def _log_packet(packet: tuple[int, int, int, list]) -> None:
log(packet)
version, type_id, val, sub_packets = packet
if type_id == 4:
log("/".join([str(version), str(type_id), str(val)]))
else:
[_log_packet(p) for p in sub_packets]
def _output_2(space: set):
if not __debug__:
return
w = defaultdict(set)
[w[cell[0]].add((cell[1], cell[2], cell[3])) for cell in space]
wz = defaultdict(set)
for k, v in w.items():
z = defaultdict(set)
[z[cell[0]].add((cell[1], cell[2])) for cell in v]
wz[k] = z
result = list[str]()
for w in sorted(wz.keys()):
min_z = min(z for z in wz[w].keys() if z >= 0)
min_c = min(c for r, c in wz[w][min_z])
max_c = max(c for r, c in wz[w][min_z])
min_r = min(r for r, c in wz[w][min_z])
max_r = max(r for r, c in wz[w][min_z])
for z in sorted(wz[w].keys()):
result.append(f"z={z}, w={w}")
for r in range(min_r, max_r + 1):
line = ""
for c in range(min_c, max_c + 1):
line += (ON if (r, c) in wz[w][z] else OFF)
result.append(line)
result.append(" ")
log(result)
def _solve_vm(inputs: tuple[str], init_c: int) -> int:
inss = Assembunny.parse(inputs)
program = Program(Assembunny.translate(inss))
program.set_register_value("c", init_c)
VirtualMachine().run_program(program)
log(program.registers["a"])
return program.registers["a"]
def _run_generations(space: set[tuple[int, ...]], generations: int,
neighbour_factory, output) -> set[tuple[int, ...]]:
for i in range(generations):
log(f"GENERATION #{i+1}")
output(space := _next_generation(space, neighbour_factory))
log(neighbour_factory.cache_info())
return space
def _log_tree(tree):
if type(tree) == list:
for tree_item in tree:
_log_tree(tree_item)
else:
for tree_item in tree:
log(tree_item)
def _build_edges(inputs: tuple[str]) -> frozenset[Edge]:
parsed_lines = [_parse_line(line) for line in inputs]
log(parsed_lines)
return frozenset({
Edge(parsed_line[0], dst[1], dst[0])
for parsed_line in parsed_lines for dst in parsed_line[1]
})
def _check_valid_2(input_: str) -> bool:
first, second, wanted, passw = _parse(input_)
first_matched = passw[first - 1] == wanted
second_matched = passw[second - 1] == wanted
check = xor(first_matched, second_matched)
log(f"{input_}, {(first, second, wanted, passw)}, {check}")
return check
def part_2(inputs: tuple[str]) -> int:
inputs_2 = (inputs[0], inputs[1], inputs[2], " #D#C#B#A#", " #D#B#A#C#",
inputs[3], inputs[4])
diagram = _parse(inputs_2)
log(diagram)
diagram.assert_valid()
return _solve(diagram)
def part_1(inputs: tuple[str]) -> int:
_foods, ingredients, allergens, rules = _parse(inputs)
foods = Foods(_foods)
all_ingredients = [i for i in foods.all_ingredients()]
i_with_a = _find_i_for_a(foods, allergens)
log(i_with_a)
ing = {_[1] for _ in i_with_a}
return sum([1 for i in all_ingredients if i not in ing])
def _tgl(self, program: Program, instruction: Instruction, ip: int):
log(instruction.opcode + str(instruction.operands))
register, = instruction.operands
if register in program.registers:
idx = ip + int(program.registers[register])
if 0 <= idx < len(program.instructions):
new_ins = self._toggle_instruction(program.instructions[idx])
program.replace_instruction(idx, new_ins)
program.move_instruction_pointer(1)
def _ji1(self, program: Program, instruction: Instruction, ip: int):
log(instruction.opcode + str(instruction.operands))
(register, count) = instruction.operands
if register in program.registers \
and program.registers[register] == 1:
program.move_instruction_pointer(count)
else:
program.move_instruction_pointer(1)
log(program.registers)
def _find_max_score(ingredients: list[Ingredient],
calories_target: int = None) -> int:
max_score = 0
for measure in _generate_measures(len(ingredients)):
score = _caclulate_score(ingredients, measure, calories_target)
if score > max_score:
max_score = score
log(max_score)
return max_score
def part_2(inputs: tuple[str]) -> int:
scores = sorted(
reduce(lambda a, b: 5 * a + b, (INCOMPLETE_SCORES[x]
for x in result.incomplete))
for result in filter(lambda x: x.incomplete is not None, (
_check(line) for line in inputs)))
log(scores)
assert len(scores) % 2 == 1
return scores[len(scores) // 2]
def part_2(inputs: tuple[str]) -> str:
_foods, ingredients, allergens, rules = _parse(inputs)
foods = Foods(_foods)
i_with_a = list(_find_i_for_a(foods, allergens))
log(i_with_a)
i_with_a.sort(key=lambda x: x[0])
log(i_with_a)
ings = [_[1] for _ in i_with_a]
return ",".join(ings)
def part_1(inputs: tuple[str]) -> int:
rules, my_ticket, tickets = parse(inputs)
log(rules)
log(tickets)
return sum([
_ for _ in [
__ for t in tickets for __ in _get_invalid_values(t, rules)
]
])
def _mul(self, program: Program, instruction: Instruction, ip: int):
log(instruction.opcode + str(instruction.operands))
(register, value) = instruction.operands
new_value = value \
if register not in program.registers \
else program.registers[register] * value
program.set_register_value(register, new_value)
program.move_instruction_pointer(1)
log(program.registers)
def part_1(inputs: tuple[str]) -> int:
log(inputs)
instructions = _parse(inputs)
program = _build_program(instructions)
try:
VirtualMachine().run_program(program)
except RuntimeError:
pass
return program.registers["ACC"]
def part_2(inputs: tuple[str]) -> int:
navs = _parse(inputs)
start = Waypoint(10, 1)
navigation = NavigationWithWaypoint(Position(0, 0), start)
log(navigation)
for nav in navs:
_navigate_with_waypoint(navigation, nav)
log(navigation)
return abs(navigation.position.x) + abs(navigation.position.y)
def _check_valid_1(line: str) -> bool:
colons = line.count(":")
has_cid = "cid:" in line
valid = colons == 8 or (colons == 7 and not has_cid)
if valid:
log(f"colons: {colons}, has_cid: {has_cid} -> valid ({line})")
else:
log(f"colons: {colons}, has_cid: {has_cid} -> INVALID ({line})")
return valid
def part_1(inputs: tuple[str]) -> str:
assert len(inputs) == 1
index = 0
result = ""
for i in range(8):
log(i)
val, index = _find_md5_starting_with_5_zeroes(inputs[0], index)
result += val[5]
log(result)
return result
def part_1(inputs: tuple[str]) -> int:
navs = _parse(inputs)
start = EAST
navigation = NavigationWithHeading(position=Position(0, 0),
heading=Headings[start].value)
log(navigation)
for nav in navs:
_navigate_with_heading(navigation, nav)
log(navigation)
return abs(navigation.position.x) + abs(navigation.position.y)
def _solve(inputs: tuple[str], in_bounds, get) -> str:
code = str()
start = Position.of(0, 0)
for ins in inputs:
navigation = _navigate(ins, start, in_bounds)
last = navigation.get_visited_positions()[-1]
log(last)
code += get(last)
log(code)
start = last
return code
def part_1(inputs: tuple[str]) -> int:
rules, messages = _parse(inputs)
# log(rules)
# log(messages)
rule = _construct_rule(rules)
assert len(rules) == 1
assert rules.keys() == {0}
regex = _to_regex(rule)
log(regex)
return sum([1 for message in messages if re.match(regex, message)])
def _do_part_1(inputs: tuple[str], window_size: int) -> int:
inputs = _parse(inputs)
log(inputs)
_range = range(window_size, len(inputs))
for i in _range:
n = inputs[i]
search_window = inputs[i - window_size:i]
log(search_window)
if find_two_summands(search_window, sum_=n) is None:
return n
raise ValueError("Unsolvable")
def _play(starting_numbers: tuple[int], number_of_turns: int) -> int:
log(f"{starting_numbers} ({number_of_turns} turns)")
turns = [-1] * number_of_turns
for i, n in enumerate(starting_numbers[:-1], start=1):
turns[n] = i
prev = starting_numbers[-1]
for i in range(len(starting_numbers), number_of_turns):
prev_prev = turns[prev]
turns[prev] = i
prev = 0 if prev_prev == -1 else i - prev_prev
return prev
def _split_literal(bin_data: str, i: int) -> tuple[int, int]:
log("literal")
val = ""
while True:
proceed = bin_data[i]
val += bin_data[i+1:i+5]
i += 5
if proceed == '0':
break
log(f"value: {val} ({_bin2dec(val)})")
return val, i
def _build_program(lines: list[Instruction_]) -> Program:
log(lines)
instructions = list[Instruction]()
for line in lines:
line.check_valid_operation()
if line.operation == "nop":
instructions.append(Instruction.NOP())
elif line.operation == "acc":
instructions.append(Instruction.ADD("ACC", line.argument))
elif line.operation == "jmp":
instructions.append(Instruction.JMP(line.argument))
return Program(instructions, inf_loop_treshold=1)
def _run_program(inputs: tuple[str], init_a) -> int:
inss = Assembunny.parse(inputs)
output = list()
program = Program(Assembunny.translate(inss),
inf_loop_treshold=6_000,
output_consumer=lambda s: output.append(s))
log(program.instructions)
program.set_register_value("a", init_a)
try:
VirtualMachine().run_program(program)
except RuntimeError:
return output
def _find_count_of_equilibrium(inputs: tuple[str], strategy,
tolerance: int) -> int:
global the_grid
the_grid = list(inputs)
grid = the_grid
log(grid)
while True:
new_grid, changed = _run_cycle(grid, strategy, tolerance)
log(new_grid)
if not changed:
return sum(row.count(OCCUPIED) for row in grid)
grid = new_grid
def _set(self, program: Program, instruction: Instruction, ip: int):
log(instruction.opcode + str(instruction.operands))
(register, value) = instruction.operands
if str(value).startswith("*"):
value = value[1:]
if value in program.registers:
program.set_register_value(register,
int(program.registers[value]))
else:
program.set_register_value(register, int(value))
program.move_instruction_pointer(1)
log(program.registers)
