prop='location', fields='Z', expr="0")
vertices.append(s)
for i in range(int(self.sides_number) - 1):
line = new_line()
segment(line, vertices[i], vertices[i + 1])
add_abs_bevel(line, self.bevel_depth)
line.name = "Side of polygon"
line = new_line()
segment(line, vertices[0], vertices[int(self.sides_number) - 1])
add_abs_bevel(line, self.bevel_depth)
line.name = "Side of polygon"
return {'FINISHED'}
def execute(self, context):
if (len(context.selected_objects) == 3):
A = context.active_object
others = context.selected_objects[-3:]
others.remove(A)
(B, C) = others
line = new_line(hide=self.hide_extra)
segment(line, B, C)
obj = new_line(length=self.length)
add_abs_bevel(obj, self.bevel_depth)
parallel_line(obj, A, line, hide_extra=self.hide_extra)
if (len(context.selected_objects) == 2):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
line = others[0]
obj = new_line(length=self.length)
add_abs_bevel(obj, self.bevel_depth)
parallel_line(obj, A, line, hide_extra=self.hide_extra)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
arc_neo = new_arc(angle=360, sides=64, hide=self.hide_arc)
copy_location(arc_neo, A)
copy_rotation(arc_neo, A)
locked_track(arc_neo, 'Z', 'X', B)
for i in range(3):
arc_neo.scale[i] = self.radius
add_abs_bevel(arc_neo, self.bevel_depth)
if not self.other_angle:
arc_neo.data.bevel_factor_start = 0
arc_neo.data.bevel_factor_end = self.arc_angle / 360
end1 = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius,
hide=self.hide_endpoints)
end1.name = "Arc endpoint"
end2 = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius,
hide=self.hide_endpoints)
end2.name = "Arc endpoint"
position_on_curve(end1, arc_neo, position=0)
position_on_curve(end2, arc_neo, position=self.arc_angle / 360)
if self.display_sides:
side1 = new_line()
add_abs_bevel(side1, self.bevel_depth)
side2 = new_line()
add_abs_bevel(side2, self.bevel_depth)
ray(side1, A, end1)
ray(side2, A, end2)
else:
arc_neo.data.bevel_factor_start = self.arc_angle / 360
arc_neo.data.bevel_factor_end = 1
end1 = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius,
hide=self.hide_endpoints)
end1.name = "Arc endpoint"
end2 = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius,
hide=self.hide_endpoints)
end2.name = "Arc endpoint"
position_on_curve(end1, arc_neo, position=self.arc_angle / 360)
position_on_curve(end2, arc_neo, position=1)
if self.display_sides:
side1 = new_line()
add_abs_bevel(side1, self.bevel_depth)
side2 = new_line()
add_abs_bevel(side2, self.bevel_depth)
ray(side1, A, end1)
ray(side2, A, end2)
return {'FINISHED'}
def execute(self, context):
(A, B, C) = context.selected_objects[-3:]
lines = [new_line(), new_line(), new_line()]
segment(lines[0], A, B)
segment(lines[1], B, C)
segment(lines[2], C, A)
for idx, line in enumerate(lines):
line.name = f"Side {idx + 1}"
add_abs_bevel(line, self.bevel_depth)
return {'FINISHED'}
def execute(self, context):
(A, B) = context.selected_objects[-2:]
newline = new_line()
line(newline, A, B, length=self.length)
add_abs_bevel(newline, self.bevel_depth)
newline.name = "Line"
return {'FINISHED'}
def execute(self, context):
(A, B) = context.selected_objects[-2:]
line = new_line()
segment(line, A, B)
add_abs_bevel(line, self.bevel_depth)
line.name = "Line Segment"
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
point1 = new_point()
point2 = new_point()
circle_tangent_points(point1, point2, B, A)
line1 = new_line()
add_abs_bevel(line1, self.bevel_depth)
line2 = new_line()
add_abs_bevel(line2, self.bevel_depth)
circle_tangent_lines(line1, line2, B, A, hide_extra=self.hide_extra)
return {'FINISHED'}
def execute(self, context):
if (len(context.selected_objects) == 2):
(B, C) = context.selected_objects[-2:]
obj = new_line(length=self.length)
add_abs_bevel(obj, self.bevel_depth)
bisecting_line_of_points(obj, B, C, hide_extra=self.hide_extra)
if (len(context.selected_objects) == 1):
A = context.active_object
obj = new_line(length=self.length)
add_abs_bevel(obj, self.bevel_depth)
bisecting_line_of_line(obj, A, hide_extra=self.hide_extra)
return {'FINISHED'}
def execute(self, context):
(A, B, C) = context.selected_objects[-3:]
line1 = new_line(length=self.length)
add_abs_bevel(line1, self.bevel_depth)
euler_line(line1, A, B, C)
return {'FINISHED'}
def execute(self, context):
(A, B) = context.selected_objects[-2:]
point_r = new_point(hide=True)
radical_intercept(point_r, A, B)
line1 = new_line(length=self.length)
add_abs_bevel(line1, self.bevel_depth)
radical_axis(line1, A, B)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-3:]
others.remove(A)
(B, C) = others
med = new_line(length=self.length)
add_abs_bevel(med, self.bevel_depth)
external_bisector(med, A, B, C)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
line1 = new_line(length=self.length)
add_abs_bevel(line1, self.bevel_depth)
polar_line(line1, A, B, hide_extra=self.hide_extra)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
inv_line = new_line(length=self.length)
add_abs_bevel(inv_line, self.bevel_depth)
inversion_on_cicle(inv_line, A, B)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
line1 = new_line(length=self.length)
add_abs_bevel(line1, self.bevel_depth)
circle_tangent_line(line1, B, A)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
line = new_line()
ray(line, A, B, length=self.length)
add_abs_bevel(line, self.bevel_depth)
line.name = "Ray"
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-3:]
others.remove(A)
(B, C) = others
footp = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius,
hide=self.hide_foot)
alt = new_line()
add_abs_bevel(alt, self.bevel_depth)
altitude(alt, footp, A, B, C)
return {'FINISHED'}
def execute(self, context):
if (len(context.selected_objects) == 3):
A = context.active_object
others = context.selected_objects[-3:]
others.remove(A)
(B, C) = others
obj = new_line(length=self.length)
add_abs_bevel(obj, self.bevel_depth)
orthogonal_line_to_points(obj, A, B, C, hide_extra=self.hide_extra)
if (len(context.selected_objects) == 2):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
obj = new_line(length=self.length)
add_abs_bevel(obj, self.bevel_depth)
orthogonal_line_to_line(obj, A, B, hide_extra=self.hide_extra)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-3:]
others.remove(A)
(B, C) = others
midp = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius,
hide=self.hide_foot)
med = new_line()
add_abs_bevel(med, self.bevel_depth)
angle_bisector(med, midp, A, B, C)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-3:]
others.remove(A)
(B, C) = others
point1 = new_point(hide=True)
angle_divider_foot(point1, A, B, C, influ=self.division_proportion)
line1 = new_line()
add_abs_bevel(line1, self.bevel_depth)
if self.use_ray:
ray(line1, A, point1)
else:
line(line1, A, point1)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
e_new = new_empty(hide=True)
e_new.location[0] = self.bevel_depth
e_new.location[1] = self.cone_length
e_new.location[2] = self.cone_radius
line = new_line()
segment(line, B, A)
add_abs_bevel(line, self.bevel_depth)
line.name = "Vector"
add_driver(obj=line.data,
prop='bevel_factor_end',
vars_def={
'd': ('distance', A, B),
'b1': ('transform', B, 'location', '-'),
'a1': ('transform', A, 'location', '-'),
'bev': ('transform', e_new, 'location', 'X'),
'dep': ('transform', e_new, 'location', 'Y'),
'r1': ('transform', e_new, 'location', 'Z'),
},
expr="1 - dep/d")
cone = new_cone(radius1=self.cone_radius, depth=self.cone_length)
bpy.ops.object.mode_set(mode='EDIT')
cone.location.z -= self.cone_length / 2
bpy.ops.object.mode_set(mode='OBJECT')
copy_location(cone, A)
damped_track(cone, axis='-X', target=B)
A.hide_viewport = self.hide_endpoint
return {'FINISHED'}
def execute(self, context):
_A, _B = context.selected_objects[-2:]
A = objects.new_plane(hide=self.hide_extra)
constraints.copy_transforms(A, _A, transforms='LR')
B = objects.new_plane(hide=self.hide_extra)
constraints.copy_transforms(B, _B, transforms='LR')
# A point on the normal of Plane A
A_norm = objects.new_empty(hide=self.hide_extra)
A_norm.name = "A Norm"
objects.uniform_scale(A_norm, 0.1)
objects.set_parent(A_norm, A, keep_inverse=False)
A_norm.location[2] = 1.0
# Empty located a A, but in the same orientation as B
B_rot_at_A = objects.new_empty(hide=self.hide_extra)
B_rot_at_A.name = "B_rot_at_A"
constraints.copy_location(B_rot_at_A, A)
constraints.copy_rotation(B_rot_at_A, B)
# (B_norm_at_a - A) gives the normal direction of B
B_norm_at_a = objects.new_empty(hide=self.hide_extra)
B_norm_at_a.name = "B_norm_at_a"
objects.set_parent(B_norm_at_a, B_rot_at_A, keep_inverse=False)
B_norm_at_a.location[2] = 1.0
intersection_line = objects.new_line(axis='Z', length=self.length)
objects.move_origin_center(intersection_line)
objects.add_abs_bevel(intersection_line, self.bevel_depth)
geometry.align_to_plane_of(intersection_line, A, A_norm, B_norm_at_a)
constraints.project_along_axis(intersection_line, 'Y', B, opposite=True)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-2:]
others.remove(A)
B = others[0]
e_help = new_empty(hide=self.hide_extra)
e_help.name = "Object defining drivers"
e_help.location[0] = self.ratio
if not (isinstance(A.data, bpy.types.Curve)):
new = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius)
new.name = "Homothetic object"
# Can try to duplicate instead and then clear all constraints
if 'Line' in A.data.name:
new = new_line()
new.name = "Homothetic object"
add_abs_bevel(new, self.bevel_depth)
if 'Circle' in A.data.name:
new = new_circle()
new.name = "Homothetic object"
add_abs_bevel(new, self.bevel_depth)
copy_rotation(new, A)
add_driver(obj=new,
prop='location',
fields='XYZ',
vars_def={
'x1': ('transform', e_help, 'location', 'X'),
'b1': ('transform', B, 'location', '-'),
'a1': ('transform', A, 'location', '-'),
},
expr="b1 + x1*(a1-b1)")
if 'Circle' in A.data.name:
add_driver(obj=new,
prop='scale',
fields='XYZ',
vars_def={
'x1': ('transform', e_help, 'location', 'X'),
's1': ('transform', A, 'scale', 'X'),
},
expr="x1*s1")
if self.display_center:
center = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius)
copy_location(center, new)
copy_rotation(center, new)
if 'Line' in A.data.name:
add_driver(obj=new,
prop='scale',
fields='XYZ',
vars_def={
'x1': ('transform', e_help, 'location', 'X'),
's1': ('transform', A, 'scale', 'X'),
},
expr="x1*s1")
end1 = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius)
end2 = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius)
line_ends(end1, end2, new)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-3:]
others.remove(A)
(B_test, arc_old_test) = others
if 'Arc' in B_test.data.name:
arc_old = B_test
B = arc_old_test
if 'Arc' in arc_old_test.data.name:
arc_old = arc_old_test
B = B_test
empty1 = new_point(hide=True)
empty1.parent = arc_old
empty1.location[1] = -1
fl_arc_old = new_point(hide=True)
copy_location(fl_arc_old, arc_old)
locked_track(fl_arc_old, 'X', 'Y', empty1)
arc_neo = new_arc(angle=360, sides=64, hide=self.hide_arc)
uniform_scale(arc_neo, self.radius)
add_abs_bevel(arc_neo, self.bevel_depth)
copy_location(arc_neo, A)
if self.other_side:
copy_rotation(arc_neo, fl_arc_old)
else:
copy_rotation(arc_neo, arc_old)
locked_track(arc_neo, 'Z', 'X', B)
add_driver(
obj=arc_neo.data,
prop='bevel_factor_start',
vars_def={
'bev': ('datapath', arc_old, 'data.bevel_factor_start'), },
expr='bev'
)
add_driver(
obj=arc_neo.data,
prop='bevel_factor_end',
vars_def={
'bev': ('datapath', arc_old, 'data.bevel_factor_end'), },
expr='bev'
)
end1 = new_point(radius=self.sphere_radius, hide=self.hide_endpoints)
end1.name = "Arc endpoint"
end2 = new_point(radius=self.sphere_radius, hide=self.hide_endpoints)
end2.name = "Arc endpoint"
position_on_curve(end1, arc_neo, position=0)
position_on_curve(end2, arc_neo, position=1)
add_driver(
obj=end1.constraints[-1],
prop='offset_factor',
vars_def={
'bev': ("datapath", arc_neo, "data.bevel_factor_start"), },
expr="bev"
)
add_driver(
obj=end2.constraints[-1],
prop='offset_factor',
vars_def={
'bev': ("datapath", arc_neo, "data.bevel_factor_end"), },
expr="bev"
)
if self.display_sides:
side1 = new_line()
add_abs_bevel(side1, self.bevel_depth)
side2 = new_line()
add_abs_bevel(side2, self.bevel_depth)
ray(side1, A, end1)
ray(side2, A, end2)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-4:]
others.remove(A)
(O_test, L_test, R_test) = others
if 'Sphere' in O_test.data.name:
O = O_test
if 'Sphere' in L_test.data.name:
O = L_test
if 'Sphere' in R_test.data.name:
O = R_test
others.remove(O)
(L_test, R_test) = others
if 'Line' in L_test.data.name:
L = L_test
R = R_test
if 'Line' in R_test.data.name:
L = R_test
R = L_test
# A: object to transform, O: origin, L: line, R: circle
if not (isinstance(A.data, bpy.types.Curve)):
new = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius)
new.name = "Homothetic object"
if 'Line' in A.data.name:
new = new_line()
new.name = "Homothetic object"
add_abs_bevel(new, self.bevel_depth)
if 'Circle' in A.data.name:
new = new_circle()
new.name = "Homothetic object"
add_abs_bevel(new, self.bevel_depth)
copy_rotation(new, A)
add_driver(obj=new,
prop='location',
fields='XYZ',
vars_def={
's': ('transform', L, 'scale', 'X'),
'r': ('transform', R, 'scale', 'X'),
'b1': ('transform', O, 'location', '-'),
'a1': ('transform', A, 'location', '-'),
},
expr="b1 + (s/r)*(a1-b1)")
if 'Circle' in A.data.name:
add_driver(obj=new,
prop='scale',
fields='XYZ',
vars_def={
's': ('transform', L, 'scale', 'X'),
'r': ('transform', R, 'scale', 'X'),
's1': ('transform', A, 'scale', 'X'),
},
expr="(s/r)*s1")
if self.display_center:
center = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius)
copy_location(center, new)
copy_rotation(center, new)
if 'Line' in A.data.name:
add_driver(obj=new,
prop='scale',
fields='XYZ',
vars_def={
's': ('transform', L, 'scale', 'X'),
'r': ('transform', R, 'scale', 'X'),
's1': ('transform', A, 'scale', 'X'),
},
expr="(s/r)*s1")
end1 = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius)
end2 = new_point(use_spheres=self.use_spheres,
radius=self.sphere_radius)
line_ends(end1, end2, new)
return {'FINISHED'}
def execute(self, context):
A = context.active_object
others = context.selected_objects[-3:]
others.remove(A)
B, C = others
arc = new_arc(angle=360, sides=64, hide=self.hide_arc)
if self.display_sides:
side1 = new_line()
add_abs_bevel(side1, self.bevel_depth)
side2 = new_line()
add_abs_bevel(side2, self.bevel_depth)
ray(side1, A, B)
ray(side2, A, C)
uniform_scale(arc, self.radius)
add_abs_bevel(arc, self.bevel_depth)
align_to_plane_of(arc, A, B, C)
if self.other_angle:
B, C = C, B
add_driver(
obj=arc.data,
prop='bevel_factor_start',
vars_def={
'ax': ('transform', A, 'location', 'X'),
'ay': ('transform', A, 'location', 'Y'),
'az': ('transform', A, 'location', 'Z'),
'bx': ('transform', B, 'location', 'X'),
'by': ('transform', B, 'location', 'Y'),
'bz': ('transform', B, 'location', 'Z'),
'cx': ('transform', C, 'location', 'X'),
'cy': ('transform', C, 'location', 'Y'),
'cz': ('transform', C, 'location', 'Z'),
},
expr='gb_drive_angle_bevel(True,ax,ay,az,bx,by,bz,cx,cy,cz)')
add_driver(
obj=arc.data,
prop='bevel_factor_end',
vars_def={
'ax': ('transform', A, 'location', 'X'),
'ay': ('transform', A, 'location', 'Y'),
'az': ('transform', A, 'location', 'Z'),
'bx': ('transform', B, 'location', 'X'),
'by': ('transform', B, 'location', 'Y'),
'bz': ('transform', B, 'location', 'Z'),
'cx': ('transform', C, 'location', 'X'),
'cy': ('transform', C, 'location', 'Y'),
'cz': ('transform', C, 'location', 'Z'),
},
expr='gb_drive_angle_bevel(False,ax,ay,az,bx,by,bz,cx,cy,cz)')
end1 = new_point(radius=self.sphere_radius, hide=self.hide_endpoints)
end1.name = "Arc endpoint"
end2 = new_point(radius=self.sphere_radius, hide=self.hide_endpoints)
end2.name = "Arc endpoint"
position_on_curve(end1, arc, position=0)
position_on_curve(end2, arc, position=1)
add_driver(obj=end1.constraints[-1],
prop='offset_factor',
vars_def={
'bev': ("datapath", arc, "data.bevel_factor_start"),
},
expr="bev")
add_driver(obj=end2.constraints[-1],
prop='offset_factor',
vars_def={
'bev': ("datapath", arc, "data.bevel_factor_end"),
},
expr="bev")
return {'FINISHED'}
