def solve():
data = read_data("p059_cipher.txt")
data = parse_list(data, separator=",", parse_item=int)
text = brute_force(data)
return sum((map(ord, text)))
def read_poker_hands():
poker_hands = []
for cards in read_data("p054_poker.txt").splitlines():
poker_hands.append((PokerHand(cards[:14]), PokerHand(cards[15:])))
return poker_hands
def solve():
data = read_data("p022_names.txt")
names = parse_list(data,
separator=",",
parse_item=lambda s: s.replace('"', ""))
names.sort()
return sum([
alphabetical_value(name) * (position + 1)
for position, name in enumerate(names)
])
def solve():
data = read_data("p089_roman.txt").splitlines()
result = 0
for roman in data:
arabic = to_arabic(roman)
minimal_roman = to_roman(arabic)
saved_characters = len(roman) - len(minimal_roman)
result += saved_characters
return result
def solve():
data = read_data("p098_words.txt")
words = parse_list(data,
separator=",",
parse_item=lambda s: s.replace('"', ""))
anagrams = find_anagrams(words)
largest = 0
for pair in anagrams:
square = largest_anagramic_square(*pair)
if square > largest:
largest = square
return largest
def solve():
data = read_data("p042_words.txt")
words = parse_list(data,
separator=",",
parse_item=lambda s: s.replace('"', ""))
limit = 10_000
triangle_numbers = set(itertools.islice(gen_triangle_numbers(), limit))
count = 0
for word in words:
if alphabetical_value(word) in triangle_numbers:
count += 1
return count
def solve():
data = read_data("p096_sudoku.txt")
sudokus = parse_sudokus(data)
result = 0
for i, sudoku in enumerate(sudokus, 1):
solved = solve_sudoku(sudoku)
top_left = join_digits(sudoku[0][0:3])
result += top_left
info(f"Sudoku {i} {'solved' if solved else 'FAILED'}: {top_left}")
info(sudoku)
info("")
return result
from math import inf
from common.data import read_data, parse_grid
from solutions.problem_081 import parse_graph, dijkstra, EXAMPLE_DATA
def solve(data=EXAMPLE_DATA):
grid = parse_grid(data, separator=",", parse_item=int)
graph = parse_graph(grid, directions=[(0, 1), (1, 0), (-1, 0)])
height = len(grid)
width = len(grid[0])
result = inf
for start_row in range(height):
dist, prev = dijkstra(graph, (start_row, 0))
for end_row in range(height):
distance = grid[start_row][0] + dist[(end_row, width - 1)]
if distance < result:
result = distance
return result
if __name__ == "__main__":
data = read_data("p082_matrix.txt")
print(solve(data))
from common.data import read_data
from solutions.problem_018 import parse_triangle, maximum_path
data = read_data("p067_triangle.txt")
triangle = parse_triangle(data)
print(maximum_path(triangle))
def solve():
keylog = read_data("p079_keylog.txt").splitlines()
keylog = set(keylog)
return crack_passcode(keylog)
from math import log
from common.data import read_data
data = read_data("p099_base_exp.txt")
highest = 0
highest_line = 0
for line_number, base_exp in enumerate(data.splitlines(), 1):
base, exp = map(int, base_exp.split(","))
# https://www.rapidtables.com/math/algebra/logarithm/Logarithm_Rules.html#power%20rule
number = log(base) * exp
if number > highest:
highest = number
highest_line = line_number
print(highest_line)
