def setUp(self):
self.testSolver = solver.Solver()
#Square test data
self.testSquareComplete = [[1, 2, 3], [4, 5, 6], [7, 8, 9]]
self.testSquareHorizontalDuplicate = [[1, 2, 3], [5, 5, 6], [7, 8, 9]]
self.testSquareVerticalDuplicate = [[1, 2, 4], [4, 5, 6], [7, 8, 9]]
self.testSquareIncomplete = [['O', 2, 3], [4, 'O', 6], [7, 8, 9]]
self.testSquareShort = [[5, 6], [7, 8, 9]]
self.testSquareLong = [[1, 2, 3], [4, 5, 6], [7, 8, 9, 10]]
def test_calcPercentStake():
player.Player.id = 0
opts["PLAYERS"] = [(1, i) for i in range(10)]
s = solver.Solver(opts)
assert s.calcPercentStake() == [
0, 1 / 45, 2 / 45, 3 / 45, 4 / 45, 5 / 45, 6 / 45, 7 / 45, 8 / 45,
9 / 45
]
def simulate(self, filename):
"""Start the simulation by calling the solver"""
input_data = self.netHandler.readFile(self.pathToRessources + filename)
schaltung = nt.Schaltung(input_data)
schaltung.initInzidenzMatritzen()
solver = solv.Solver(schaltung)
self.solutionData = solver.simulate(self.t, self.t_steps)
def test_methods(self):
"Test exploration between portal locations and other methods"
# 1. Create an solver without a donut and then slap on a donut
mysolver = solver.Solver()
mysolver.donut = donut.Donut(text=from_text(test_donut.EXAMPLES[0]))
# 2. Explore from all portal ends
self.assertEqual(mysolver.explore_from((2, 8)), {(6, 10): 6}) # BC -> DE
self.assertEqual(mysolver.explore_from((2, 13)), {(2, 15): 4}) # DE -> FG
self.assertEqual(mysolver.explore_from((2, 15)), {(2, 13): 4}) # FG -> DE
self.assertEqual(mysolver.explore_from((6, 10)), {(2, 8): 6}) # DE -> BC
self.assertEqual(mysolver.explore_from((9, 2)), {(9, 6): 4, # AA -> BC
(11, 12): 30, # AA -> FG
(13, 16): 26}) # AA -> ZZ
self.assertEqual(mysolver.explore_from((11, 12)), {(13, 16): 6, # FG -> ZZ
(9, 2): 30, # FG -> AA
(9, 6): 32}) # FG -> BC
self.assertEqual(mysolver.explore_from((13, 16)), {(11, 12): 6, # ZZ -> FG
(9, 2): 26, # ZZ -> AA
(9, 6): 28}) # ZZ -> BC
# 3. Compute and check direct portal paths
mysolver.portal_paths = mysolver.get_direct_paths_between_portals()
self.assertEqual(len(mysolver.portal_paths), 5)
self.assertEqual(sorted(mysolver.portal_paths.keys()), ['AA', 'BC', 'DE', 'FG', 'ZZ'])
self.assertEqual(len(mysolver.portal_paths['AA']), 3)
self.assertEqual(sorted([path.steps for path in mysolver.portal_paths['AA']]), [4, 26, 30])
self.assertEqual(sorted([path.steps for path in mysolver.portal_paths['BC']]), [1, 1, 4, 6, 28, 32])
self.assertEqual(sorted([path.steps for path in mysolver.portal_paths['DE']]), [1, 1, 4, 6])
self.assertEqual(sorted([path.steps for path in mysolver.portal_paths['FG']]), [1, 1, 4, 6, 30, 32])
self.assertEqual(sorted([path.steps for path in mysolver.portal_paths['ZZ']]), [6, 26, 28])
# 4. Compute and check graph
mysolver.graph = mysolver.portal_paths_to_graph()
self.assertEqual(len(mysolver.graph.edges), 22)
# 5. Test solving the graph
mysolver.solve_donut_maze()
self.assertEqual(len(mysolver.path), 8)
self.assertEqual(mysolver.cost, 23)
# 6. Test part2 graph generation
mysolver.part2 = True
mysolver.graph = mysolver.portal_paths_to_graph(depth=1)
self.assertCountEqual(Counter([(_.start[0], _.end[0]) for _ in mysolver.graph.edges]),
{(0, 0): 22})
mysolver.graph = mysolver.portal_paths_to_graph(depth=2)
self.assertCountEqual(Counter([(_.start[0], _.end[0]) for _ in mysolver.graph.edges]),
{(0, 0): 12, (1, 1): 6, (0, 1): 3, (1, 0): 3})
mysolver.graph = mysolver.portal_paths_to_graph(depth=3)
self.assertCountEqual(Counter([(_.start[0], _.end[0]) for _ in mysolver.graph.edges]),
{(0, 0): 12, (1, 1): 6, (2, 2): 6, (0, 1): 3, (1, 2): 3, (1, 0): 3, (2, 1): 3})
def restart(self, size, mines):
self.solving = False
self.lastSolvedTile = (-1, -1)
pygame.time.set_timer(pygame.USEREVENT, 0) # turn off the timer
self.game.reset()
self.game.set_size(size)
self.size = size
self.game.set_mines(mines)
self.mines = mines
self.failed_tile = (-1, -1)
self.solver = solver.Solver(self.game)
self.game.begin()
def test_text_init(self):
"Test the Solver object creation from text"
# 1. Create Solver object from text
myobj = solver.Solver(text=aoc_11.from_text(EXAMPLE_TEXT))
# 2. Make sure it has the expected values
self.assertEqual(myobj.part2, False)
self.assertEqual(len(myobj.text), 4)
# 3. Check methods
self.assertEqual(myobj.number_moves(), 11)
def test():
for board in configure.BOARD_MAP.values():
missing_count = len(board.not_on)
print '-----------------'
print missing_count
total = 1 if missing_count == 10 else 8
counts = []
for i in range(total):
s = solver.Solver(board)
s.solve()
print s.state_visited_count
counts.append(s.state_visited_count)
print 'avg:', sum(counts) / len(counts)
def __init__(self, puzzle_variant):
self.piece_set = Piece_set(puzzle_variant)
self.center_view = setup.setup_center_view(self.piece_set)
setup.setup_drawer_views(self.piece_set)
self.solver = solver.Solver(puzzle_variant)
self.show_drawer_animation = setup.setup_show_drawer_animation()
self.solved_tray_piece = None
self.tray_piece_transforms = []
self.tray_piece_transforms_index = -1
data.hud_layer.set_title(str(puzzle_variant.name).replace('_', ' '))
def setUp(self):
self.testSolver = solver.Solver()
#Vertical test data
self.testVerticalRowComplete = [[1], [2], [3], [4], [5], [6], [7], [8],
[9]]
self.testVerticalRowDuplicate = [[1], [2], [3], [5], [5], [6], [7],
[8], [9]]
self.testVerticalRowIncomplete = [['O'], [2], [3], [4], ['O'], [6],
[7], [8], [9]]
self.testVerticalRowShort = [[5], [6], [7], [8], [9]]
self.testVerticalRowLong = [[1], [2], [3], [4], [5], [6], [7], [8],
[9], [10]]
def run(typ,rand,sbd,d,tnumber):
try:
dname = str(typ)+"_"+str(rand)+"_"+str(sbd)+"_"+str(d)+"_"+str(tnumber)
pickle.dump(([[[i for i in range(typ)]]],[[typ]]), open(dname+".bounds","wb"),-1)
pickle.dump([],open(dname+"true.state","wb"),-1)
pickle.dump([],open(dname+"true.reward","wb"),-1)
MEANS = np.array([i*1.0/(typ-1) for i in range(typ)])
STDS = np.array([1.0/(6*(typ-1)) for i in range(typ)])
if rand:
MEANS = np.array([np.random.uniform() for i in range(typ)])
pickle.dump((typ,MEANS,STDS,d), open(dname+"subsolve.dat","wb"),-1)
env = gym.make('fish-v0')
env.initialize(types=typ,sbdepth=sbd,days=d,means=MEANS,discretize=False,stds=STDS)
pickle.dump([],open(dname+"true.state","wb"),-1)
pickle.dump([],open(dname+"true.reward","wb"),-1)
reward = 0
s0 = state.State([parts(env.reset())],dname)
sol = solver.Solver(s0,.95,1.02,dname)
for i in range(d):
a = sol.step()
s, r, done, _ = env.step(a)
sol.update([parts(s)])
reward += r
#input("Continue:")
if os.path.getsize(dname+"true.state") > 0 and os.path.getsize(dname+"true.reward") > 0:
S = pickle.load(open(dname+"true.state","rb"))
R= pickle.load(open(dname+"true.reward","rb"))
else:
S = []
R = []
S.append(s)
R.append(r)
pickle.dump(S,open(dname+"true.state","wb"),-1)
pickle.dump(R,open(dname+"true.reward","wb"),-1)
#print("ACTUAL FISH:",s)
#print("ACTUAL REWARD",r)
#print("FINAL REWARD: ",reward)
pickle.dump(reward,open(dname+".final","wb"),-1)
except:
traceback.print_exc(file=open(dname+".error","w"))
def part_two(args, input_lines):
"Process part two of the puzzle"
# 1. Create the puzzle solver
two = solver.Solver(part2=True, text=input_lines)
# 2. Determine the solution for part two
solution = two.part_two(verbose=args.verbose, limit=args.limit)
if solution is None:
print("There is no solution")
else:
print("The solution for part two is %s" % (solution))
# 3. Return result
return solution is not None
def part_two(args, input_lines):
"Process part two of the puzzle"
# 1. Create the keymaster
clortho = solver.Solver(text=input_lines, part2=True)
# 2. Get the maximum of the amplifiers without feedback
solution, _ = clortho.get_all_keys(verbose=args.verbose)
if solution is None:
print("The keymaster could not solve the vault")
else:
print("The keymaster collected all the keys in %d steps" % (solution))
# 3. Return result
return solution is not None
def test_p1e0_solve(self):
"Test Solver object creation with text of part 1 example 0"
# 1. Create Intcode obhect with values
mysolver = solver.Solver(text=from_text(test_vault.EXAMPLES[0]))
# 2. Make sure it has the specified values
self.assertEqual(mysolver.vault.rows, 3)
self.assertEqual(mysolver.vault.cols, 9)
self.assertEqual(len(mysolver.key_paths), 3)
# 3. Check methods
solution = mysolver.get_all_keys()
self.assertEqual(solution[0], 8)
self.assertEqual(solution[1], [solver.ORIGIN_KEY, 'a', 'b'])
def test_p1e4_init(self):
"Test Solver object creation with text of part 1 example 4"
# 1. Create Intcode obhect with values
mysolver = solver.Solver(text=from_text(test_vault.EXAMPLES[4]))
# 2. Make sure it has the specified values
self.assertEqual(mysolver.vault.rows, 6)
self.assertEqual(mysolver.vault.cols, 24)
self.assertEqual(len(mysolver.key_paths), 10)
# 3. Check methods
solution = mysolver.get_all_keys()
self.assertEqual(solution[0], 81)
self.assertEqual(len(solution[1]), 10)
def solve():
s = solver.Solver()
s.game.display()
print(print_format_string.format('h3', *s.a_star(game.Heuristic.H3)))
print(print_format_string.format('h3s', *s.a_star(game.Heuristic.H3s)))
print(print_format_string.format('h2', *s.a_star(game.Heuristic.H2)))
print(print_format_string.format('h1', *s.a_star(game.Heuristic.H1)))
print(
print_format_string.format('iterative deepening',
*s.iterative_deepening_search()))
print(
"depth first Fini: {0}, noeuds traités: {1}, coups à jouer depuis l’état initial: {3}"
.format(*s.depth_first_search(max_depth=15)))
print(
print_format_string.format('breadth first', *s.breadth_first_search()))
def __init__(self, puzzle_str):
self.puzzle_str = puzzle_str
self.root_window = tkinter.Tk()
self.root_window.title("Sudoku")
self.label = tkinter.Label(master=self.root_window,
text="Unsolved puzzle",
width="12",
height="1")
self.label.pack(side=tkinter.TOP)
self.label_state = True
self.solve_button = tkinter.Button(master=self.root_window,
text="Solve puzzle",
fg="red",
command=self.solve_puzzle)
self.solve_button.pack(side=tkinter.TOP)
self.new_puzzle_button = tkinter.Button(master=self.root_window,
text="New puzzle",
fg="red",
command=self.new_puzzle)
self.new_puzzle_button.pack(side=tkinter.TOP)
self.grid = tkinter.Frame(self.root_window)
self.grid.pack(side=tkinter.BOTTOM)
self.size = 9
self.table = [[
puzzle_str[i + self.size * j] for i in range(self.size)
] for j in range(self.size)]
for row in range(self.size):
for col in range(self.size):
label = tkinter.Label(
self.grid,
relief=tkinter.RAISED, # raised border
padx=10, # make label wide
width=2,
height=2,
text=self.table[row][col]) # label text
# place label in row r and column c
label.grid(row=row, column=col)
self.sol = solver.Solver(9, 3)
self.solved_table = None
self.root_window.mainloop()
def test_p1e1_solve(self):
"Test Solver object creation with text of part 1 example 1"
# 1. Test Solver object creation with text of part 1 example 1
mysolver = solver.Solver(text=from_text(test_donut.EXAMPLES[1]))
# 2. Make sure it has the specified values
self.assertEqual(mysolver.donut.rows, 37)
self.assertEqual(mysolver.donut.cols, 35)
self.assertEqual(len(mysolver.portal_paths), 12)
self.assertEqual(len(mysolver.graph.edges), 56)
# 3. Solve the donut maze
mysolver.solve_donut_maze()
self.assertEqual(len(mysolver.path), 10)
self.assertEqual(mysolver.cost, 58)
def test_p1e0_solve(self):
"Test Solver object creation with text of part 1 example 0"
# 1. Create Donut Maze solver object from part one example 0
mysolver = solver.Solver(text=from_text(test_donut.EXAMPLES[0]))
# 2. Make sure it has the specified values
self.assertEqual(mysolver.donut.rows, 19)
self.assertEqual(mysolver.donut.cols, 19)
self.assertEqual(len(mysolver.portal_paths), 5)
self.assertEqual(len(mysolver.graph.edges), 22)
# 3. Solve the donut maze
mysolver.solve_donut_maze()
self.assertEqual(len(mysolver.path), 8)
self.assertEqual(mysolver.cost, 23)
def test_p2e3_solve(self):
"Test Solver object creation with text of part 2 example 3"
# 1. Create Intcode obhect with values
mysolver = solver.Solver(text=from_text(test_vault.EXAMPLES_PART2[3]),
part2=True)
#print(mysolver.key_paths.keys())
# 2. Make sure it has the specified values
self.assertEqual(mysolver.vault.rows, 9)
self.assertEqual(mysolver.vault.cols, 13)
self.assertEqual(len(mysolver.key_paths), 19)
# 3. Check methods
solution = mysolver.get_all_keys()
self.assertEqual(solution[0], 72)
def test_empty_init(self):
"""Test default Solver object creation"""
# 1. Create default Astroids object
mysolver = solver.Solver()
# 2. Make sure it has the default values
self.assertEqual(mysolver.vault.text, None)
self.assertEqual(mysolver.vault.origin, None)
self.assertEqual(mysolver.vault.origins, None)
self.assertEqual(len(mysolver.key_paths), 0)
# 3. Check methods
solution = mysolver.get_all_keys()
self.assertEqual(solution[0], 0)
self.assertEqual(solution[1], [solver.ORIGIN_KEY])
def draw_carType_new(self):
vv = [26.42, 54.79, 68.36, 70.5, 85.79]
fig = plt.figure()
ax = fig.add_subplot(1, 1, 1)
ax.set_xlabel('v/m^3')
ax.set_ylabel('distance/km')
ax.set_title('cartype-distance picture')
y = []
for v in vv:
sol = solver.Solver(car_x=v, car_y=1, car_z=1)
res = sol.get_saveDisSto_simpleV_mileageStockCost_Fre(
disPrice_coe=5.2 * v / 70.5)
y.append(res.total_dis)
ax.plot(vv, y, label='car_type')
plt.legend()
plt.show()
def solve_board(index):
board = configure.BOARD_MAP[index]
s = solver.Solver(board)
time_start = time.time()
solution = s.solve()
time_finished = time.time()
if solution:
print 'Solution:'
print solution
print '\nStates Visited:', s.state_visited_count
print '\nTotal Seened:', s.state_count
print '\nUnique Seened:', len(s.seen)
print '\nTime Cost:', time_finished - time_start
g = gui.GUI(solution)
g.update()
g.win.getMouse()
def part_one(args, input_lines):
"Process part one of the puzzle"
# 1. Create the donut solver
krispy_kreme = solver.Solver(text=input_lines, verbose=args.verbose)
# 2. Solve the donut maze
krispy_kreme.solve_donut_maze()
solution = krispy_kreme.cost
if solution is None:
print("Your could not solve the maze")
else:
print("You solved the maze in %d steps" % (solution))
# 3. Return result
return solution is not None
def solve(self):
board = copy.deepcopy(self.board.grid)
puzzle_solver = solver.Solver(board, self.num_row, self.num_col)
solutions = puzzle_solver.a_star()
print(solutions)
self.control_buttons('disabled')
moves = [self.move_left, self.move_right, self.move_up, self.move_down]
for move in reversed(solutions):
moves[move.value](
) # value defined in the Move Enum class in Solver.py
self.update()
time.sleep(0.2)
self.control_buttons('normal')
def test_is(self):
netHandler = nt.NetListHandler()
input_data = netHandler.readFile("Test-Schaltung.txt")
schaltung = nt.Schaltung(input_data)
schaltung.initInzidenzMatritzen()
solv = solver.Solver(schaltung)
solv.createInzidenzMatrices()
solv.startwertEntkopplung(solv.potencialList, 0)
i_s = solv.i_s(0)
expected_i_s = [23]
self.assertAlmostEqual(i_s[0], expected_i_s[0], places=15, msg=None, delta=None)
def testFunction1(self):
netHandler = nt.NetListHandler()
input_data = netHandler.readFile("Test-Schaltung.txt")
schaltung = nt.Schaltung(input_data)
schaltung.initInzidenzMatritzen()
solv = solver.Solver(schaltung)
solv.createInzidenzMatrices()
solv.startwertEntkopplung(solv.potencialList, 0)
func1 = solv.function1([-90], [0], [-999, -900], 0)
expected_func1 = [-1.14]
self.assertAlmostEqual(func1[0], expected_func1[0], places=15, msg=None, delta=None)
def testMatrixMc(self):
netHandler = nt.NetListHandler()
input_data = netHandler.readFile("Test-Schaltung.txt")
schaltung = nt.Schaltung(input_data)
schaltung.initInzidenzMatritzen()
solv = solver.Solver(schaltung)
solv.createInzidenzMatrices()
solv.startwertEntkopplung(solv.potencialList, 0)
mc = solv.matrix_mc([-280], 1)
expected_mc = [[2.86]]
self.assertAlmostEqual(mc[0][0], expected_mc[0][0], places=15, msg=None, delta=None)
def solvePuzzles():
'''Driver code to demonstrate solver algorithm in solve.py.
This will eventually have an interactive GUI.
'''
sol = solver.Solver(9, 3)
board_obj = board.Board(puzzle)
helper.display("ORIGINAL BOARD", board_obj)
t_0 = time.time()
sol.solve(board_obj)
t_1 = time.time()
if board_obj.solved:
helper.display("SOLVED BOARD IN {} seconds".format(t_1-t_0), board_obj)
else:
print("no solution to this puzzle")
def main(c, n, o):
""":parameter c 解の個数の閾値
:parameter n 問題の個数
:parameter o 出力先パス
"""
# 問題をリスト
ans = list()
while True:
# 問題生成クラス
g = Generator()
# 最低基準まで入力
if not g.fill():
continue
while True:
try:
# ソルバークラス
s = st.Solver(g.get_str(), c)
for c in range(2, 5):
# N国同盟
s.remove_by_n_association(s.values, c)
# 探索
if not s.brute_force(s.values):
raise exception.NonAnswerException
else:
ans.append(g.get_str())
print(g.get_str())
break
except exception.NonAnswerException:
break
except exception.MultipleAnswerException:
# 解が複数ある場合は追加で埋める
if g.update():
continue
else:
break
if len(ans) == n:
break
print(ans)
with open("./question/{}.csv".format(o), "a") as f:
f.write("\n".join(ans))
def __init__(self):
# size of the grid
self.size = 16
# number of mines on the grid
self.mines = 40
# game clock
self.clock = pygame.time.Clock()
# screen
self.screen = pygame.display.set_mode(
(Gui.CANVAS_SIZE + Gui.COMMANDS_BAR_SIZE + 2 * Gui.PADDING,
Gui.CANVAS_SIZE + 2 * Gui.PADDING))
# Initialize the mines game
self.game = game.Game()
self.game.set_size(self.size)
self.game.set_mines(self.mines)
# Initialize the solver module
self.solver = solver.Solver(self.game)
# true when the Gui is using the solver module
self.solving = False
# tile that was last edited by the solver
self.lastSolvedTile: (int, int) = (-1, -1)
# the last mine tile where the left mouse was down
self.last_left_down = (-1, -1)
# the last mine tile where the right mouse was down
self.last_right_down = (-1, -1)
# tile that was pressed when the game was lost
self.failed_tile = (-1, -1)
# Initialize pygame
pygame.init()
pygame.display.set_caption("'Mines' made by mattlourenco27 on Github")
# Icon made by Creaticca Creative Agency from www.flaticon.com
icon = pygame.image.load("./assets/sprites/icon.png")
pygame.display.set_icon(icon)