def lets_play_a_game(step_time=0.1, show=True):
# dimensions first
triples = group_in_triples()
max_x = max(triples, key=lambda t: t[0])[0]
max_y = max(triples, key=lambda t: t[1])[1]
# 45 x 24
width, height = max_x + 1, max_y + 1
screen = np.zeros((height, width), dtype=int)
score = 0
program = Intcode.parse_program(actual_data)
program[0] = 2
machine = Intcode(program)
time.sleep(1)
ball_pos_x = 0
paddle_pos_x = 0
while machine.running:
read_in = 0
for triple in read_greedy(machine):
read_in += 1
if triple[0] == -1:
score = triple[2]
continue
if triple[2] == BALL:
ball_pos_x = triple[0]
if triple[2] == PADDLE:
paddle_pos_x = triple[0]
if show:
screen[triple[1], triple[0]] = triple[2]
if show:
print(display(screen, score))
move = 0
if ball_pos_x > paddle_pos_x:
move = 1
if ball_pos_x < paddle_pos_x:
move = -1
machine.put(move)
time.sleep(step_time)
try:
[final_score] = filter(lambda tr: tr[0] == -1, read_greedy(machine))
score = final_score[2]
except ValueError:
pass
return machine, score
def run_robot(panels):
state = (complex(0, 0), complex(0, 1))
def update_state(state, turn):
new_dir = state[1] * turn
return (state[0] + new_dir, new_dir)
robot = Intcode(task_data)
while robot.running:
color_underneath = panels[state[0]]
robot.put(color_underneath)
color_to_paint = robot.get()
direction = robot.get()
turn = LEFT if direction == 0 else RIGHT
panels[state[0]] = color_to_paint
state = update_state(state, turn)
return panels