name_dot = rs.AddTextDot(value, point_list[i][j])
rs.ObjectLayer(name_dot, new_layer)
else:
# convert to string to float
value = float(value)
if(value > 0):
value = value * factor
# select vector
vec_coord = norm_list[i][j]
print(vec_coord)
# scale vector with data from team
vec = rs.VectorScale(vec_coord, value + 0.1 )
if(rs.VectorLength(vec) < 0.1):
# unitize vector
vec_unit = rs.VectorUnitize(vec)
vec = rs.VectorScale(vec_unit, 0.2)
print(point_list[i][j])
# copy point
start_point = rs.AddPoint(point_list[i][j])
end_point = rs.CopyObject(start_point, vec)
# create a line
line = rs.AddLine(point_list[i][j], end_point)
pipe = rs.AddPipe(line, [0.0, 1.0], [4, 4], cap = 1)
rs.DeleteObjects([start_point, end_point, line])
rs.ObjectLayer(pipe, new_layer)
rs.EnableRedraw = True
#fixed_vertices = mesh.vertices_on_boundary()
#curve = rs.GetObject('curve', filter = 4)
#for vkey in fixed_vertices:
# xyz = mesh.vertex_coordinates(vkey)
# t = rs.CurveClosestPoint(curve, xyz)
# x, y, z = rs.EvaluateCurve(curve, t)
# attr = mesh.vertex[vkey]
# attr['x'] = x
# attr['y'] = y
# attr['z'] = z
#mesh_smooth_area(mesh, fixed = fixed_vertices, kmax = 50, damping = .5)
is_polygonal = False
for fkey in mesh.faces():
if len(mesh.face_vertices(fkey)) > 4:
is_polygonal = True
if not is_polygonal:
draw_mesh(mesh)
else:
edges = []
for u, v in mesh.edges():
u_xyz = mesh.vertex_coordinates(u)
v_xyz = mesh.vertex_coordinates(v)
if u_xyz != v_xyz:
edges.append(rs.AddLine(u_xyz, v_xyz))
rs.AddGroup('mesh')
rs.AddObjectsToGroup(edges, 'mesh')
rs.EnableRedraw(False)
#print clos_pt_layer
#change_layer = rs.ObjectLayer(pt, clos_pt_layer)
#vector initializing
vect = rs.VectorCreate(clos_pt, pt)
unit_vect = rs.VectorUnitize(vect)
#this makes the objects fall along a sphere
#sub_vect = (vect)-(unit_vect)
#this makes the objects fall along a straight line
sub_vect = (vect)/3
#draw line between origin (og_) pts and cloud of random pts
init_dst = rs.AddLine(pt, clos_pt)
line_set1.append(init_dst)
#pipes the lines
#rs.AddPipe(init_dst, 0, .01, 0)
#move cloud of random pts according to outcome of sub_vect
new_pt = rs.MoveObject(pt,sub_vect)
new_pt_coord = rs.PointCoordinates(new_pt)
cloud_pts.append(new_pt)
#set parameter for spheres and boxes
#run through clos_pt, if it's layer is x, then move cloud pts that are close to it into x layer,
#then get those close pts by layer, and apply parameter to the boxes that grow off them.
#string_l = rs.ObjectLayer(index)
#print string_l
def VectorDraw(vecdir, base_point=[0, 0, 0]):
"""Draws a vector starting at the given base point."""
tip_point = rs.PointAdd(base_point, vecdir)
line = rs.AddLine(base_point, tip_point)
if line: return rs.CurveArrows(line, 2) # adds an arrow tip
def main():
# get our curves
profile, cross = get_two_curves()
if profile is None or cross is None:
return
##################################################
# get bounding box for cross section
cross_bbox = rs.BoundingBox([cross])
cmin, cmax = box_to_points(cross_bbox)
cz_range = cmax[2] - cmin[2]
cz = 0.5 * (cmax[2] + cmin[2])
c_ctr, _ = rs.CurveAreaCentroid(cross)
# make sure it's planar in XY
if cz_range > 1e-9:
print 'cross section curve should be planar in XY plane'
return
##################################################
# get bounding box for profile
profile_bbox = rs.BoundingBox([profile])
# make sure it's planar in in YZ
pmin, pmax = box_to_points(profile_bbox)
px_range = pmax[0] - pmin[0]
if px_range > 1e-9:
print 'profile curve should be planar in YZ plane'
return
##################################################
# get the point closest to the center for the
# cross-section curve
r, pc = get_inscribed_radius(cross, c_ctr)
##################################################
# get the range of z-values for the profile curve
_, _, z0 = pmin
_, _, z1 = pmax
##################################################
# build list of rings and list of points
points = []
ring_pipes = []
# for each level
for i in range(num_levels):
# get the Z value of the ith plane
u = float(i) / (num_levels-1)
z = z0 + u*(z1 - z0)
# build the i'th plane
plane = rs.PlaneFromNormal([0, 0, z], [0, 0, 1], [1, 0, 0])
# find out where the plane intersects the profile curve
intersect = rs.PlaneCurveIntersection(plane, profile)
# there should be exactly one intersection of type 1 (point)
if intersect is None or len(intersect) > 1 or intersect[0][0] != 1:
print 'bad intersection'
return
# get the intersection point
pi = intersect[0][1]
# get the desired XY radius at this z value
ri = abs(pi[1])
# we need to set up some transformations:
# translate cross section curve down to z=0
T1 = rs.XformTranslation(mz.vec_mul(list(c_ctr), -1.0))
# scale it along XY by the ratio of radii
S1 = rs.XformScale([ri/r, ri/r, 1.0])
# scale a piped cross section along Z by a vertical scale factor
S2 = rs.XformScale([1.0, 1.0, ring_vscale])
# translate piped cross section up to our desired z value
T2 = rs.XformTranslation([0, 0, z])
# scale and translate cross section curve
ci = rs.TransformObject(cross, rs.XformMultiply(S1, T1), copy=True)
# pipe it
ring = rs.AddPipe(ci, [0, 1], [ring_rad, ring_rad])
# scale vertically and transform up
ring = rs.TransformObject(ring, rs.XformMultiply(T2, S2))
# delete the copy of the cross section curve
rs.DeleteObject(ci)
# add to list of ring pipes
ring_pipes.append(ring)
# create a rotation by the i'th angle
angle_i_deg = i*360.0/num_sides
Ri = rs.XformRotation2(angle_i_deg, [0, 0, 1], [0, 0, 0])
# transform the closest point by rotation and scale
pci = rs.PointTransform(pc,
rs.XformMultiply(rs.XformMultiply(Ri, T2), S1))
# add to list of points
points.append(pci)
# we have built up a list of points for a single spiral of struts to connect,
# now we need to pipe them all together and do the ArrayPolar thing around
# the z axis
# first build a single spiral of struts
strut_pipes = []
for i0 in range(num_levels-1):
i1 = i0+1
p0 = points[i0]
p1 = points[i1]
l01 = rs.AddLine(p0, p1)
pipe = rs.AddPipe(l01, [0, 1], [strut_rad, strut_rad], cap=2)
rs.DeleteObject(l01)
strut_pipes.append(pipe)
# then array polar around Z axis
all_strut_pipes = []
all_strut_pipes += strut_pipes
for j in range(1, num_sides):
angle_j_deg = j*360.0/num_sides
Rj = rs.XformRotation2(angle_j_deg, [0, 0, 1], [0, 0, 0])
all_strut_pipes += rs.TransformObjects(strut_pipes, Rj, copy=True)
# now just select all the objects we created
rs.SelectObjects(ring_pipes + all_strut_pipes)
# done!
print 'yay'
bed_temp = rs.GetReal("Bed temperture",60)
printspeed = rs.GetReal("Print speed",2500)
multi = rs.GetReal("Extrude multiply",1.0)
plane = Rhino.Geometry.Plane(box_point[0], box_point[1], box_point[2])
u_dir = rs.Distance(box_point[0], box_point[1])
v_dir = rs.Distance(box_point[1], box_point[2])
surface = rs.AddPlaneSurface(plane, u_dir, v_dir)
box_value = box_point[6]
array_z_number = int(box_value[2] // Layerheight)
if surface:
array_lines=[]
line = rs.AddLine(box_point[0],box_point[3])
array_number = int(box_value[0] // distance_x)
#Array line
if line:
i = 0
for i in range(array_number):
offset_x = distance_x * i
line_copy = (offset_x, 0, 0)
array_lines.append(rs.CopyObject( line, line_copy ))
n = 0
for n in range(array_z_number):
offset_z = Layerheight * n
surface_copy = (0,0,offset_z)
def ProfileCurveThings (treeIn, profCrv, profPointTreeOut, vectorTreeOut, vectorLineTree, tOut):
MaxCoord = GridCornerBig (treeIn)
x_max = MaxCoord.X
y_max = MaxCoord.Y
z_max = MaxCoord.Z
profPointList = []
profVecDirection = []
vectorList = []
curvatureTree = datatree [sys.Object] ()
directionTree = datatree [sys.Object] ()
Crv = rs.coercecurve (profCrv)
start = rs.CurveStartPoint (Crv)
end = rs.CurveEndPoint (Crv)
if start.Y > end.Y :
Crv = rh.Geometry.Curve.Reverse (Crv)
for i in range(treeIn.BranchCount):
treeBranch = treeIn.Branch(i)
treePath = treeIn.Path(i)
for j in range(treeBranch.Count):
elem = treeBranch[j]
x = elem.X
y = elem.Y
z = elem.Z
Yarany = y / y_max
crvPoint = rh.Geometry.Curve.PointAtNormalizedLength(profCrv, Yarany)
crvPoint = rs.coerce3dpoint (crvPoint)
t = rs.CurveClosestPoint (profCrv, crvPoint)
curvature = rs.CurveCurvature(profCrv, t)[4]
tangent = rs.CurveCurvature(profCrv, t)[1]
angle1 = rs.VectorAngle ([0,1,0], curvature)
angle2 = rs.VectorAngle ([0,1,0], tangent)
curvatureRot = curvature
curvatureRot = rs.coerce3dpoint (curvatureRot)
rs.RotateObject (curvatureRot, [0,0,0], 90, [0,0,1])
curvatureRot = rs.coerce3dvector (curvatureRot)
angle = rs.VectorAngle (curvatureRot, tangent)
curvature = rs.coerce3dpoint(curvature)
if 179.99 < angle <180.01:
angleDirect = 0
else:
angleDirect = 1
profPointList.append (crvPoint)
profVecDirection.append (angleDirect)
vectorList.append (curvature)
curvatureTree.Add (curvature, treePath)
profPointTreeOut.Add (crvPoint, treePath)
directionTree.Add (angleDirect, treePath)
tOut.Add (Yarany, treePath)
profPoint_x_List = []
for i in range (profPointList.Count):
profPoint = profPointList [i]
profPoint_x = profPoint.X
profPoint_x_List.append (profPoint_x)
a = 0
for i in range (profPoint_x_List.Count):
x = profPoint_x_List [i]
Xabs = math.fabs (x)
if Xabs > a:
b = i
a = Xabs
c = x
directByMax = profVecDirection [b]
vectorByMax = vectorList [b]
pointByMax = profPointList [b]
stableByMax = pointByMax
pointX = math.fabs (stableByMax.X)
moveByMax = pointByMax
unitVecByMax = rs.VectorUnitize (vectorByMax)
rs.MoveObject (moveByMax, 5* unitVecByMax)
moveX = math.fabs (moveByMax.X)
if moveX > pointX:
mirror = 1
else:
mirror = 0
for i in range(curvatureTree.BranchCount):
treeBranch = curvatureTree.Branch(i)
treePath = curvatureTree.Path(i)
pointBranch = profPointTreeOut.Branch(i)
directionBranch = directionTree.Branch(i)
for j in range(treeBranch.Count):
curvature = treeBranch [j]
crvPoint = pointBranch [j]
direction = directionBranch [j]
curvature = rs.coerce3dpoint(curvature)
if mirror == 0:
if direction != directByMax:
rs.RotateObject (curvature, [0,0,0], 180, [0,0,1])
if mirror == 1:
if direction == directByMax:
rs.RotateObject (curvature, [0,0,0], 180, [0,0,1])
curvature = rs.coerce3dvector(curvature)
unitCrvVec = rs.VectorUnitize (curvature)
if c < 0:
unitCrvVec2 = - unitCrvVec
else:
unitCrvVec2 = unitCrvVec
unitCrvVec = rs.coerce3dvector (unitCrvVec)
unitCrvVec2 = rs.coerce3dvector (unitCrvVec2)
moveCrvPoint = crvPoint + (unitCrvVec*5)
moveCrvPoint = rs.coerce3dpoint (moveCrvPoint)
vectorLine = rs.AddLine (crvPoint, moveCrvPoint)
vectorTreeOut.Add (unitCrvVec2, treePath)
vectorLineTree.Add (vectorLine, treePath)
#bs3 = lista de barras do banzo supeiro
#nbs3 = lista de nós do bazo superior
#dg3 e ndg3 para diagoains e bi3 e nbi3 para banzo inferior
bs3, nbs3, dg3, ndg3, bi3, nbi3 = Elementos_vigas(v3)
raAux = bi3[0]
rbAux = bs3[0]
pAux1 = nbi3[0]
pAux2 = nbs3[0]
#caso o numero de diagonais seja par
if len(dg3) % 2 == 0:
raAux = rs.coerceline(raAux)
#ponto de interseção das resultantes
pt_inter = gh.LineXLine(R1FG, raAux)[-1]
resultante_1.append(pt_inter)
#resultante entre banzo e diagonal
rbAux = rs.AddLine(pAux2, pt_inter)
rbAux = rs.coerceline(rbAux)
#vetor auxiliar para deslocamento gh.Move
pto_R1 = dic_1['R1'].PointAt(1)
vAux1 = rs.AddLine(pAux1, pto_R1)
vAux1 = rs.coerceline(vAux1)
#vetor auxiliar para deslocamento gh.Move
vAux2 = rs.AddLine(pAux2, pto_inicial_1)
vAux2 = rs.coerceline(vAux2)
#movendo linhas do FG para o PF
raAux = gh.Move(raAux, vAux1)[0]
rbAux = gh.Move(rbAux, vAux2)[0]
#ponto de interseção das reações no PF
pto_PF = gh.LineXLine(raAux, rbAux)[-1]
# - desenhando reação RA no PF
RA = rs.AddLine(pto_R1, pto_PF)
def Linha_force_extena(no, peso, conv):
lincarg = rs.AddLine(no, gh.Move(no, peso * conv * eY)[0])
rs.ReverseCurve(lincarg)
return lincarg
uDomain = rs.SurfaceDomain(srf, 0)
vDomain = rs.SurfaceDomain(srf, 1)
uMin = uDomain[0]
uMax = uDomain[1]
vMin = vDomain[0]
vMax = vDomain[1]
uRange = uMax - uMin
vRange = vMax - vMin
uStep = uRange / numberUCells
vStep = vRange / numberVCells
U = uMin
while U < uMax:
V = vMin
while V < vMax:
point = rs.EvaluateSurface(srf, U, V)
normal = rs.SurfaceNormal(srf, (U, V))
scaledNormal = rs.VectorScale(normal, 7)
pointOffSurface = rs.VectorAdd(point, scaledNormal)
myTrunk = rs.AddLine(point, pointOffSurface)
tree(myTrunk, 4, scaledNormal)
V += vStep
U += uStep
def goto(self, x, y):
prevPos = rs.PointCoordinates(self.point)
movement = rs.VectorCreate([x, y, 0], prevPos)
rs.MoveObject(self.point, movement)
currentPos = rs.PointCoordinates(self.point)
rs.AddLine(prevPos, currentPos)
import rhinoscriptsyntax as rs
layers = rs.LayerNames()
i = 0
for layer in layers:
a = (i, i, 0)
b = (i, i + 1, 0)
rs.CurrentLayer(layer)
rs.AddLine(a, b)
i += 1
for outerFacePoint in outerFacePoints:
for miterFacePoint in miterFacePoints:
if miterFacePoint == outerFacePoint:
intersectPoints.append(miterFacePoint)
param = rs.SurfaceClosestPoint(outerFace, intersectPoints[0])
normal = rs.SurfaceNormal(outerFace, param)
outerEndPoint = intersectPoints[0] + normal
outerVector = normal
param = rs.SurfaceClosestPoint(miterFace, intersectPoints[0])
normal = rs.SurfaceNormal(miterFace, param)
miterEndPoint = intersectPoints[0] + normal
miterVector = normal
line = rs.AddLine(outerEndPoint, miterEndPoint)
rs.HideObject(line)
midPoint = rs.CurveMidPoint(line)
normalVector = rs.VectorCrossProduct(outerVector, miterVector)
cutPlane = rs.AddCutPlane(solid, intersectPoints[0], midPoint, normal = normalVector)
rs.HideObject(cutPlane)
splitSolids = rs.SplitBrep(solid, cutPlane, True)
rs.CapPlanarHoles(splitSolids[0])
rs.CapPlanarHoles(splitSolids[1])
if rs.SurfaceArea(splitSolids[0]) > rs.SurfaceArea(splitSolids[1]):
rs.DeleteObject(splitSolids[1])
PlaceSmd(1.698669, 20.338546, 0.365022, 0.521305, 0.000000, 1)
PlaceSmd(2.301331, 18.861454, 0.365022, 0.521305, 0.000000, 1)
PlaceSmd(1.464244, 19.009055, 0.365022, 0.521305, 0.000000, 1)
PlaceSmd(2.418543, 19.526200, 0.373704, 0.472065, 0.000000, 1)
PlaceSmd(1.581457, 19.673800, 0.373704, 0.472065, 0.000000, 1)
PlaceInstance("SMLP36", 1.800000, 17.000000, False, 270.000000)
PlaceSmd(2.225000, 17.675000, 0.450000, 0.450000, 0.000000, 1)
PlaceSmd(1.375000, 17.675000, 0.450000, 0.450000, 0.000000, 1)
PlaceSmd(2.225000, 16.325000, 0.450000, 0.450000, 0.000000, 1)
PlaceSmd(1.375000, 16.325000, 0.450000, 0.450000, 0.000000, 1)
PlaceSmd(2.225000, 17.000000, 0.450000, 0.400000, 0.000000, 1)
PlaceSmd(1.375000, 17.000000, 0.450000, 0.400000, 0.000000, 1)
PlaceInstance("R0201", 4.064000, 21.082000, False, 270.000000)
PlaceSmd(4.064000, 21.337000, 0.430000, 0.280000, 0.000000, 1)
PlaceSmd(4.064000, 20.827000, 0.430000, 0.280000, 0.000000, 1)
curves = []
curves.append(
rs.AddArc3Pt((12.887300, 33.495000, 0), (21.112700, 33.495000, 0),
(17.000000, -0.000254, 0)))
curves.append(rs.AddLine((21.112700, 33.495000, 0), (12.887300, 33.495000, 0)))
curves.append(
rs.AddCircle3Pt((21.679000, 29.210000, 0), (23.279000, 29.210000, 0),
(22.479000, 30.010000, 0)))
curves.append(
rs.AddCircle3Pt((10.757000, 29.210000, 0), (12.357000, 29.210000, 0),
(11.557000, 30.010000, 0)))
curves.append(
rs.AddCircle3Pt((12.916000, 2.032000, 0), (14.516000, 2.032000, 0),
(13.716000, 2.832000, 0)))
PlacePCB(curves)
def draw_offset_line(p1, p2, offset_vector):
p1a = map(offset_coord, p1, offset_vector)
p2a = map(offset_coord, p2, offset_vector)
rs.AddLine(p1a, p2a)
def Grafo_Viga(viga, F_ext, Plano, dicPF, cirDir, Bconect, reac, nome_viga):
bs, nbs, dg, ndg, bi, nbi = Elementos_vigas(viga)
Bconect = rs.ExplodeCurves(Bconect)
ptos = []
dicUp2 = {}
for i in range(len(ndg) - 1):
no = ndg[i]
nomesNo = []
elementos = []
j = i // 2
#se banzo superior
if i % 2 == 1:
#Força extena
f_ext = F_ext[j]
p1 = f_ext.PointAt(0)
p2 = f_ext.PointAt(1)
f_ext = rs.AddLine(p1, p2)
nomesNo.append('P' + str(j) + '_' + nome_viga)
elementos.append(f_ext)
#banzo superior
nomesNo.append('bs' + str(j) + '_' + nome_viga)
elementos.append(bs[j])
if not j == 0:
nomesNo.append('bs' + str(j - 1) + '_' + nome_viga)
elementos.append(bs[j - 1])
#diagonais
nomesNo.append('dg' + str(i - 1) + '_' + nome_viga)
elementos.append(dg[i - 1])
nomesNo.append('dg' + str(i) + '_' + nome_viga)
elementos.append(dg[i])
#se banzo inferior
elif i % 2 == 0:
if i == 0:
#reação
p1 = reac.PointAt(0)
p2 = reac.PointAt(1)
reac = rs.AddLine(p1, p2)
nome_reac = 'R' + '_' + nome_viga
nomesNo.append(nome_reac)
elementos.append(reac)
if not j == 0:
#diagonal anterior
nomesNo.append('dg' + str(i - 1) + '_' + nome_viga)
elementos.append(dg[i - 1])
#banzo inferior anterior
nomesNo.append('bi' + str(j - 1) + '_' + nome_viga)
elementos.append(bi[j - 1])
#diagonal posterior
nomesNo.append('dg' + str(i) + '_' + nome_viga)
elementos.append(dg[i])
#banzo inferior posterior
nomesNo.append('bi' + str(j) + '_' + nome_viga)
elementos.append(bi[j])
#ordenar linhas de ação em torno do nó
nomesNo, elementos, countPF, countCalcular = OrdenaLinhasDeAcao(
no, cirDir, elementos, nomesNo, dicPF, Plano)
if countCalcular == 2:
dicUp, ptos1 = Cremona2(no, nomesNo, elementos, countPF, dicPF)
if countCalcular == 1:
dicUp, ptos1 = Cremona1(no, nomesNo, elementos, countPF, dicPF)
ptos += ptos1
dicPF.update(dicUp)
dicUp2.update(dicUp)
####------conector------####
# ùltimo no do banzo superior
no = nbs[-1]
#elementos do conector
elementos, nomesNo = elemntos_node(no, Bconect, 'bc', 'c')
#ùltimo elemento do banzo superior
elementos.append(bs[-1])
nomesNo.append('bs' + str(len(bs) - 1) + '_' + nome_viga)
#Força externa
f_ext = F_ext[len(F_ext) - 1]
p1 = f_ext.PointAt(0)
p2 = f_ext.PointAt(1)
f_ext = rs.AddLine(p1, p2)
nomesNo.append('P' + str(len(F_ext) - 1) + '_' + nome_viga)
elementos.append(f_ext)
#diagonal
if len(dg) % 2 == 1:
elementos.append(dg[-1])
nomesNo.append('dg' + str(len(dg) - 1) + '_' + nome_viga)
nomesNo, elementos, countPF, countCalcular = OrdenaLinhasDeAcao(
no, cirDir, elementos, nomesNo, dicPF, Plano)
dicUp, ptos1 = Cremona2(no, nomesNo, elementos, countPF, dicPF)
ptos += ptos1
dicPF.update(dicUp)
dicUp2.update(dicUp)
return dicUp2, ptos
#!/usr/bin/env python
import rhinoscriptsyntax as rs
import json
data = json.load(open('/Users/dtasse/src/city_blocks/rhino_data.json'))
for nghd in data:
# if nghd['name'] != 'Central Oakland':
# continue
# uncomment the above to try out one nghd
border_points = nghd['border']
curve = rs.AddPolyline(border_points)
surface = rs.AddPlanarSrf(curve)
extrusion_line = rs.AddLine((0,0,0), (0,0,3))
solid = rs.ExtrudeSurface(surface, extrusion_line)
rs.DeleteObjects([curve, surface, extrusion_line])
for pipe in nghd['pipes']:
p0 = pipe[0]
p1 = pipe[1]
pipe_line = rs.AddLine((p0[0], p0[1], -.5), (p1[0], p1[1], 3.5))
pipe = rs.AddPipe(pipe_line, 0, 0.5, cap=2)
rs.DeleteObject(pipe_line)
new_solid = None
try:
new_solid = rs.BooleanDifference([solid], [pipe])
except:
print "a boolean difference failed in " + nghd['name']
rs.DeleteObject(pipe)
continue
plate = rs.ExtrudeCurve(path, side)
rs.DeleteObject(path)
rs.DeleteObject(side)
return plate
def draw_rectangle1((x, y, z), theta):
t = 1
p = (x, y, z)
p0 = rs.AddPoint(p)
p1 = rs.CopyObject(p0, polar(0.115, theta + 90, 0))
p2 = rs.CopyObject(p0, polar(0.115, theta - 90, 0))
p3 = rs.CopyObject(p2, polar(1.0, theta, 0))
p4 = rs.CopyObject(p1, polar(1.0, theta, 0))
rec = [
rs.AddLine(p1, p2),
rs.AddLine(p2, p3),
rs.AddLine(p3, p4),
rs.AddLine(p4, p1)
]
rs.MoveObject(rec, polar(0.4, theta, 0))
rect = rs.RotateObjects(rec, (0, 0, z), 90, (x, y, 0), True)
rect = rs.MoveObjects(rect, polar(-1, theta, 0))
return rect
def wakame():
h1 = 3
h2 = 6
p1_box = []
p2_box = []
def __init__(self):
self.group_name = rs.AddGroup()
self.line_guid = rs.AddLine((0, 0, 0), (5, 5, 0))
rs.AddObjectToGroup(self.line_guid, self.group_name)
def wakame():
h1 = 3
h2 = 6
p1_box = []
p2_box = []
for t in rs.frange(0, 360, 10):
rg = ma.sin(ma.radians(t / 3 + 30)) / 2 + 1.3
hg = ma.sin(ma.radians(t / 2)) / 4 + 0.5
tt = 0.7
r_1 = 5
theta_1 = t
h_1 = 0
p_1 = polar(r_1, theta_1, h_1)
r_2 = 6
theta_2 = t
h_2 = 11 * hg
p_2 = polar(r_2, theta_2, h_2)
r_3 = 10 * rg
theta_3 = t
h_3 = 15 * hg
p_3 = polar(r_3, theta_3, h_3)
r_4 = 15 * rg
theta_4 = t
h_4 = 15 * hg
p_4 = polar(r_4, theta_4, h_4)
r_5 = 5 + tt
theta_5 = t
h_5 = 0
p_5 = polar(r_5, theta_5, h_5)
r_6 = 6 + tt
theta_6 = t
h_6 = 11 * hg - tt
p_6 = polar(r_6, theta_6, h_6)
r_7 = 10 * rg + tt
theta_7 = t
h_7 = 15 * hg - tt
p_7 = polar(r_7, theta_7, h_7)
r_8 = 15 * rg
theta_8 = t
h_8 = 15 * hg - tt
p_8 = polar(r_8, theta_8, h_8)
p_1_box = [p_1, p_2, p_3, p_4]
cu1 = rs.AddCurve(p_1_box)
p_2_box = [p_5, p_6, p_7, p_8]
cu2 = rs.AddCurve(p_2_box)
l1 = rs.AddLine(p_1, p_5)
l2 = rs.AddLine(p_4, p_8)
si = draw_sikaku(h1)
p1 = rs.CurveSurfaceIntersection(cu1, si)
p1_box.append(p1[0][1])
si = draw_sikaku(h2)
p2 = rs.CurveSurfaceIntersection(cu1, si)
p2_box.append(p2[0][1])
r1 = draw_rectangle1(p1[0][1], t)
r2 = draw_rectangle1(p2[0][1], t)
rs.RotateObjects(r1, (0, 0, 0), 90, polar(12, t, 0), False)
rs.MoveObjects(r1, polar(0, t, 0))
rs.RotateObjects(r1, (0, 0, 0), -t, None, False)
rs.MoveObjects(r1, (t * 0.12, t * 0.12, 0))
rs.RotateObjects(r2, (0, 0, 0), 90, polar(12, t, 0), False)
rs.MoveObjects(r2, polar(0, t, 0))
rs.RotateObjects(r2, (0, 0, 0), -t, None, False)
rs.MoveObjects(r2, (t * 0.12, t * 0.12, 0))
all = [l1, l2, cu1, cu2]
rs.RotateObjects(all, (0, 0, 0), 90, polar(12, t, 0), False)
rs.MoveObjects(all, polar(0, t, 0))
rs.RotateObjects(all, (0, 0, 0), -t, None, False)
rs.MoveObjects(all, (t * 0.12, t * 0.12, 0))
c1 = rs.AddInterpCurve(p1_box)
c2 = rs.AddInterpCurve(p2_box)
rs.ScaleObject(c1, (0, 0, h1), (1.2, 1.2, 1), True)
rs.ScaleObject(c2, (0, 0, h2), (1.1, 1.1, 1), True)
rs.ScaleObject(c1, (0, 0, h1), (0.6, 0.6, 0.75), True)
rs.ScaleObject(c2, (0, 0, h2), (0.9, 0.9, 1), True)
rs.DeleteObject(c1)
rs.DeleteObject(c2)
all = [cu1, cu2]
return all
import rhinoscriptsyntax as rs
curves = rs.ObjectsByType(4)
picturePlane = rs.GetObject("select the surface to use as the picture plane",
8)
eyePoint = rs.GetObject(
"select the point to use as the eye, the point at which the projected content will converge",
1)
#note that we wouldn't need an eye point if our projectors are paralell
for curve in curves:
pointsOnCurve = rs.DivideCurve(curve, 100)
intersectionPoints = []
for point in pointsOnCurve:
projector = rs.AddLine(point, eyePoint)
intersections = rs.CurveSurfaceIntersection(projector, picturePlane)
if intersections:
intersectionPoint = intersections[0][1]
intersectionPoints.append(intersectionPoint)
rs.AddPoints(intersectionPoints)
rs.AddInterpCurve(
intersectionPoints,
1) #what would be a more precise way to reconstruct the curve?
#add layer management to sep process content from finish content, and to use close/far distinction
def stairHeight(route, width=48, height=120):
"""
Makes a stair to specified height.
input: route(pline), width (num), height(num)
returns: Geo
"""
try:
rs.EnableRedraw(False)
rs.SimplifyCurve(route)
if route is None:
print("ERROR: No path selected")
return
if (rs.UnitSystem() == 2): #if mm
maxRiserHeight = 180
thickness = 200
if (rs.UnitSystem() == 4): #if m
maxRiserHeight = .180
thickness = .200
if (rs.UnitSystem() == 8): #if in"
maxRiserHeight = 7
thickness = 9
negativeBoo = False
if (height < 0):
#if the stair
negativeBoo = True
landingEdges = []
landings = []
segments = rs.ExplodeCurves(route)
if len(segments) < 1:
segments = [rs.CopyObject(route)]
landingHeight = []
geometry = []
#Check that all segments are lines
for i in range(0, len(segments)):
if not (rs.IsLine(segments[i])):
print(
"ERROR: This function only accepts lines. No arcs or nurb curves."
)
rs.DeleteObjects(segments)
return
#first landing edge
norm = rs.VectorRotate(rs.CurveTangent(segments[0], 0), 90, [0, 0, 1])
norm = rs.VectorScale(rs.VectorUnitize(norm), width / 2)
side1Pt = rs.VectorAdd(rs.CurveStartPoint(segments[0]), norm)
side2Pt = rs.VectorAdd(rs.CurveStartPoint(segments[0]), -norm)
landingEdges.append(rs.AddLine(side1Pt, side2Pt))
#middle landing edges
for i in range(0, len(segments) - 1):
edgeList, landing = rampIntersection(segments[i], segments[i + 1],
width)
landingEdges.append(edgeList[0])
landingEdges.append(edgeList[1])
landings.append(landing)
#last landing edge
norm = rs.VectorRotate(
rs.CurveTangent(segments[-1], rs.CurveParameter(segments[-1], 1)),
90, [0, 0, 1])
norm = rs.VectorScale(rs.VectorUnitize(norm), width / 2)
side1Pt = rs.VectorAdd(rs.CurveEndPoint(segments[-1]), norm)
side2Pt = rs.VectorAdd(rs.CurveEndPoint(segments[-1]), -norm)
landingEdges.append(rs.AddLine(side1Pt, side2Pt))
#Add risers
riserCrvs = []
treadVecs = []
numRisersPerRun = []
numRisers = abs(int(math.ceil(height / maxRiserHeight)))
risersSoFar = 0
totalRun = getTotalRun(landingEdges)
optTreadDepth = totalRun / (numRisers - 1)
#2R+T = 635
riserHeight = height / numRisers
if (negativeBoo):
curRiserHeight = 0
else:
curRiserHeight = riserHeight
for i in range(0, len(landingEdges), 2): #find numRisers in each run
a = rs.CurveMidPoint(landingEdges[i])
b = rs.CurveMidPoint(landingEdges[i + 1])
runDist = rs.Distance(a, b)
numRisersThisRun = int(round((runDist / optTreadDepth), 0))
if (numRisersThisRun == 0):
numRisersThisRun = 1
if (i == len(landingEdges) -
2): #if last run, add the rest of the risers
numRisersThisRun = numRisers - risersSoFar
else:
risersSoFar = risersSoFar + numRisersThisRun
numRisersPerRun.append(numRisersThisRun)
#Create Risers on Plan
for i in range(0, len(landingEdges), 2):
run = []
a = rs.CurveMidPoint(landingEdges[i])
b = rs.CurveMidPoint(landingEdges[i + 1])
centerStringer = rs.AddLine(a, b)
runDist = rs.Distance(a, b)
numRisersThisRun = numRisersPerRun[int(i / 2)] #risers in this run
tarPts = rs.DivideCurve(centerStringer,
numRisersThisRun,
create_points=False)
rs.DeleteObject(centerStringer)
for j in range(0, numRisersThisRun + 1):
if (j == 0):
treadVecs.append(rs.VectorCreate(tarPts[0], tarPts[1]))
transVec = rs.VectorCreate(tarPts[0], tarPts[j])
run.append(rs.CopyObject(landingEdges[i], -transVec))
riserCrvs.append(run)
print('Flight {0} has {1} risers: {3}" tall, Treads: {2}" deep'.
format(
int(i / 2) + 1, numRisersThisRun,
rs.VectorLength(treadVecs[int(i / 2)]), riserHeight))
#Move riser edges vertically
for i in range(0, len(riserCrvs)):
triangles = []
if (negativeBoo):
for j in range(0, len(riserCrvs[i]) - 1):
#if stairs descending
rs.MoveObject(
riserCrvs[i][j],
rs.VectorAdd([0, 0, curRiserHeight], -treadVecs[i]))
riserGeo = rs.ExtrudeCurveStraight(riserCrvs[i][j],
[0, 0, 0],
[0, 0, riserHeight])
treadGeo = rs.ExtrudeCurveStraight(riserCrvs[i][j],
[0, 0, 0], treadVecs[i])
stPt = rs.AddPoint(rs.CurveStartPoint(riserCrvs[i][j]))
pt1 = rs.CopyObject(
stPt, [0, 0, riserHeight]) #first riser in run
pt2 = rs.CopyObject(stPt, treadVecs[i]) #last riser in run
triCrv = rs.AddPolyline([stPt, pt1, pt2, stPt])
triangles.append(rs.AddPlanarSrf(triCrv))
geometry.append(riserGeo) #riser
geometry.append(treadGeo) #tread
curRiserHeight = curRiserHeight + riserHeight
rs.MoveObject(riserCrvs[i][j], treadVecs[i])
#cleanup
rs.DeleteObject(triCrv)
rs.DeleteObject(stPt)
rs.DeleteObject(pt1)
rs.DeleteObject(pt2)
else:
for j in range(0, len(riserCrvs[i]) - 1):
#if stairs ascend
rs.MoveObject(riserCrvs[i][j], [0, 0, curRiserHeight])
stPt = rs.AddPoint(rs.CurveStartPoint(riserCrvs[i][j]))
pt1 = rs.CopyObject(
stPt, [0, 0, -riserHeight]) #first riser in run
pt2 = rs.CopyObject(stPt,
-treadVecs[i]) #last riser in run
triCrv = rs.AddPolyline([stPt, pt1, pt2, stPt])
triangles.append(rs.AddPlanarSrf(triCrv))
riserGeo = rs.ExtrudeCurveStraight(riserCrvs[i][j],
[0, 0, 0],
[0, 0, -riserHeight])
treadGeo = rs.ExtrudeCurveStraight(riserCrvs[i][j],
[0, 0, 0],
-treadVecs[i])
geometry.append(riserGeo) #riser
geometry.append(treadGeo) #tread
curRiserHeight = curRiserHeight + riserHeight
#cleanup
rs.DeleteObject(triCrv)
rs.DeleteObject(stPt)
rs.DeleteObject(pt1)
rs.DeleteObject(pt2)
#Make Stringer
if (negativeBoo):
firstStartPt = rs.AddPoint(rs.CurveStartPoint(riserCrvs[i][0]))
lastStartPt = rs.AddPoint(rs.CurveStartPoint(riserCrvs[i][-2]))
#rs.MoveObject(firstStartPt, [0,0,riserHeight]) #first riser in run
rs.MoveObject(lastStartPt, -treadVecs[i]) #last riser in run
rs.MoveObject(lastStartPt,
[0, 0, riserHeight]) #last riser in run
else:
firstStartPt = rs.AddPoint(rs.CurveStartPoint(riserCrvs[i][0]))
lastStartPt = rs.AddPoint(rs.CurveStartPoint(riserCrvs[i][-2]))
rs.MoveObject(firstStartPt,
[0, 0, -riserHeight]) #first riser in run
rs.MoveObject(lastStartPt, -treadVecs[i]) #last riser in run
stringerCrv = rs.AddLine(firstStartPt, lastStartPt)
stringerSrf = rs.ExtrudeCurveStraight(stringerCrv, [0, 0, 0],
[0, 0, -thickness])
triangles.append(stringerSrf)
stringer = makeFace(triangles)
stringerVec = rs.VectorCreate(rs.CurveEndPoint(riserCrvs[i][0]),
rs.CurveStartPoint(riserCrvs[i][0]))
underside = rs.ExtrudeCurveStraight(
stringerCrv, rs.CurveStartPoint(riserCrvs[i][0]),
rs.CurveEndPoint(riserCrvs[i][0]))
geometry.append(rs.MoveObject(underside, [0, 0, -thickness]))
geometry.append(rs.CopyObject(stringer, stringerVec))
geometry.append(stringer)
#cleanup
rs.DeleteObject(firstStartPt)
rs.DeleteObject(lastStartPt)
rs.DeleteObject(stringerCrv)
rs.DeleteObject(stringerSrf)
#Move Landings
lastLandingHeight = 0
for i in range(0, len(segments) - 1):
landingHeight = lastLandingHeight + numRisersPerRun[i] * riserHeight
rs.MoveObject(landings[i], [0, 0, landingHeight])
landingTopSrf = rs.AddPlanarSrf(landings[i])
landingBtmSrf = rs.CopyObject(landingTopSrf, [0, 0, -thickness])
geometry.append(landingTopSrf)
geometry.append(landingBtmSrf)
lastLandingHeight = landingHeight
landingEdgesToEx = rs.ExplodeCurves(landings[i])
geometry.append(
rs.ExtrudeCurveStraight(landingEdgesToEx[1], [0, 0, 0],
[0, 0, -thickness]))
geometry.append(
rs.ExtrudeCurveStraight(landingEdgesToEx[2], [0, 0, 0],
[0, 0, -thickness]))
rs.DeleteObjects(landingEdgesToEx)
#Create final geometry
joinedGeo = rs.JoinSurfaces(geometry, True)
holes = rs.DuplicateSurfaceBorder(joinedGeo)
cap = rs.AddPlanarSrf(holes)
newGeo = rs.ExplodePolysurfaces(joinedGeo, True)
for i in cap:
newGeo.append(i)
FinalGeo = rs.JoinSurfaces(newGeo, True)
#cleanup
try:
rs.DeleteObjects(segments)
except:
rs.DeleteObject(segments)
rs.DeleteObjects(holes)
rs.DeleteObjects(landings)
rs.DeleteObjects(landingEdges)
for i in riserCrvs:
rs.DeleteObjects(i)
rs.EnableRedraw(True)
return FinalGeo
except:
print "Error"
return None
def AddVector(vecdir, base_point=None):
# Draws a vector (for visualization purposes)
base_point = base_point or [0, 0, 0]
tip_point = rs.PointAdd(base_point, vecdir)
line = rs.AddLine(base_point, tip_point)
if line: return rs.CurveArrows(line, 2) # adds an arrow tip
import rhinoscriptsyntax as rs
num = rs.GetReal("line length x-dir")
line = rs.AddLine([9, 7, 2], [num, 0, 0])
print "curve inserted with id", line
def Main():
rectangle = rs.GetObject(
"Select rectangle to create mortise and tenon from", rs.filter.curve,
True, True)
if rs.IsCurveClosed(rectangle):
x = 0
else:
print "Failed....Curve must be closed and rectangular"
return
if rs.IsCurvePlanar(rectangle):
x = 0
else:
print "Failed....Curve must be planar"
return
lines = rs.ExplodeCurves(rectangle)
count = 0
for line in lines:
count = count + 1
if count != 4:
print "Failed....To many line segments, redraw rectangle"
return
if rs.IsLine(lines[0]):
x = 0
else:
print "Failed....Curve must be rectangular"
return
if rs.IsLine(lines[1]):
x = 0
else:
print "Failed....Curve must be rectangular"
return
if rs.IsLine(lines[2]):
x = 0
else:
print "Failed....Curve must be rectangular"
return
if rs.IsLine(lines[3]):
x = 0
else:
print "Failed....Curve must be rectangular"
return
face = rs.GetObject("Select tenon surface", rs.filter.surface, False, True,
None, True)
length = rs.GetReal("Enter tenon length", number=None)
if length and length != 0:
x = 0
else:
print "Failed....No length was entered"
return
depth = rs.GetReal("Enter mortise depth", number=length + 0.05)
if depth and depth != 0:
x = 0
else:
print "Failed....No depth was entered"
return
fit = rs.GetReal("Enter mortise fit", number=0.01)
line1 = rs.AddLine(rs.CurveStartPoint(lines[0]),
rs.CurveEndPoint(lines[0]))
line2 = rs.AddLine(rs.CurveStartPoint(lines[1]),
rs.CurveEndPoint(lines[1]))
line3 = rs.AddLine(rs.CurveStartPoint(lines[2]),
rs.CurveEndPoint(lines[2]))
line4 = rs.AddLine(rs.CurveStartPoint(lines[3]),
rs.CurveEndPoint(lines[3]))
rs.DeleteObjects(lines)
lines = line1, line2, line3, line4
if rs.CurveLength(lines[0]) > rs.CurveLength(lines[1]):
smallside = rs.CurveLength(lines[1])
longside1 = lines[0]
longside2 = lines[2]
else:
smallside = rs.CurveLength(lines[0])
longside1 = lines[1]
longside2 = lines[3]
filletRadius = smallside / 2
fillet1 = rs.CurveFilletPoints(lines[0], lines[1])
fillet2 = rs.CurveFilletPoints(lines[1], lines[2])
fillet3 = rs.CurveFilletPoints(lines[2], lines[3])
fillet4 = rs.CurveFilletPoints(lines[3], lines[0])
arc1 = rs.AddFilletCurve(lines[0], lines[1], radius=filletRadius)
arc2 = rs.AddFilletCurve(lines[1], lines[2], radius=filletRadius)
arc3 = rs.AddFilletCurve(lines[2], lines[3], radius=filletRadius)
arc4 = rs.AddFilletCurve(lines[3], lines[0], radius=filletRadius)
arcs = arc1, arc2, arc3, arc4
arcs = rs.JoinCurves(arcs)
arcEnd1 = rs.CurveEndPoint(arcs[0])
arcStart1 = rs.CurveStartPoint(arcs[0])
arcEnd2 = rs.CurveEndPoint(arcs[1])
arcStart2 = rs.CurveStartPoint(arcs[1])
if rs.Distance(arcEnd1, arcEnd2) > rs.Distance(arcEnd1, arcStart2):
temp = arcEnd2
arcEnd2 = arcStart2
arcStart2 = temp
line1 = rs.AddLine(arcEnd1, arcEnd2)
line2 = rs.AddLine(arcStart1, arcStart2)
curves = line1, arcs[0], arcs[1], line2
tenonOut = rs.JoinCurves(curves)
tenonSurf = rs.AddPlanarSrf(tenonOut)
point = rs.SurfacePoints(face)
param = rs.SurfaceClosestPoint(face, point[0])
normal = rs.SurfaceNormal(face, param)
normal = normal * length
vect = rs.AddLine(arcEnd1, arcEnd1 + normal)
tenon = rs.ExtrudeSurface(tenonSurf, vect, cap=True)
rs.DeleteObjects(curves)
arcs = arc1, arc2, arc3, arc4
rs.DeleteObjects(arcs)
rs.DeleteObject(rectangle)
rs.ExtendCurveLength(longside1, 0, 0, fit)
rs.ExtendCurveLength(longside1, 0, 1, fit)
rs.ExtendCurveLength(longside2, 0, 0, fit)
rs.ExtendCurveLength(longside2, 0, 1, fit)
if rs.Distance(rs.CurveEndPoint(longside1),
rs.CurveEndPoint(longside2)) < rs.Distance(
rs.CurveStartPoint(longside1),
rs.CurveEndPoint(longside2)):
line1Start = rs.CurveEndPoint(longside1)
line1End = rs.CurveEndPoint(longside2)
line2Start = rs.CurveStartPoint(longside1)
line2End = rs.CurveStartPoint(longside2)
else:
line1Start = rs.CurveStartPoint(longside1)
line1End = rs.CurveEndPoint(longside2)
line2Start = rs.CurveEndPoint(longside1)
line2End = rs.CurveStartPoint(longside2)
shortside1 = rs.AddLine(line1Start, line1End)
shortside2 = rs.AddLine(line2Start, line2End)
arc1 = rs.AddFilletCurve(longside1, shortside1, radius=filletRadius)
arc2 = rs.AddFilletCurve(shortside1, longside2, radius=filletRadius)
arc3 = rs.AddFilletCurve(longside2, shortside2, radius=filletRadius)
arc4 = rs.AddFilletCurve(shortside2, longside1, radius=filletRadius)
arcs = arc1, arc2, arc3, arc4
arcs = rs.JoinCurves(arcs)
arcEnd1 = rs.CurveEndPoint(arcs[0])
arcStart1 = rs.CurveStartPoint(arcs[0])
arcEnd2 = rs.CurveEndPoint(arcs[1])
arcStart2 = rs.CurveStartPoint(arcs[1])
if rs.Distance(arcEnd1, arcEnd2) > rs.Distance(arcEnd1, arcStart2):
temp = arcEnd2
arcEnd2 = arcStart2
arcStart2 = temp
line1 = rs.AddLine(arcEnd1, arcEnd2)
line2 = rs.AddLine(arcStart1, arcStart2)
curves = line1, arcs[0], arcs[1], line2
mortiseOut = rs.JoinCurves(curves)
mortiseSurf = rs.AddPlanarSrf(mortiseOut)
param = rs.SurfaceClosestPoint(face, point[0])
normal = rs.SurfaceNormal(face, param)
normal = normal * depth
vect = rs.AddLine(arcEnd1, arcEnd1 + normal)
mortise = rs.ExtrudeSurface(mortiseSurf, vect, cap=True)
rs.DeleteObject(shortside1)
rs.DeleteObject(shortside2)
rs.DeleteObject(mortiseOut)
rs.DeleteObject(mortiseSurf)
rs.DeleteObjects(curves)
rs.DeleteObjects(lines)
arcs = arc1, arc2, arc3, arc4
rs.DeleteObjects(arcs)
rs.DeleteObject(rectangle)
rs.DeleteObject(tenonOut)
rs.DeleteObject(tenonSurf)
return
def AddVector(base, vec):
tip = rs.PointAdd(base, vec)
line = rs.AddLine(base, tip)
rs.CurveArrows(line, 2)
# Structure
mdl = Structure(name='beam_simple', path='C:/Temp/')
# Clear
clear_layers(['elset_lines', 'nset_left', 'nset_right', 'nset_weights'])
rs.EnableRedraw(False)
# Lines
L = 1.0
m = 100
x = [i * L / m for i in range(m + 1)]
rs.CurrentLayer('elset_lines')
[rs.AddLine([x[i], 0, 0], [x[i + 1], 0, 0]) for i in range(m)]
# Points
n = 5
rs.CurrentLayer('nset_left')
rs.AddPoint([0, 0, 0])
rs.CurrentLayer('nset_right')
rs.AddPoint([L, 0, 0])
rs.CurrentLayer('nset_weights')
for xi in x[n::n]:
rs.AddPoint([xi, 0, 0])
rs.EnableRedraw(True)
# Elements
def render(self):
#rs.AddSphere (self.pos, rnd.random() * 1)
#rs.AddPoint (self.pos)
rs.AddLine(self.pos, self.posP)
bottom_planes.append(planes)
# Rotate planes on ZAxis
rotated_planes = []
for i in bottom_planes:
plane = rs.ViewCPlane()
rndm_angle = random.randrange(-5, 5)
rotated_z = rs.RotatePlane(i, rndm_angle, planes.ZAxis)
# Tilt control
tilt = random.randrange(-5, 5) * max_tilt
rotated_x = rs.RotatePlane(rotated_z, tilt, planes.XAxis)
rotated_planes.append(rotated_x)
# Create solids
solids = []
lines = []
for j in range(0, len(rotated_planes)):
line = rs.AddLine(bottom_pts[j], top_pts[j])
lines.append(line)
tilt = random.randrange(-5, 5) * max_tilt
rot_lines = rs.RotateObject(line, bottom_pts[j], tilt, planes.XAxis, copy=False)
rct = rs.AddRectangle( rotated_planes[j],
rg.Interval(-0.5 * block_w, 0.5 * block_w),
rg.Interval(-0.5 * block_d, 0.5 * block_d))
solid = rs.ExtrudeCurve(rct, rot_lines)
sld = rs.CapPlanarHoles(solid)
solids.append(solid)
print('Ivan Perez | [email protected] | Bogotá | Colombia')
import rhinoscriptsyntax as rs
from random import random as r
from time import sleep
from Rhino import RhinoApp
rs.AddRectangle(rs.WorldXYPlane(), 4, 4)
for i in range(1, 4):
line = rs.AddLine([i, 0, 0], [i, 4, 0])
rs.ObjectLinetype(line, 'Hidden')
line = rs.AddLine([0, i, 0], [4, i, 0])
rs.ObjectLinetype(line, 'Hidden')
rs.AddTextDot('<', [1, 6, 0])
rs.AddTextDot('^', [2, 7, 0])
rs.AddTextDot('>', [3, 6, 0])
rs.AddTextDot('v', [2, 5, 0])
rs.ZoomExtents()
winText = 0
win = 0
pts = [[0 for j in range(4)] for i in range(4)]
c = 0
d = 0
recs = [[0 for j in range(4)] for i in range(4)]
tags = [[0 for j in range(4)] for i in range(4)]
def fill(pts):
a = int(r() * 4)