def run_program_sequence(instructions: List[int], phase_settings):
input = 0
for setting in phase_settings:
amp = Intcode(instructions, [setting, input])
amp.run_program()
input = amp.outputs[0]
return input
def create_map(instructions, height, width, xs=0, ys=0):
map = {}
for y in range(ys, ys + height):
for x in range(xs, xs + width):
computer = Intcode(instructions, [x, y])
computer.run_program()
map[Point(x, y)] = computer.get_output()
return map
def part1(instructions):
computer = Intcode(instructions, [])
computer.run_program()
map = create_map(computer.outputs)
render(map)
intersections = get_intersections(map)
parameters = []
for i in intersections:
parameters.append(i.x * i.y)
print(sum(parameters))
def part2(instructions):
computer = Intcode(instructions, [])
computer.memory[0] = 2
computer.run_program()
state = create_state(computer.outputs)
render(computer, state)
while computer.stopped == False:
handle_input(computer, state)
update(computer, state)
render(computer, state)
render(computer, state)
def get_beam_height(instructions, x):
y = 0
start_pos = 0
end_pos = 0
while True:
computer = Intcode(instructions, [x, y])
computer.run_program()
output = computer.get_output()
if start_pos == 0 and output == 1:
start_pos = y
elif output == 1:
end_pos = y
if end_pos != 0 and output == 0:
break
y += 1
return (end_pos - start_pos, start_pos, end_pos)
def get_beam_width(instructions, y, start_x_at=0):
x = start_x_at
start_pos = 0
end_pos = 0
while True:
computer = Intcode(instructions, [x, y])
computer.run_program()
output = computer.get_output()
if start_pos == 0 and output == 1:
start_pos = x
elif output == 1:
end_pos = x
if end_pos != 0 and output == 0:
break
x += 1
return (end_pos - start_pos, start_pos, end_pos)
def main():
with open(sys.argv[1], 'r') as program:
code = [int(i) for i in program.readline().split(",")]
inpt = int(sys.argv[2])
computer = Intcode(code)
output = computer.run_program([inpt])
print(output)
def main():
with open(sys.argv[1], 'r') as program:
code = [int(i) for i in program.readline().split(",")]
input_vals = [int(i) for i in sys.argv[2:]]
computer = Intcode(code)
output = computer.run_program(input_vals)
print(output)
def explore_map(instructions):
computer = Intcode(instructions, [])
computer.run_program()
pos = Point(0,0)
map = {}
map[pos] = 1
while not computer.stopped:
next = calculate_next_move(pos, map)
if next == None:
break
direction = get_direction(pos, next)
computer.set_input(direction)
computer.run_program()
output = computer.get_output()
if output == 0:
map[next] = 0
elif output == 1:
map[next] = 1
pos = next
elif output == 2:
map[next] = 2
pos = next
print(find_shortest_distance((0,0), pos, map))
print(fill_with_oxygen(map))
def paint_hull(code: List[int], starting_colour: int) -> Dict:
computer = Intcode(code)
dirs = [(0, -1), (1, 0), (0, 1), (-1, 0)]
cur_dir = 0
x = y = 0
hull = {(x, y): starting_colour}
while not computer.halted:
output = computer.run_program([hull.get((x, y), 0)])
# Paint the hull
hull[(x, y)] = output.popleft()
# Update move the robot
cur_dir = (cur_dir + 1) if output.popleft() == 1 else (cur_dir - 1)
cur_dir = cur_dir % len(dirs)
x += dirs[cur_dir][0]
y += dirs[cur_dir][1]
return hull
def part1(instructions):
computer = Intcode(instructions, [])
computer.run_program()
tiles = create_state(computer.outputs)
block_tiles = [k for k, v in tiles.items() if v == 2]
return len(block_tiles)
def test_run_program(instructions, inputs, expected):
intcode = Intcode(instructions, inputs)
intcode.run_program()
assert intcode.outputs == expected
def part1(instructions):
intcode = Intcode(instructions, [1], True)
intcode.run_program()
return intcode.outputs
def get_value(instructions, x, y):
computer = Intcode(instructions, [x, y])
computer.run_program()
return computer.get_output()
def part2(instructions):
computer = Intcode(instructions, [])
computer.run_program()
map = create_map(computer.outputs)
robot = [key for (key, value) in map.items() if value == '^'][0]
dir = Point(0, -1)
movements = []
while True:
#walk to edge
dist = walk_to_edge(robot, dir, map)
if dist > 0:
movements.append(dist)
robot = Point(robot.x + dir.x * dist, robot.y + dir.y * dist)
#try turn
direction = turn(robot, dir, map)
if direction != None:
movements.append(direction[0])
dir = direction[1]
if dist == 0 and direction == None:
break
print(movements)
computer = Intcode(instructions, [])
computer.memory[0] = 2
computer.run_program()
#Main routine: [A,B,B,C,C,A,B,B,C,A]
computer.inputs += convert_to_ascii('A,B,B,C,C,A,B,B,C,A')
computer.run_program()
print_message(computer.outputs)
#Function A: 'R', 4, 'R', 12, 'R', 10, 'L', 12
computer.inputs += convert_to_ascii('R,4,R,12,R,10,L,12')
computer.run_program()
print_message(computer.outputs)
#Function B: 'L', 12, 'R', 4, 'R', 12
computer.inputs += convert_to_ascii('L,12,R,4,R,12')
computer.run_program()
print_message(computer.outputs)
#Function C: 'L', 12, 'L', 8, 'R', 10
computer.inputs += convert_to_ascii('L,12,L,8,R,10')
computer.run_program()
print_message(computer.outputs)
computer.inputs += convert_to_ascii('n')
computer.run_program()
print(computer.outputs[-1])