import time
import urandom
from console import Display, Button
oled = Display()
buttonSelect = Button(0)
questions = [
"Which person around you could help you?",
"Maybe you should consider refactoring?",
"Have you tried step by step execution?",
"Maybe some threads are unnecessary?",
"Maybe you turn it off and on again?",
"Could there be some race condition?", "Where is the lacking print()?",
"Have you talked to your colleague?", "Why not call for a group meeting?",
"Why not walk around your office?", "Should you really be doing this?",
"Can the problem be broken down?", "Have you tried to unit test it?",
"Maybe it is time for a coffee?", "Have you tried a clean build?",
"Can you give me more details?", "Can this be hardware related?",
"Could this not be your fault?", "Is this actually a problem?",
"Can the code be simplified?", "Have you tried googling it?",
"Maybe you can turn it on and off?", "I am not sure try again!",
"Try again after having a coffee!",
"Walk around the office and try again!",
"Have you tried pair programming this?",
"Maybe some of the threads are unnecessary?",
"Can the problem be broken down more?",
"Call for a group meeting to discuss this!",
"Maybe you should consider some refactoring!",
"Have you tried googling it?", "Why not try it again?"
]
class ConwaysGameOfLife:
def __init__(self):
self.best = 0
self.oled = Display()
self.width = self.oled.width
self.height = self.oled.height
self.select_button = Button(0)
def center_text(self, txt):
"""
This function will center all incomming strings to a fix size of the display
max_char property.
Args:
txt: String to be centered.
Returns:
type: String with the text centered
"""
return '{: ^{}}'.format(txt, self.oled.max_char)
def intro(self):
"""
It will print the intro on the oled display with a sleep of 1 second so
the message will be visible.
Returns:
Nothing.
"""
self.oled.display.fill(0)
self.oled.print_on_line(self.center_text("Conway's"), 2)
self.oled.print_on_line(self.center_text("Game"), 3)
self.oled.print_on_line(self.center_text("of"), 4)
self.oled.print_on_line(self.center_text("Life"), 5)
sleep_ms(1000)
def end(self, generations, best, size):
"""
It will ouput on the oled display the Generations, best score and the
size of the pixels.
Args:
generations: Integer with the generations created.
best: Integer the best score.
size: Integer with the size of the pixels.
Returns:
Nothing.
"""
self.oled.clear(0, 1)
self.oled.print_on_line(self.center_text("Generations"), 0)
self.oled.print_on_line(self.center_text(str(generations)), 1)
self.oled.print_on_line(self.center_text("Best Score"), 3)
self.oled.print_on_line(self.center_text(str(best)), 4)
self.oled.print_on_line(self.center_text("Pixel Size"), 5)
self.oled.print_on_line(self.center_text(str(size)), 6)
sleep_ms(2000)
self.oled.clear(0, 1)
def begin(self, size=4, delay=20):
"""
Main function to check the button to stop the game or if game has ended.
If so, then call the `end` function to show the results.
Args:
size: Integer with the size of the pixels.
delay: Integer of the delay between generations (In milliseconds).
Returns:
Nothing.
"""
self.size = size # Size of lifeforms in pixels
self.delay = delay # Delay in ms between generations
# Localised to avoid self lookups
# Possible performance optimisation, TBC
delay = self.delay
tick = self.tick
self.randomise() # Randomise initial pixels
generations = 0 # Begin
try:
while (tick() and self.select_button.isReleased()):
generations = generations + 1
self.oled.display.show()
sleep_ms(delay)
except KeyboardInterrupt:
pass
if generations > self.best: # New high score?
self.best = generations
self.end(generations, self.best, self.size) # End
def randomise(self):
"""
Generate a seudo-random cells on the screen.
Returns:
Nothing.
"""
size = self.size
width = self.width
height = self.height
self.oled.display.fill(0)
for x in range(0, width, size):
for y in range(0, height, size):
# random bit: 0 = pixel off, 1 = pixel on
self.cell(x, y, getrandbits(1))
def cell(self, x, y, colour):
"""
This will assign a value to a given pixel.
Args:
x: Integer with the `x` axis position.
y: Integer with the `y` axis position.
colour: Boolean with the value to be assigned.
Returns:
Nothing.
"""
size = self.size
for i in range(size):
for j in range(size):
self.oled.display.pixel(x + i, y + j, colour)
def get(self, x, y):
"""
Function to return the value of the given pixel x, y.
Args:
x: Integer with the `x` axis position.
y: Integer with the `y` axis position.
Returns:
type: Boolean with the value of the pixel.
"""
if not 0 <= x < self.width or not 0 <= y < self.height:
return 0
if self.oled.display.pixel(x, y) is None:
bln_return = getrandbits(1)
else:
bln_return = self.oled.display.pixel(x, y)
return bln_return & 1
def tick(self):
"""
This function will apply the game rules getting the live cells and the ones
that have to die.
Returns:
Boolean to keep the game going or not.
"""
size = self.size
width = self.width
height = self.height
get = self.get
cell = self.cell
# If no pixels are born or die, the game ends
something_happened = False
for x in range(0, width, size):
for y in range(0, height, size):
alive = get(x, y) # Is the current cell alive
# Count number of neighbours
neighbours = (get(x - size, y - size) + get(x, y - size) +
get(x + size, y - size) + get(x - size, y) +
get(x + size, y) + get(x + size, y + size) +
get(x, y + size) + get(x - size, y + size))
# Apply the game rules
if alive and not 2 <= neighbours <= 3:
cell(x, y, 0) # This pixel dies
if not something_happened:
something_happened = True
elif not alive and neighbours == 3:
cell(x, y, 1) # A new pixel is born
if not something_happened:
something_happened = True
return something_happened
def __init__(self):
self.best = 0
self.oled = Display()
self.width = self.oled.width
self.height = self.oled.height
self.select_button = Button(0)
class ConwaysGameOfLife:
def __init__(self):
self.best = 0
self.oled = Display()
self.width = self.oled.width
self.height = self.oled.height
self.select_button = Button(0)
def center_text(self, txt):
return '{: ^{}}'.format(txt, self.oled.max_char)
def intro(self):
self.oled.display.fill(0)
self.oled.print_on_line(self.center_text("Conway's"), 2)
self.oled.print_on_line(self.center_text("Game"), 3)
self.oled.print_on_line(self.center_text("of"), 4)
self.oled.print_on_line(self.center_text("Life"), 5)
sleep_ms(1000)
def end(self, generations, best, size):
self.oled.clear(0, 1)
self.oled.print_on_line(self.center_text("Generations"), 0)
self.oled.print_on_line(self.center_text(str(generations)), 1)
self.oled.print_on_line(self.center_text("Best Score"), 3)
self.oled.print_on_line(self.center_text(str(best)), 4)
self.oled.print_on_line(self.center_text("Pixel Size"), 5)
self.oled.print_on_line(self.center_text(str(size)), 6)
sleep_ms(2000)
self.oled.clear(0, 1)
def begin(self, size=4, delay=20):
self.size = size
self.delay = delay
delay = self.delay
tick = self.tick
self.randomise()
generations = 0
try:
while (tick() and self.select_button.isReleased()):
generations = generations + 1
self.oled.display.show()
sleep_ms(delay)
except KeyboardInterrupt:
pass
if generations > self.best:
self.best = generations
self.end(generations, self.best, self.size)
def randomise(self):
size = self.size
width = self.width
height = self.height
self.oled.display.fill(0)
for x in range(0, width, size):
for y in range(0, height, size):
self.cell(x, y, getrandbits(1))
def cell(self, x, y, colour):
size = self.size
for i in range(size):
for j in range(size):
self.oled.display.pixel(x + i, y + j, colour)
def get(self, x, y):
if not 0 <= x < self.width or not 0 <= y < self.height:
return 0
if self.oled.display.pixel(x, y) is None:
bln_return = getrandbits(1)
else:
bln_return = self.oled.display.pixel(x, y)
return bln_return & 1
def tick(self):
size = self.size
width = self.width
height = self.height
get = self.get
cell = self.cell
something_happened = False
for x in range(0, width, size):
for y in range(0, height, size):
alive = get(x, y)
neighbours = (get(x - size, y - size) + get(x, y - size) +
get(x + size, y - size) + get(x - size, y) +
get(x + size, y) + get(x + size, y + size) +
get(x, y + size) + get(x - size, y + size))
if alive and not 2 <= neighbours <= 3:
cell(x, y, 0)
if not something_happened:
something_happened = True
elif not alive and neighbours == 3:
cell(x, y, 1)
if not something_happened:
something_happened = True
return something_happened