pygame.init()
# size = width, height = 320, 400
size = width, height = 625, 400
xoffset = 50
yoffset = 50
offset = xoffset/2, yoffset/2
screen = pygame.display.set_mode(size)
black = 0, 0, 0
white = 255, 255, 255
bgcolor = white
# We can now create a camera object. This will be
# what we use to draw things to the screen.
camera = math3d.camera(width-xoffset, height-yoffset)
# We will be rotating eight different cubes. The
# following vectors will be used to position each
# cube.
vec = math3d.vector
positions = [ vec(50, 50, 50), vec(-50, 50, 50),
vec(-50, -50, 50), vec(50, -50, 50),
vec(50, 50, -50), vec(-50, 50, -50),
vec(-50, -50, -50), vec(50, -50, -50) ]
cube = []
for i in range(8):
cube.append(math3d.wireframe('littlecube.dat',
pos = positions[i], axis=positions[(i+1)%8]))
# For visual reference, we will also draw a
pygame.init()
# size = width, height = 320, 400
size = width, height = 625, 400
xoffset = 50
yoffset = 50
offset = xoffset/2, yoffset/2
screen = pygame.display.set_mode(size)
black = 0, 0, 0
white = 255, 255, 255
bgcolor = white
# We can now create a camera object. This will be
# what we use to draw things to the screen.
camera = math3d.camera(width-xoffset, height-yoffset,
pos=math3d.vector(-500, 0, 0))
# We will be rotating eight different cubes. The
# following vectors will be used to position each
# cube.
# All of the following is used by the "residue"
# from my initial program
vec = math3d.vector
positions = [ vec(50, 50, 50), vec(-50, 50, 50),
vec(-50, -50, 50), vec(50, -50, 50),
vec(50, 50, -50), vec(-50, 50, -50),
vec(-50, -50, -50), vec(50, -50, -50) ]
cube = []
cube.append(math3d.wireframe('worm_middle_segment.dat',
