def part_2(data):
data[0] = 2
game = IntCode(data, [])
game.calculate()
i = 0
cnt = 0
GRID = [[' . ' for i in range(44)] for j in range(23)]
while not game.is_halted() and cnt < 10:
screen = game.get_output(-1)
i = 0
while i < len(screen):
[x, y, tile] = screen[i:i + 3]
if x == -1 and y == 0:
print(tile)
i += 3
continue
GRID[y][x] = t[tile]
i += 3
disp(GRID)
game.unpause([0, 0, 0])
game.calculate()
cnt += 1
print('END OF PART2')
return
def part_1(data):
boost = IntCode(data, [1])
boost.calculate()
print('END OF PART1')
return
def part_2(data):
boost = IntCode(data, [2])
boost.calculate()
print('END OF PART2')
return
def part_1(data):
game = IntCode(data, [])
game.calculate()
screen = game.get_output(-1)
i = 0
cnt = 0
while i < len(screen):
[x, y, tile] = screen[i:i + 3]
if tile == 2:
cnt += 1
i += 3
print(cnt)
# disp(GRID)
print('END OF PART1')
return
def part_1(data):
perms = it.permutations(orig_list_1)
thruster = 0
for p in perms:
output = 0
for phase in p:
amp_data = [phase]
if output is not None:
amp_data += [output]
amp = IntCode(data, amp_data)
amp.calculate()
output = amp.get_output()
if output > thruster:
thruster = output
print(thruster)
print('END OF PART1')
return
def part_2(data):
GRID = [['.' for i in range(100)] for j in range(100)]
code = IntCode(data)
r_pos = (0, 0)
r_d = 'N'
panels = {r_pos: 1}
while not code.is_halted():
try:
in_data = [panels[r_pos]]
except:
in_data = [0]
code.unpause(in_data)
code.calculate()
[color, d] = code.get_output(2)
panels[r_pos] = color
GRID[50 + r_pos[1]][50 + r_pos[0]] = '#' if color == 1 else '.'
r_pos, r_d = get_new_pos(r_pos, r_d, d)
disp(GRID)
print('END OF PART2')
#CBLPJZCU
return
def part_1(data):
code = IntCode(data)
r_pos = (0, 0)
r_d = 'N'
panels = {r_pos: 0}
painted = set()
while not code.is_halted():
try:
in_data = [panels[r_pos]]
except:
in_data = [0]
code.unpause(in_data)
code.calculate()
[color, d] = code.get_output(2)
painted |= {r_pos}
panels[r_pos] = color
r_pos, r_d = get_new_pos(r_pos, r_d, d)
print(len(painted))
print('END OF PART1')
return
