def __init__(self, hexmodel, maincolor):
self.hexes = hexmodel
self.color = random_color_range(maincolor, 30)
self.pos = self.hexes.rand_cell()
self.size = randint(2, 5)
self.dir = rand_dir()
self.life = randint(50, 200) # how long a ball is around
def __init__(self, hexmodel):
self.name = "Branches"
self.hexes = hexmodel
self.live_branches = [] # List that holds Branch objects
self.main_color = random_color()
self.main_dir = rand_dir()
self.speed = 0.1
def move_ball(self):
while True:
new_spot = hex_in_direction(self.pos, self.dir) # Where is the ball going?
if self.hexes.cell_exists(new_spot): # Is new spot off the board?
self.pos = new_spot # On board. Update spot
break
self.dir = rand_dir() # Off board. Pick a new direction
def __init__(self, hexmodel):
self.name = "Center Branches"
self.hexes = hexmodel
self.live_branches = [] # List that holds Branch objects
self.main_color = random_color()
self.main_dir = rand_dir()
self.inversion = randint(0, 1) # Toggle for effects
self.speed = 0.05
def __init__(self, hexmodel, h):
self.hexes = hexmodel
self.h = h
self.pos = (h, randint(-2, 2), randint(-2, 2))
self.color = random_color()
self.direction = rand_dir()
self.turny = 3
self.speedy = 15
self.shooty = 3
def move_eye_ball(self):
if self.ball_move == 10:
if one_in(30):
self.ball_move = rand_dir()
else:
self.ball_pos = hex_in_direction(self.ball_pos, self.ball_move)
if self.ball_pos in hex_ring((self.h, 0, 0), 3):
self.ball_move = (self.ball_move + 3) % 6
if self.ball_pos == (self.h, 0, 0):
self.ball_move = 10
if self.ray == -1:
self.ray_pos = self.ball_pos
self.ray = 0 # Start the eye-ray
self.ray_color = random_hue()
if one_in(20):
self.big_ball = not self.big_ball # Change pupil size
def next_frame(self):
while True:
for h in range(NUM_HEXES):
self.live_branches.append(
Branch(hexmodel=self.hexes,
position=(get_center(h)),
color=self.main_color,
direction=rand_dir(),
life=0))
for branch in self.live_branches:
branch.draw_branch(self.inversion)
# Chance for branching
if one_in(20): # Create a fork
self.live_branches.append(
Branch(hexmodel=self.hexes,
position=branch.pos,
color=branch.color,
direction=turn_left_or_right(branch.direction),
life=branch.life))
if not branch.move_branch(): # branch has moved off the board
self.live_branches.remove(branch) # kill the branch
# Randomly change the main color
if one_in(10):
self.main_color = random_color_range(self.main_color, 0.2)
yield self.speed # random time set in init function
# class CenterBranches(object):
# def __init__(self, hexmodel):
# self.name = "Center Branches"
# self.hexes = hexmodel
# self.livebranches = [] # List that holds Branch objects
# self.speed = 0.05
# self.maincolor = randint(0,255) # Main color of the show
# self.inversion = randint(0,1) # Toggle for effects
#
# def next_frame(self):
#
# while (True):
#
# # Add a center branch
#
# newbranch = Branch(self.hexes,
# self.maincolor, # color
# (0,0), # center
# randint(0,5), # Random initial direction
# 0) # Life = 0 (new branch)
# self.livebranches.append(newbranch)
#
# for b in self.livebranches:
# b.draw_branch(self.inversion)
#
# # Chance for branching
# if randint(0,20) == 1: # Create a fork
# if randint(0,1) == 1:
# newdir = (5 + b.dir - 1) % 5 # fork left
# else:
# newdir = (b.dir + 1) % 5 # fork right
# newbranch = Branch(self.hexes, b.color, b.pos, newdir, b.life)
# self.livebranches.append(newbranch)
#
# if b.move_branch() == False: # branch has moved off the board
# self.livebranches.remove(b) # kill the branch
#
# self.hexes.go()
#
# # Randomly change the main color
# if randint(0,10) == 1:
# self.maincolor = (255 + randint(-10,10) + self.maincolor) % 255
#
#
# yield self.speed # random time set in init function