import simple3d
import random
import sys
import math
# radians for rotations
theta = math.radians(180 / 43) # divide semicircle into 43 segments
num_cubes = 86
# vertical displacement per cube
incr = 0.02
# cube size
edge_len = 0.3
print('init...')
fish = simple3d.Simple3d()
first_pt = [0.0, 0.0, 3.0]
fish.append_vertex(first_pt[0], first_pt[1], first_pt[2]) #0
alpha = 1
while alpha < (8 * num_cubes):
new_pt = simple3d.rotY(first_pt, alpha * theta)
#new_pt[2] += (alpha*incr)
print('alpha, y, z = ', alpha, new_pt[1], new_pt[2])
# vertices
fish.append_vertex(new_pt[0], new_pt[1], new_pt[2]) #1
fish.append_vertex(new_pt[0] + edge_len, new_pt[1], new_pt[2]) #2
fish.append_vertex(new_pt[0] + edge_len, new_pt[1] + edge_len,
new_pt[2]) #3
fish.append_vertex(new_pt[0] + edge_len, new_pt[1] + edge_len,
new_pt[2] + edge_len) #4
if len(sys.argv) > 1 :
num_bldgs = int(sys.argv[1])
ground_level = -0.3
min_height = 0.1
max_height = 1.
min_width = 0.2
max_width = 1.
min_depth = 0.2
max_depth = 1.
x = -1.
z = -0.2
spacing = 0.02
city = simple3d.Simple3d()
for i in range(num_bldgs) :
max_z_this_street = 0
for j in range(num_bldgs) :
width = min_width + random.random() * max_width
depth = min_depth + random.random() * max_depth
# keep track of the "deepest" bldg on this "street"
if depth > max_z_this_street : max_z_this_street = depth
height = min_height + random.random() * max_height
bldg = Bldg(width, height, depth, [x, ground_level, z])
city.assimilate(bldg)
x += (width + spacing)
x = -1.
# make sure the next "street" doesn't overlap any bldg on this one
z += (max_z_this_street + spacing)