def __init__(self, screen):
x = 0
y = 770
self.lis = list()
for i in range(20):
self.lis.append(floor_class.Floor(x, y, screen))
x += 75
self.lis.append(start.Start(75, 748, screen))
self.lis.append(life.Life(230, 30, screen))
self.lis.append(life.Life(130, 30, screen))
self.lis.append(floor_class.Floor(-75, 697, screen))
self.lis.append(life.Life(30, 30, screen))
self.lis.append(green_door.GDoor(2000, 2000, screen))
self.lis.append(door.Door(1200, 581, screen))
self.lis.append(green_button.GreenButton(2000, 2000, screen))
self.lis.append(red_button.RedButton(400, 728, screen))
self.lis.append(player_class.Player(100, 465, screen))
def __init__(self, x, y, l):
super().__init__()
self.game = life.Life(x, y, l) #start up with the 10x10 field, no looping screen
self.drawCells()
grid = QGridLayout()
for i in range(self.game.length()):
for j in range(self.game.width()):
grid.addWidget(self.cellmatrix[i][j], i, j)
self.setLayout(grid)
def test_run(self):
mock_world_file = """<?xml version="1.0" encoding="UTF-8"?>
<life>
<world>
<cells>2</cells> // Dimension of the square "world"
<species>2</species> // Number of distinct species
<iterations>10</iterations> // Number of iterations to be calculated
</world>
<organisms>
<organism>
<x_pos>0</x_pos> // x position
<y_pos>0</y_pos> // y position
<species>1</species> // Species type
</organism>
<organism>
<x_pos>1</x_pos>
<y_pos>0</y_pos>
<species>1</species>
</organism>
<organism>
<x_pos>0</x_pos>
<y_pos>1</y_pos>
<species>1</species>
</organism>
<organism>
<x_pos>1</x_pos>
<y_pos>1</y_pos>
<species>2</species>
</organism>
</organisms>
</life>"""
with open('tmp_seed.xml', 'w') as text_file:
text_file.write(mock_world_file)
self.simulation = life.Life('tmp_seed.xml',
output_xml_file='xml/out.xml')
expected_world = [
life.Organism(0, 0, 1).type,
life.Organism(0, 1, 1).type,
life.Organism(1, 0, 1).type,
life.Organism(1, 1, 1).type
]
run_world = []
for x in self.simulation.run():
for cell in x:
if cell:
run_world.append(cell.type)
else:
run_world.append(None)
self.assertEqual(run_world, expected_world)
def __init__(self, screen, col_life):
x = 0
y = 770
self.col_life = col_life
self.lis = list()
for i in range(20):
self.lis.append(floor_class.Floor(x, y, screen))
x += 75
self.lis.append(start.Start(75, 748, screen))
self.lis.append(fire.Fire(200, 737, screen))
self.lis.append(fire.Fire(900, 737, screen))
self.lis.append(fire.Fire(981, 737, screen))
self.lis.append(cube.Cube(500, 684, screen))
self.lis.append(cube.Cube(586, 684, screen))
self.lis.append(cube.Cube(586, 598, screen))
self.lis.append(cube.Cube(672, 684, screen))
self.lis.append(cube.Cube(672, 598, screen))
self.lis.append(cube.Cube(758, 684, screen))
self.lis.append(fire.Fire(758, 655, screen))
self.lis.append(flat.Flat(930, 500, screen))
if self.col_life == 3:
self.lis.append(life.Life(230, 30, screen))
self.lis.append(life.Life(130, 30, screen))
self.lis.append(life.Life(30, 30, screen))
elif self.col_life == 2:
self.lis.append(life.Life(130, 30, screen))
self.lis.append(life.Life(30, 30, screen))
elif self.col_life == 1:
self.lis.append(life.Life(30, 30, screen))
self.lis.append(die_player.DPlayer(2000, 2000, screen))
self.lis.append(green_door.GDoor(2000, 2000, screen))
self.lis.append(door.Door(1300, 581, screen))
self.lis.append(green_button.GreenButton(2000, 2000, screen))
self.lis.append(red_button.RedButton(1005, 452, screen))
self.lis.append(player_class.Player(100, 465, screen))
def breed(self):
num_alive = self.num_life - self.upd_num
new_life_array = []
for idx in range(self.upd_num):
idx1, idx2 = random.randint(0, num_alive - 1), random.randint(
0, num_alive - 1)
father1, father2 = self.life_array[idx1], self.life_array[idx2]
# print(father1.__gene__(), father2.__gene__())
chd_gene1 = cross_gene(father1.__gene__(), father2.__gene__())
new_life_array.append(life.Life(chd_gene1))
# new_life_array.append(Life(chd_gene2))
self.life_array = new_life_array + self.life_array_alive
return
def __init__(self, num_life, gene_init, upd_prob, mutation_prob):
self.num_life = num_life
self.life_array = []
self.upd_num = int(upd_prob * num_life)
self.mutation_num = int(mutation_prob * num_life)
self.life_array_alive = []
self.mutation_idx_buf = [idx for idx in range(num_life)]
for idx in range(num_life):
gene_tmp = [x for x in gene_init]
random.shuffle(gene_tmp)
# print(gene_tmp)
self.life_array.append(life.Life(gene_tmp))
return
def __init__(self, screen, col_life):
self.lis = []
self.col_life = col_life
self.lis.append(floor_class.Floor(0, 600, screen))
self.lis.append(floor_class.Floor(75, 600, screen))
self.lis.append(floor_class.Floor(150, 600, screen))
self.lis.append(floor_class.Floor(225, 600, screen))
self.lis.append(floor_class.Floor(225, 675, screen))
self.lis.append(floor_class.Floor(225, 750, screen))
self.lis.append(floor_class.Floor(300, 750, screen))
x = 300
for i in range(11):
self.lis.append(floor_class.Floor(x, 750, screen))
x += 75
self.lis.append(floor_class.Floor(x, 750, screen))
self.lis.append(floor_class.Floor(x, 675, screen))
self.lis.append(floor_class.Floor(x, 600, screen))
for i in range(5):
self.lis.append(floor_class.Floor(x, 600, screen))
x += 75
self.lis.append(fire.Fire(300, 717, screen))
self.lis.append(fire.Fire(381, 717, screen))
self.lis.append(cube.Cube(462, 664, screen))
self.lis.append(cube.Cube(548, 664, screen))
self.lis.append(cube.Cube(773, 664, screen))
self.lis.append(cube.Cube(859, 664, screen))
self.lis.append(cube.Cube(945, 664, screen))
self.lis.append(fire.Fire(945, 635, screen))
self.lis.append(cube.Cube(859, 578, screen))
self.lis.append(flat.Flat(640, 430, screen))
self.lis.append(start.Start(75, 578, screen))
if self.col_life == 3:
self.lis.append(life.Life(230, 30, screen))
self.lis.append(life.Life(130, 30, screen))
self.lis.append(life.Life(30, 30, screen))
elif self.col_life == 2:
self.lis.append(life.Life(130, 30, screen))
self.lis.append(life.Life(30, 30, screen))
elif self.col_life == 1:
self.lis.append(life.Life(30, 30, screen))
self.lis.append(die_player.DPlayer(2000, 2000, screen))
self.lis.append(green_door.GDoor(2000, 2000, screen))
self.lis.append(door.Door(1350, 420, screen))
self.lis.append(green_button.GreenButton(2000, 2000, screen))
self.lis.append(red_button.RedButton(670, 381, screen))
self.lis.append(player_class.Player(100, 415, screen))
def __init__(self, screen, col_life):
x = 0
self.col_life = col_life
y = 770
self.lis = list()
for i in range(16):
self.lis.append(floor_class.Floor(x, y, screen))
x += 75
x -= 75
self.lis.append(floor_class.Floor(x, 695, screen))
self.lis.append(floor_class.Floor(x, 620, screen))
self.lis.append(floor_class.Floor(x, 545, screen))
for i in range(4):
x += 75
self.lis.append(floor_class.Floor(x, 545, screen))
self.lis.append(fire.Fire(x - 10, 516, screen))
self.lis.append(cube.Cube(250, 684, screen))
self.lis.append(cube.Cube(336, 684, screen))
self.lis.append(cube.Cube(422, 684, screen))
self.lis.append(cube.Cube(508, 684, screen))
self.lis.append(cube.Cube(336, 598, screen))
self.lis.append(cube.Cube(422, 598, screen))
self.lis.append(fire.Fire(700, 741, screen))
self.lis.append(fire.Fire(771, 741, screen))
self.lis.append(fire.Fire(862, 741, screen))
self.lis.append(fire.Fire(933, 741, screen))
self.lis.append(fire.Fire(1004, 741, screen))
self.lis.append(start.Start(75, 748, screen))
if self.col_life == 3:
self.lis.append(life.Life(230, 30, screen))
self.lis.append(life.Life(130, 30, screen))
self.lis.append(life.Life(30, 30, screen))
elif self.col_life == 2:
self.lis.append(life.Life(130, 30, screen))
self.lis.append(life.Life(30, 30, screen))
elif self.col_life == 1:
self.lis.append(life.Life(30, 30, screen))
self.lis.append(shadow_block.SBlock(600, 500, screen))
self.lis.append(shadow_block.SBlock(860, 400, screen))
self.lis.append(die_player.DPlayer(2000, 2000, screen))
self.lis.append(green_door.GDoor(2000, 2000, screen))
self.lis.append(door.Door(1300, 356, screen))
self.lis.append(green_button.GreenButton(2000, 2000, screen))
self.lis.append(red_button.RedButton(620, 721, screen))
self.lis.append(player_class.Player(100, 465, screen))
import Tkinter, sys, life, util
# runlife.py
# Jeff Jacobs, for CS221
boardFile = sys.argv[1]
game = life.Life(util.loadBoard(boardFile))
root = Tkinter.Tk()
root.wm_title("Life!!!")
cells = [[0 for x in range(game.getNumRows())]
for y in range(game.getNumCols())]
for r in range(game.getNumRows()):
for c in range(game.getNumCols()):
alive = game.isAlive(r, c)
color = ""
if alive:
color = "white"
else:
color = "black"
cells[r][c] = Tkinter.Canvas(root,
background=color,
width=12,
height=12,
borderwidth=0)
cells[r][c].grid(row=r, column=c)
#!/usr/bin/env python import life import detective from random import randint WIDTH = 16 HEIGHT = 16 SIZE = WIDTH * HEIGHT randomdata = [randint(0, 1) for i in range(WIDTH * HEIGHT)] original = life.Life(WIDTH, HEIGHT, randomdata) saved = original.clone() print "Original:" print original print original.tick() print "Given:" print original print gumshoe = detective.Detective(original) print "Initial confidence:" print gumshoe print print "Guessing..." last_span = 0
import life
import numpy as np
import g3d2
import g3d2sim
import sys
from time import sleep
rate = 10.0 # Frame rate (wished)
restart = 30.0 # Reinitialize after this amount of seconds
if len(sys.argv) > 1:
g = g3d2.g3d2(sys.argv[1])
else:
g = g3d2sim.g3d2sim()
l = life.Life()
l.randomize()
screen = np.zeros(np.shape(l.field), dtype=np.int8)
iters = 0
while True:
sc_old = screen
screen = np.maximum(0, screen / 2)
screen[l.field > 0] = np.minimum(np.maximum(sc_old[l.field > 0] + 2, 8),
15)
g.write_screen(screen.transpose().flatten())
l.iterate()
sleep(1 / rate)
iters = iters + 1
if iters >= rate * restart:
import life
print("The game is on!")
living_cells = life.get_living_cells()
life_configuration = life.Life(living_cells)
life_configuration.show()
while life.get_command():
life_configuration.update()
life_configuration.show()