def __init__( self, t): Puzzle.__init__(self) self._shape = t self._start_position = (0,0) self._finish_position = (t[0]-1, t[1]-1) self._grid = Grid( t) self._allowed_moves = MazePuzzle._DEFAULT_MOVES
def start(self):
log.info("Worker started on processor %d %s" % (rank, name))
# First we send all the required partitions to the neighbors and then
# receive all the segments and reconstruct a local matrix where the
# function will be evaluated.
puzzle = Puzzle(self.partition)
for lbl, enum in zip(LABELS, ORDERED):
self.comm.send(getattr(self.conns, lbl), enum)
for lbl, enum in zip(RLABELS, REVERSED):
m = self.comm.receive(getattr(self.conns, lbl), enum)
if m: puzzle.add_piece(m, enum)
start = time.time()
puzzle.apply(self.offsets, function)
log.info("Worker %d: %.10f seconds to compute the partition" % \
(rank - 1, time.time() - start))
log.info("Sending back the computed sub-partition from %d" % rank)
start = time.time()
comm.gather(self.partition.matrix, root=0)
log.info("Worker %d: %.10f seconds to send back the partition" % \
(rank - 1, time.time() - start))
comm.Barrier()
def getPuzzle(puzList):
#Split on each row of input to get rid white spaces and tabs
#Append the 3 rows of inputs into a list
#forming a nxn matrix
puzzle = Puzzle(puzList)
puzzle.printPuzzle()
return puzzle
def load(self): # init data before loading self.puzzles = [] # Load puzzles puzzles_data = self.data_mgr.get_puzzles_data() for puzzle_data in puzzles_data: puzzle = Puzzle(self.data_mgr) puzzle.load(puzzle_data) self.puzzles.append(puzzle)
def sample(request):
'''
This was split off from the below function to bypass the csrf token check
on ajax calls, but leave it in place for all other requests. This returns
a sample puzzle for development, and for solving once anyway ;)
'''
dimension = Dimension([9, 9])
context_dict = {}
puzzle = Puzzle(dimension, 'sample', None)
context_dict['board'] = puzzle.draw_board()
context_dict['fields'] = puzzle.get_input_fields()
return render_to_response('main.html',
context_dict,
context_instance=RequestContext(request))
class PuzzleTestDownloadPluginArchive(unittest.TestCase): def setUp(self): self.p = Puzzle(plugins_dir=join(getcwd(), PATH)) def test_download_archive(self): self.p.load_plugins() url = 'file:///path_to_test_plugin_archive.zip' self.p.download_puzzle_part(url) self.assertEqual(self.p.table.size(), 3) def test_plugins_instalation(self): for id,(key, plugin) in enumerate(self.p.table_items()): self.assertTrue(issubclass(plugin, Plugin))
def main(request, action=None):
'''
Process the requests for updating values in the puzzle, and generating
new puzzles (coming soon).
I hardcoded 9x9, but all code in this program is flexible
for any dimension, providing it is a square. So we should be able to
handle different puzzle square type games just by writing a new solver.
'''
dimension = Dimension([9, 9])
context_dict = {}
values = request.POST if is_post(request) else None
puzzle = Puzzle(dimension, values, action)
context_dict['board'] = puzzle.draw_board()
context_dict['fields'] = puzzle.get_input_fields()
return render_to_response('main.html',
context_dict,
context_instance=RequestContext(request))
class PuzzleTestBasic(unittest.TestCase):
def setUp(self):
self.p = Puzzle(plugins_dir=join(getcwd(), PATH))
def test_creation_puzzle(self):
self.assertIsNotNone("Creating instance of Puzzle.", self.p)
def test_table_load(self):
self.assertIsNotNone("Creating instance of Puzzle.", self.p.table)
def test_observer_load(self):
self.assertIsNotNone("Creating instance of Puzzle.", self.p.observable)
def test_loading_plugins(self):
self.p.load_plugins()
self.assertEqual(self.p.table.size(), 2)
def test_plugins_instalation(self):
for id,(key, plugin) in enumerate(self.p.table_items()):
self.assertTrue(issubclass(plugin, Plugin))
def __init__ (self, game, event_handler, ID = None, defn = None):
self.game = game
# add event handlers
event_handler.add_event_handlers({
pygame.MOUSEBUTTONDOWN: self._click,
pygame.MOUSEBUTTONUP: self._unclick,
pygame.MOUSEMOTION: lambda e: setattr(self, 'mouse_moved', True)
})
pzl_args = (
eh.MODE_ONDOWN_REPEAT,
max(int(conf.MOVE_INITIAL_DELAY * conf.FPS), 1),
max(int(conf.MOVE_REPEAT_DELAY * conf.FPS), 1)
)
menu_args = (
eh.MODE_ONDOWN_REPEAT,
max(int(conf.MENU_INITIAL_DELAY * conf.FPS), 1),
max(int(conf.MENU_REPEAT_DELAY * conf.FPS), 1)
)
od = eh.MODE_ONDOWN
held = eh.MODE_HELD
l = conf.KB_LAYOUT
event_handler.add_key_handlers([
(conf.KEYS_MOVE_LEFT[l], [(self._move, (0,))]) + pzl_args,
(conf.KEYS_MOVE_UP[l], [(self._move, (1,))]) + pzl_args,
(conf.KEYS_MOVE_RIGHT[l], [(self._move, (2,))]) + pzl_args,
(conf.KEYS_MOVE_DOWN[l], [(self._move, (3,))]) + pzl_args,
(conf.KEYS_BACK, self.menu, od),
(conf.KEYS_TAB, self.switch_puzzle, od),
(conf.KEYS_INSERT, self._insert_cb, od),
(conf.KEYS_DEL, self.delete, od),
(conf.KEYS_UNDO, self.undo) + menu_args,
(conf.KEYS_REDO, self.redo) + menu_args,
(conf.KEYS_RESET, self.reset, od)
])
self.event_handler = event_handler
# create block/surface selection grid
blocks = xrange(conf.MAX_ID + 1)
surfaces = xrange(-1, conf.MIN_ID - 1, -1)
self._selector_defn = '3 {0}\n{1}\n\n{2}\n{3}'.format(
max(len(blocks), len(surfaces)),
'\n'.join('{0} 0 {1}'.format(b, i) for i, b in enumerate(blocks)),
'\n'.join('{0} 1 {1}'.format(b, i) for i, b in enumerate(blocks)),
'\n'.join('{0} 2 {1}'.format(s, i) for i, s in enumerate(surfaces))
)
self.selector = Puzzle(game, self._selector_defn)
self.FRAME = conf.FRAME
self.load(ID, defn)
def load (self, ID = None, definition = None):
"""Load a level.
Takes ID and definition arguments as in the constructor.
"""
self.ID = None if ID is None or ID[0] else ID[1]
if ID is not None:
# get data from file
path = conf.LEVEL_DIR_CUSTOM if ID[0] else conf.LEVEL_DIR_MAIN
with open(path + ID[1]) as f:
definition = f.read()
self.puzzle = Puzzle(self.game, definition, True, self.sound)
self.players = [b for b in self.puzzle.blocks
if b.type == conf.B_PLAYER]
# store message and solutions
lines = definition.split('\n')
msgs = []
solns = []
for line in lines:
line = line.strip()
for char, val in (('@', msgs), (':', solns)):
if line.startswith(char):
# add lines (stripped) starting with the character
val.append(line[1:].strip())
# won't start with the other one if it starts with this one
continue
self.msg = msgs[0] if msgs and conf.SHOW_MSG else None
self.solutions = solns
self._moved = []
self._stored_moves = []
self._winning = False
self.won = False
self.solving = False
self.solving_index = None
self._ff = False
self.recording = False
self.frozen = False
self.start_time = time()
def load (self, ID = None, defn = None):
"""Load a level.
load([ID][, defn])
ID: custom level ID.
defn: if ID is not given, load a level from this definition; if this is not
given, load a blank level.
"""
if ID is None:
if defn is None:
# blank grid
defn = conf.BLANK_LEVEL
self.ID = None
else:
# get data from file
d = conf.LEVEL_DIR_DRAFT if ID[0] == 2 else conf.LEVEL_DIR_CUSTOM
with open(d + ID[1]) as f:
defn = f.read()
self.ID = ID[1]
if hasattr(self, 'editor'):
self.editor.load(defn)
else:
self.editor = Puzzle(self.game, defn)
self.editor_rect = None
self.editor.deselect()
self.editor.select((0, 0))
self.selector.deselect()
self.selector.select((0, 0), True)
self.puzzle = self.editor
self.editing = True
self.dirty = True
self.changes = []
self.state = 0
self.mouse_moved = False
self.resizing = False
def getUserPuzzleInput():
#Infinite while loop to keep polling for user input
#while input values aren't correct
while True:
#default puzzle
user_input = raw_input("Type \"1\" to use a default puzzle, or \"2\" to enter your own puzzle.\n")
if user_input == '1':
print "You have chosen the default puzzle.\n"
puzzle = Puzzle()
puzzle.printPuzzle()
return puzzle
#user-generated puzzle
elif user_input == '2':
print "Enter your puzzle, use a zero to represent the blank"
#Split on each row of input to get rid white spaces and tabs
puzzle_row_1 = raw_input("Enter the first row, use a space or tabs between numbers ")
puzzle_row_1 = puzzle_row_1.split()
puzzle_row_2 = raw_input("Enter the second row, use a space or tabs between numbers ")
puzzle_row_2 = puzzle_row_2.split()
puzzle_row_3 = raw_input("Enter the third row, use a space or tabs between numbers ")
puzzle_row_3 = puzzle_row_3.split()
#Append the 3 rows of inputs into a list
#forming a nxn matrix
puzzle_list = []
puzzle_list.append(puzzle_row_1)
puzzle_list.append(puzzle_row_2)
puzzle_list.append(puzzle_row_3)
puzzle = Puzzle(puzzle_list)
puzzle.printPuzzle()
return puzzle
else:
print "Incorrect input, please try again.\n"
import sys
sys.path.insert(0, 'src')
from puzzle import Puzzle
from pprint import pprint
setup_1 = [0, 2, 3, 1, 4, 6, 2, 5]
setup_2 = [1, 2, 3, 0, 4, 6, 2, 5]
setup_3 = [1, 2, 3, 4, 0, 6, 2, 5]
setup_4 = [1, 2, 3, 4, 5, 6, 2, 0]
setup_5 = [1, 2, 3, 4, 5, 6, 7, 0, 9, 10, 11, 8]
puzzle = Puzzle(2, setup_1)
print('\n')
print(puzzle)
print(puzzle.possible_moves())
puzzle = Puzzle(2, setup_2)
print('\n')
print(puzzle)
print(puzzle.possible_moves())
puzzle = Puzzle(2, setup_3)
print('\n')
print(puzzle)
print(puzzle.possible_moves())
puzzle = Puzzle(2, setup_4)
print('\n')
print(puzzle)
print(puzzle.possible_moves())
class Level (object):
"""A simple Puzzle wrapper to handle input and winning.
CONSTRUCTOR
Level([event_handler][, ID][, definition][, win_cb], sound = True)
event_handler: evthandler.EventHandler instance to use for keybindings. If not
given, the level cannot be controlled by the keyboard.
ID: level ID to load in the form (is_custom, level_ID).
definition: a level definition to use; see the puzzle module for details.
win_cb: function to call when the player wins, or (function, *args) to pass
some arguments to the function.
sound: whether to play sounds.
One of ID and definition is required.
METHODS
load
move
reset
solve
set_frozen
stop_solving
start_recording
stop_recording
update
ATTRIBUTES
game: None.
ID: level ID; None if this is a custom level or a definition was given instead.
puzzle: puzzle.Puzzle instance.
players: player blocks in the puzzle.
msg: puzzle message.
won: whether the level has been won.
solving: whether the puzzle is currently being solved.
solving_index: the current step in the solution being used to solve the puzzle.
solutions: a list of solutions to the level.
recording: whether input is currently being recorded.
frozen: whether the solution being played back is paused.
start_time: time the level started; this is altered when unpaused to give the
proper amount of time the level has been running, not its actual
start time.
win_cb: as given.
sound: as given.
"""
def __init__ (self, event_handler = None, ID = None, definition = None,
win_cb = None, sound = True):
if not hasattr(self, 'game'):
self.game = None
if event_handler is not None:
# add gameplay key handlers
args = (
eh.MODE_ONDOWN_REPEAT,
max(int(conf.MOVE_INITIAL_DELAY * conf.FPS), 1),
max(int(conf.MOVE_REPEAT_DELAY * conf.FPS), 1)
)
move = lambda *ds: [(self._move, ds)]
freeze = lambda k, e, m: self.set_frozen()
l = conf.KB_LAYOUT
event_handler.add_key_handlers([
(conf.KEYS_MOVE_LEFT[l], move(0)) + args,
(conf.KEYS_MOVE_UP[l], move(1)) + args,
(conf.KEYS_MOVE_RIGHT[l], move(2)) + args,
(conf.KEYS_MOVE_DOWN[l], move(3)) + args,
(conf.KEYS_MOVE_UPLEFT[l], move(0, 1)) + args,
(conf.KEYS_MOVE_UPRIGHT[l], move(1, 2)) + args,
(conf.KEYS_MOVE_DOWNRIGHT[l], move(2, 3)) + args,
(conf.KEYS_MOVE_DOWNLEFT[l], move(3, 0)) + args,
(conf.KEYS_SOLN_NEXT, self._step_solution) + args,
(conf.KEYS_RESET, self.reset, eh.MODE_ONDOWN),
(conf.KEYS_TAB, self._fast_forward, eh.MODE_HELD),
(conf.KEYS_NEXT, freeze, eh.MODE_ONDOWN),
(conf.KEYS_RIGHT, self._step_solution) + args
])
self.sound = sound
self.load(ID, definition)
if hasattr(win_cb, '__call__'):
self.win_cb = (win_cb,)
else:
self.win_cb = win_cb
def load (self, ID = None, definition = None):
"""Load a level.
Takes ID and definition arguments as in the constructor.
"""
self.ID = None if ID is None or ID[0] else ID[1]
if ID is not None:
# get data from file
path = conf.LEVEL_DIR_CUSTOM if ID[0] else conf.LEVEL_DIR_MAIN
with open(path + ID[1]) as f:
definition = f.read()
self.puzzle = Puzzle(self.game, definition, True, self.sound)
self.players = [b for b in self.puzzle.blocks
if b.type == conf.B_PLAYER]
# store message and solutions
lines = definition.split('\n')
msgs = []
solns = []
for line in lines:
line = line.strip()
for char, val in (('@', msgs), (':', solns)):
if line.startswith(char):
# add lines (stripped) starting with the character
val.append(line[1:].strip())
# won't start with the other one if it starts with this one
continue
self.msg = msgs[0] if msgs and conf.SHOW_MSG else None
self.solutions = solns
self._moved = []
self._stored_moves = []
self._winning = False
self.won = False
self.solving = False
self.solving_index = None
self._ff = False
self.recording = False
self.frozen = False
self.start_time = time()
def move (self, multi, *directions):
"""Apply force to all player blocks in the given directions."""
if len(directions) == 1 and multi:
if self._stored_moves is True:
pass
elif self._stored_moves:
directions += (self._stored_moves[0],)
self._stored_moves = True
else:
self._stored_moves.append(directions[0])
return
# only make the move if haven't done already this frame
directions = [d for d in directions if d not in self._moved]
if not directions:
return
self._moved += directions
if self.recording:
self._record(directions)
for d in set(directions):
for player in self.players:
player.add_force(d, conf.FORCE_MOVE)
player.set_direction(d)
def _move (self, key, event, mods, *directions):
"""Key callback to move player."""
if not self.solving:
for d in directions:
self.move(mods & conf.KEYS_MULTI, d)
def reset (self, *args):
"""Reset the level to its state after the last call to Level.load."""
if not self.solving:
self.puzzle.reset()
self.players = [b for b in self.puzzle.blocks
if b.type == conf.B_PLAYER]
# restart recording if want to
if self.recording and self._blank_on_reset:
self.start_recording()
self._winning = False
self.won = False
def _fast_forward (self, key, event, mods):
"""Key callback to fast-forward solving this frame."""
if self.solving:
# if holding ctrl, go even faster
if pygame.KMOD_CTRL & mods:
self._ff = 2
else:
self._ff = 1
def _parse_soln (self, ID, speed = conf.SOLVE_SPEED):
"""Parse a solution string and return the result."""
soln = self.solutions[ID]
parsed = []
for i, s in enumerate(soln.split(',')):
s = s.strip()
if i % 2:
# directions
s = [conf.SOLN_DIRS.index(c) for c in s]
else:
# time delay
if s.startswith('['):
# got keys to hold for this waiting period
end = s.find(']')
hold = [conf.SOLN_DIRS.index(c) for c in s[1:end]]
s = s[end + 1:].strip()
else:
hold = ()
ops = ('>', '<')
if any(op in s for op in ops):
# minimum and maximum values
allowed_range = [None, None]
while s:
# check for < and > being first
for op in ops:
if s.startswith(op):
s = s[1:].strip()
eq = s.startswith('=')
if eq:
# remove = if found
s = s[1:].strip()
else:
# op is not the first operator
continue
# the number is everything up to the next operator
next_op = len(s)
for o in ops:
j = s.find(o)
# or the end of the string
if j == -1:
j = len(s)
next_op = min(j, next_op)
val = int(s[:next_op])
val = int(val)
# add/subtract one if >/<
val += (-1 if op == '<' else 1) * (1 - eq)
allowed_range[ops.index(op)] = val
s = s[next_op:].strip()
# constrain by given conditions
gt, lt = allowed_range
s = speed
if gt is not None:
s = max(s, gt)
if lt is not None:
s = min(s, lt)
else:
s = int(s) if s else speed
s = (hold, s)
parsed.append(s)
return parsed
def solve (self, solution = 0, stop_on_finish = True):
"""Solve the puzzle.
Takes the solution number to use (its index in the list of solutions ordered as
in the puzzle definition). This defaults to 0 (the 'primary' solution).
Returns a list of the directions moved.
This function is also called to move to the next step of an ongoing solution,
in which case it requires no argument. In fact, if a solution is ongoing, it
cannot be called as detailed above (any argument is ignored). This makes it
a bad idea to call this function while solving.
"""
i = self.solving_index
if i is None:
# starting
self.reset()
self.solving = True
self.solving_index = 0
self._solution = self._parse_soln(solution)
self._solution_ff = self._parse_soln(solution, 0)
self._solve_time = self._solution[0][1]
self._solve_time_ff = self._solution_ff[0][1]
self._finished_solving = False
# store solve method
if self.ID is not None:
levels = conf.get('completed_levels', [])
if self.ID not in levels:
solved = conf.get('solve_methods', [])
solved.append(False)
conf.set(solve_methods = solved)
# call this function again to act on the first instruction
move = self.solve()
elif i == len(self._solution):
# finished: just wait until the level ends
self._finished_solving = True
if stop_on_finish:
self.stop_solving()
move = []
else:
# continuing
if i % 2:
# make a move
move = self._solution[i]
self.move(False, *move)
i += 1
if i < len(self._solution):
self._solve_time = self._solution[i][1]
self._solve_time_ff = self._solution_ff[i][1]
self.solving_index = i
else:
# wait
# if fast-forwarding, use the quicker solution
fast = self._ff or self.frozen
t = self._solve_time_ff if fast else self._solve_time
if t <= 0:
self.solving_index += 1
# do next step now
move = self.solve()
else:
self._solve_time -= 1
self._solve_time_ff -= 1
held = self._solution[self.solving_index][0]
if held:
# want to send some input every frame for this delay
self.move(False, *held)
move = held
else:
move = []
self._ff = False
return move
def set_frozen (self, frozen = None):
"""Set paused state of solution, or toggle without an argument."""
if self.solving:
self.frozen = not self.frozen if frozen is None else frozen
def _step_solution (self, key, event, mods):
"""If paused, step the solution forwards once."""
if self.solving and self.frozen:
self._next_step = True
def stop_solving (self):
"""Stop solving the puzzle."""
if self.solving:
self.solving = False
self.solving_index = None
self.frozen = False
del self._solution, self._solution_ff, self._solve_time, \
self._solve_time_ff, self._next_step, self._finished_solving
def _record (self, directions):
"""Add input to the current recording."""
directions = set(directions)
recorded = self._recorded
frame = self._recording_frame
while len(recorded) < frame:
# haven't added anything for some previous frames
recorded.append(None)
if len(recorded) == frame:
# haven't added anything for this frame
recorded.append(directions)
else:
# add more to this frame
recorded[frame] |= directions
self._recorded = recorded
def start_recording (self, blank_on_reset = True):
"""Start recording input to the puzzle (moves).
Takes one boolean argument indicating whether to start recording again if the
puzzle is reset. If already recording, calling this will delete the current
recording.
"""
self.recording = True
self._blank_on_reset = blank_on_reset
self._recorded = []
self._recording_frame = 0
def stop_recording (self):
"""Stop recording input and return the recorded input.
The return value is in the standard solution format. If not recording, this
function returns None.
"""
result = ''
t = 0
for frame in self._recorded:
if frame is None:
# wait for a frame with input
t += 1
else:
# add total wait time
result += str(t) + ','
t = 0
# add input
result += ''.join(conf.SOLN_DIRS[d] for d in frame) + ','
self.recording = False
del self._blank_on_reset, self._recorded, self._recording_frame
return result[:-1]
def update (self):
"""Update puzzle and check win conditions.
Returns whether anything changed.
"""
if not self.frozen or self._next_step:
# fast-forward by increasing FPS
if self.solving and self._ff == 2:
if not hasattr(self, '_FRAME'):
self._FRAME = self.FRAME
self.FRAME /= conf.FF_SPEEDUP
elif hasattr(self, '_FRAME'):
self.FRAME = self._FRAME
del self._FRAME
# continue solving
if self.solving:
self.solve()
# continue recording
if self.recording:
self._recording_frame += 1
# step puzzle forwards
rtn = self.puzzle.step()
self._next_step = False
# reset list of moves made this frame
self._moved = []
self._stored_moves = []
else:
rtn = False
# check for surfaces with their corresponding Block types on them
win = True
for col in self.puzzle.grid:
for s, b, sel in col:
# goal surfaces have IDs starting at 0
if s >= 0 and (not isinstance(b, Block) or s != b.type):
win = False
break
# need to stay winning for one frame - that is, blocks must have
# stopped on the goals, not just be moving past them
if win:
if not self._winning:
self._winning = True
# else if this is the first frame since we've won,
elif not self.won:
# stop solving
if self.solving:
if self._finished_solving:
self.stop_solving()
win = self._winning
else:
win = False
if win:
# save to disk
if not self.solving and self.ID is not None:
levels = conf.get('completed_levels', [])
if self.ID not in levels:
levels.append(self.ID)
conf.set(completed_levels = levels)
self.game.set_backend_attrs(menu.MainMenu,
're_init', True)
# store solve method
solved = conf.get('solve_methods', [])
solved.append(True)
conf.set(solve_methods = solved)
# call win callback
if self.win_cb is not None:
self.win_cb[0](*self.win_cb[1:])
# play victory sound
if self.sound:
self.game.play_snd('win')
self.won = True
else:
self._winning = False
return rtn
This program is distributed in the hope that it will be useful,
but WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
GNU General Public License for more details.
You should have received a copy of the GNU General Public License
along with this program. If not, see <http://www.gnu.org/licenses/>.
"""
import sys
from puzzle import Puzzle
if __name__ == "__main__":
if len(sys.argv) > 1:
f = open(sys.argv[1], "r")
ans = []
for l in f.readlines():
if l[0] != "#":
ans.append(l.rstrip().split(" "))
pz = Puzzle(ans)
pz.printout()
pz.initial_update()
while (pz.eliminate_singles() or pz.eliminate_doubles()) and (not pz.finished()):
pass
print
print
pz.printout()
def setUp(self): self.p = Puzzle(plugins_dir=join(getcwd(), PATH))
def __init__(self, initial_state):
initial_state = initial_state.split(",")
initial_state = [int(i) for i in initial_state]
self.START_PUZZLE = Puzzle(initial_state, 0)
#! /usr/bin/python
from puzzle import Puzzle
from a_star import Astar
import time
##Set Goal
goal = ["1", "2", "3",
"4", "5", "6",
"7", "8", "_"]
test = Puzzle()
test.random_start(5)
print "-----------Puzzle----------"
test.print_board()
print "---------------------------"
solve = Astar()
start_time = time.time()
solve.simulated_annealing(test,goal)
print("--- search took %.2f seconds ---" % (time.time() - start_time))
# print solve.solution
# test.print_board()
print "Total move is %d" % (len(solve.solution))
for direction in solve.solution:
print "next move is %s" % (direction)
raw_input("Press Enter to continue...")
test.move(direction)
test.print_board()
def read_xpf(filename, warnings=True):
results = []
try:
doc = etree.parse(filename)
except etree.XMLSyntaxError:
raise XPFParserError(u"No valid XML syntax.")
puzzles = doc.getroot()
if puzzles.tag != "Puzzles":
raise XPFParserError(u"No root element called Puzzles found.")
version = puzzles.get("Version")
if version is None:
raise XPFParserError(u"No version specified for this XPF file. Possible older than v1.0?")
try:
version = float(version)
except ValueError:
raise XPFParserError("uXPF version is not a valid number")
if version < 1.0:
raise XPFParserError("uXPF versions older than 1.0 are not supported.")
for puzzle in puzzles:
if puzzle.tag != "Puzzle":
if warnings:
print "Warning: skipping a child of Puzzles that is not a Puzzle."
continue
r_meta = {}
r_width = None
r_height = None
r_grid = None
r_notepad = ""
r_styles = {}
r_gstyles = {}
r_number_mode = constants.NUMBERING_AUTO
for child in puzzle:
if child.tag in XPF_META_ELEMS:
r_meta[XPF_META_ELEMS[child.tag]] = child.text
elif child.tag == "Size":
for d in child:
try:
if d.tag == "Rows":
r_height = int(d.text)
elif d.tag == "Cols":
r_width = int(d.text)
except ValueError:
raise XPFParserError(u"Invalid grid dimensions were specified.")
elif child.tag == "Grid":
if r_width is None:
raise XPFParserError(u"The number of columns was not specified.")
if r_height is None:
raise XPFParserError(u"The number of rows was not specified.")
assert r_width >= 0
assert r_height >= 0
r_grid = Grid(r_width, r_height)
y = 0
for row in child:
if row.tag != "Row":
if warnings:
print "Warning: skipping a child of Grid that is not a Row."
continue
if not row.text:# or len(row.text) < r_width:
if warnings:
print "Warning: skipping a row with missing content."
continue
for x, c in enumerate(row.text):
if c == '.':
r_grid.data[y][x]["block"] = True
elif c == '~':
r_grid.data[y][x]["void"] = True
else:
r_grid.data[y][x]["char"] = c if c != ' ' else ''
y += 1
elif child.tag == "Circles":
for circle in child:
if circle.tag != "Circle":
if warnings:
print "Warning: skipping a child of Circles that is not a Circle."
continue
a_row = circle.get("Row")
a_col = circle.get("Col")
if not (a_row and a_col):
if warnings:
print "Warning: skipping a child of Circles with missing content."
continue
try:
x = int(a_col) - 1
y = int(a_row) - 1
except ValueError:
if warnings:
print "Warning: skipping child of Circles with invalid coordinates."
continue
if (x, y) not in r_styles:
r_styles[x, y] = CellStyle()
r_styles[x, y]["circle"] = True
elif child.tag == "RebusEntries":
for rebus in child:
if rebus.tag != "Rebus":
if warnings:
print "Warning: skipping a child of RebusEntries that is not a Rebus."
continue
a_row = rebus.get("Row")
a_col = rebus.get("Col")
a_short = rebus.get("Short")
content = rebus.text
if not (a_row and a_row and a_short and content):
if warnings:
print "Warning: skipping a child of RebusEntries with missing content."
continue
try:
x = int(a_col) - 1
y = int(a_row) - 1
except ValueError:
if warnings:
print "Warning: skipping child of RebusEntries with invalid coordinates."
continue
r_grid.set_rebus(x, y, a_short, content)
elif child.tag == "Shades":
for shade in child:
if shade.tag != "Shade":
if warnings:
print "Warning: skipping a child of Shades that is not a Shade."
continue
a_row = shade.get("Row")
a_col = shade.get("Col")
if not (a_row and a_col and shade.text):
if warnings:
print "Warning: skipping a child of Shades with missing content."
continue
try:
x = int(a_col) - 1
y = int(a_row) - 1
except ValueError:
if warnings:
print "Warning: skipping a child of Shades with invalid coordinates."
continue
if (x, y) not in r_styles:
r_styles[x, y] = CellStyle()
if shade.text == "gray":
rgb = (32767, 32767, 32767)
elif shade.text[0] == '#':
rgb = hex_to_color(shade.text)
r_styles[x, y]["cell", "color"] = rgb
elif child.tag == "Clues":
for clue in child:
if clue.tag != "Clue":
if warnings:
print "Warning: skipping a child of Clues that is not a Clue."
continue
a_row = clue.get("Row")
a_col = clue.get("Col")
a_num = clue.get("Num")
a_dir = clue.get("Dir")
a_ans = clue.get("Ans")
if not (a_row and a_col and a_dir):
if warnings:
print "Warning: skipping a child of Clues with missing content."
continue
try:
x = int(a_col) - 1
y = int(a_row) - 1
except ValueError:
if warnings:
print "Warning: skipping a child of Clues with invalid coordinates."
continue
dirs = {"Across": "across", "Down": "down"}
if a_dir not in dirs:
if warnings:
print "Warning: skipping a clue with a direction that is not across or down."
continue
if not clue.text:
if warnings:
print "Warning: skipping clue without text."
continue
r_grid.store_clue(x, y, dirs[a_dir], "text", clue.text)
elif child.tag == "Notepad":
r_notepad = child.text
elif child.tag == "Palabra":
version = child.get("Version")
if version > constants.VERSION:
# for now, don't try
if warnings:
print "Warning: Palabra-specific puzzle content was not loaded as it was made in a newer version of Palabra."
continue
for c in child:
if c.tag == "Explanation":
a_row = c.get("Row")
a_col = c.get("Col")
a_dir = c.get("Dir")
if not (a_row and a_col and a_dir):
if warnings:
print "Warning: skipping Explanation with missing content"
continue
try:
x = int(a_col) - 1
y = int(a_row) - 1
except ValueError:
if warnings:
print "Warning: skipping Explanation with invalid coordinates."
continue
dirs = {"Across": "across", "Down": "down"}
if a_dir not in dirs:
if warnings:
print "Warning: skipping Explanation with a direction that is not across or down."
continue
if not c.text:
if warnings:
print "Warning: skipping explanation without text."
continue
r_grid.store_clue(x, y, dirs[a_dir], "explanation", c.text)
elif c.tag == "Style":
for s in c:
if s.tag == "Bar":
width = s.get("Width")
if width is not None:
r_gstyles["bar", "width"] = int(width)
elif s.tag == "Border":
width = s.get("Width")
if width is not None:
r_gstyles["border", "width"] = int(width)
color = s.get("Color")
if color is not None:
r_gstyles["border", "color"] = hex_to_color(color)
elif s.tag == "Cell":
size = s.get("Size")
if size is not None:
r_gstyles["cell", "size"] = int(size)
color = s.get("Color")
if color is not None:
r_gstyles["cell", "color"] = hex_to_color(color)
elif s.tag == "Line":
width = s.get("Width")
if width is not None:
r_gstyles["line", "width"] = int(width)
color = s.get("Color")
if color is not None:
r_gstyles["line", "color"] = hex_to_color(color)
elif s.tag == "Block":
color = s.get("Color")
if color is not None:
r_gstyles["block", "color"] = hex_to_color(color)
margin = s.get("Margin")
if margin is not None:
r_gstyles["block", "margin"] = int(margin)
elif s.tag == "Char":
color = s.get("Color")
if color is not None:
r_gstyles["char", "color"] = hex_to_color(color)
size = s.get("Size")
if size is not None:
s_s = int(size)
s_k = ("cell", "size")
s_d = {s_k: (r_gstyles[s_k] if s_k in r_gstyles else DEFAULTS[s_k])}
s_r = _relative_to(s_k, s_s / 100.0, d=s_d)
r_gstyles["char", "size"] = (s_s, s_r)
elif s.tag == "Number":
color = s.get("Color")
if color is not None:
r_gstyles["number", "color"] = hex_to_color(color)
size = s.get("Size")
if size is not None:
s_s = int(size)
s_k = ("cell", "size")
s_d = {s_k: (r_gstyles[s_k] if s_k in r_gstyles else DEFAULTS[s_k])}
s_r = _relative_to(s_k, s_s / 100.0, d=s_d)
r_gstyles["number", "size"] = (s_s, s_r)
if r_number_mode == constants.NUMBERING_AUTO:
r_grid.assign_numbers()
p = Puzzle(r_grid, r_styles, r_gstyles)
p.metadata = r_meta
p.type = constants.PUZZLE_XPF
p.filename = filename
p.notepad = r_notepad
results.append(p)
return results
#! /usr/bin/python from copy import deepcopy from puzzle import Puzzle import sys,time # define question array p = Puzzle([ ["1","2","3"], ["4","5","6"], ["7","8"," "], ]) # define goal array goal = Puzzle(deepcopy(p.Array)) # define where there is a space space_index = [2,2] def check_answer(): """ Check the answer is correct """ if p.Array == goal.Array: print "Clear!!" return True else: return False def print_problem(puzzle): """ print problem statement """ print "\nProblem %d" % (i) puzzle.print_puzzle()
from puzzle import Puzzle
#just some tests to show how the class works
#testPuzzle.printBoard()
#print(testPuzzle.getTile(0,2))
#stringVer = testPuzzle.printBoardString()
#print(stringVer)
testPuzzle = Puzzle([[1, 2, 3], [4, 5, 0], [6, 7, 8]])
wrongPuzzle = Puzzle([[4, 2, 1], [3, 7, 8], [6, 5, 0]])
testPuzzle2 = Puzzle([[1, 2, 3], [4, 5, 0], [6, 7, 8]])
print("\nCorrect board")
testPuzzle.printBoard()
print("\n")
print("Incorrect board\n")
wrongPuzzle.printBoard()
#print("Attempting to find neighbors")
#possibilities = testPuzzle.getNeighbors()
#print(possibilities)
#print(testPuzzle.isGoal())
#print(testPuzzle.getHamming())
#print(wrongPuzzle.isGoal())
#print(wrongPuzzle.getHamming())
#print(testPuzzle.boardsEqual(wrongPuzzle.getBoard()))
#print(testPuzzle.boardsEqual(testPuzzle2.getBoard()))
print("WrongPuzzle's current state: \n")
if file.endswith(image_type)
]
for image_name in image_files:
image_gray = cv2.imread(images_path + image_name, 0)
if image_gray is None:
continue
puzzle_state, puzzle_image = extract_puzzle(
image_gray, puzzle_extractor_display_time)
new_visualizer = Visualizer(puzzle_state,
puzzle_image,
window_name='Recursive Solver')
input = np.reshape(
np.asarray([int(num) for num in puzzle_state.strip()]), (9, 9))
# new_puzzle = Puzzle(input, visualizer=new_visualizer, display_updates=show_standard).solve()
Puzzle(visualizer=new_visualizer).solve_recursive(
input, display_updates=show_recursive)
filepath = './puzzles/sudoku.csv'
with open(filepath, newline='') as pz:
reader = csv.reader(pz, )
next(reader, None) # Skip the header line
recursive_sum = 0
standard_sum = 0
perf = 0
ct = 0
try:
for input, solution in reader:
ct += 1
def load(self, puzzle_index, solve_set) -> (Puzzle, Puzzle):
puzzle = Puzzle(self.__puzzle_strings[puzzle_index], solve_set)
solution = Puzzle(self.__solution_strings[puzzle_index])
return puzzle, solution
class Editor (object):
"""A puzzle editor (Game backend).
Takes arguments to pass to Editor.load.
METHODS
load
change
resize
insert
delete
set_block
undo
redo
click_tile
switch_puzzle
reset
menu
ATTRIBUTES
game: as given.
event_handler: as given.
ID: as given.
selector: puzzle used to select blocks/surfaces to add.
editor: the puzzle being edited.
editor_rect: the rect the editor puzzle is drawn in, or None if unknown.
puzzle: the current visible puzzle (editor or selector).
editing: whether the current puzzle is editor.
changes: a list of changes that have been made to the puzzle.
state: the current position in the changes list.
"""
def __init__ (self, game, event_handler, ID = None, defn = None):
self.game = game
# add event handlers
event_handler.add_event_handlers({
pygame.MOUSEBUTTONDOWN: self._click,
pygame.MOUSEBUTTONUP: self._unclick,
pygame.MOUSEMOTION: lambda e: setattr(self, 'mouse_moved', True)
})
pzl_args = (
eh.MODE_ONDOWN_REPEAT,
max(int(conf.MOVE_INITIAL_DELAY * conf.FPS), 1),
max(int(conf.MOVE_REPEAT_DELAY * conf.FPS), 1)
)
menu_args = (
eh.MODE_ONDOWN_REPEAT,
max(int(conf.MENU_INITIAL_DELAY * conf.FPS), 1),
max(int(conf.MENU_REPEAT_DELAY * conf.FPS), 1)
)
od = eh.MODE_ONDOWN
held = eh.MODE_HELD
l = conf.KB_LAYOUT
event_handler.add_key_handlers([
(conf.KEYS_MOVE_LEFT[l], [(self._move, (0,))]) + pzl_args,
(conf.KEYS_MOVE_UP[l], [(self._move, (1,))]) + pzl_args,
(conf.KEYS_MOVE_RIGHT[l], [(self._move, (2,))]) + pzl_args,
(conf.KEYS_MOVE_DOWN[l], [(self._move, (3,))]) + pzl_args,
(conf.KEYS_BACK, self.menu, od),
(conf.KEYS_TAB, self.switch_puzzle, od),
(conf.KEYS_INSERT, self._insert_cb, od),
(conf.KEYS_DEL, self.delete, od),
(conf.KEYS_UNDO, self.undo) + menu_args,
(conf.KEYS_REDO, self.redo) + menu_args,
(conf.KEYS_RESET, self.reset, od)
])
self.event_handler = event_handler
# create block/surface selection grid
blocks = xrange(conf.MAX_ID + 1)
surfaces = xrange(-1, conf.MIN_ID - 1, -1)
self._selector_defn = '3 {0}\n{1}\n\n{2}\n{3}'.format(
max(len(blocks), len(surfaces)),
'\n'.join('{0} 0 {1}'.format(b, i) for i, b in enumerate(blocks)),
'\n'.join('{0} 1 {1}'.format(b, i) for i, b in enumerate(blocks)),
'\n'.join('{0} 2 {1}'.format(s, i) for i, s in enumerate(surfaces))
)
self.selector = Puzzle(game, self._selector_defn)
self.FRAME = conf.FRAME
self.load(ID, defn)
def load (self, ID = None, defn = None):
"""Load a level.
load([ID][, defn])
ID: custom level ID.
defn: if ID is not given, load a level from this definition; if this is not
given, load a blank level.
"""
if ID is None:
if defn is None:
# blank grid
defn = conf.BLANK_LEVEL
self.ID = None
else:
# get data from file
d = conf.LEVEL_DIR_DRAFT if ID[0] == 2 else conf.LEVEL_DIR_CUSTOM
with open(d + ID[1]) as f:
defn = f.read()
self.ID = ID[1]
if hasattr(self, 'editor'):
self.editor.load(defn)
else:
self.editor = Puzzle(self.game, defn)
self.editor_rect = None
self.editor.deselect()
self.editor.select((0, 0))
self.selector.deselect()
self.selector.select((0, 0), True)
self.puzzle = self.editor
self.editing = True
self.dirty = True
self.changes = []
self.state = 0
self.mouse_moved = False
self.resizing = False
def change (self, *data):
"""Make a change to the puzzle; takes data to store in self.changes."""
cs = self.changes
# purge 'future' states
cs = cs[:self.state]
cs.append(data)
# purge oldest state if need to (don't need to increment state, then)
if len(cs) > conf.UNDO_LEVELS > 0:
cs.pop(0)
else:
self.state += 1
self.changes = cs
def resize (self, amount, dirn):
"""Like Editor.editor.resize, but do some wrapper stuff."""
lost = self.editor.resize(amount, dirn)
# might not have changed
if lost is not False:
self.dirty = True
self.change('resize', amount, dirn, lost)
def _move (self, key, event, mods, direction):
"""Callback for arrow keys."""
resize = False
mods = (mods & pygame.KMOD_SHIFT, mods & pygame.KMOD_ALT)
shrink = bool(mods[direction <= 1])
grow = bool(mods[direction > 1])
resize = shrink ^ grow
if resize:
# things could get messy if we're already mouse-resizing
if not self.resizing:
self.resize(1 if grow else -1, direction)
else:
# move selection
self.puzzle.move_selected(direction)
def insert (self):
"""Insert a block or surface at the current position."""
if not self.editing:
return
# get type and ID of selected tile in selector puzzle
col, row = self.selector.selected.keys()[0]
x, y = self.editor.selected.keys()[0]
is_block = col == 0 and row <= conf.MAX_ID
if is_block:
ID = row
# will be here for col = 0 if past end of blocks
elif col == 0 or col == 1:
ID = row
if ID > conf.MAX_ID:
ID = conf.DEFAULT_SURFACE
else:
ID = -row - 1
if ID >= 0:
ID = conf.DEFAULT_SURFACE
# make changes to selected tile in editor puzzle if necessary
current = self.editor.grid[x][y]
if is_block:
if current[1] is None or current[1].type != ID:
old_b = current[1]
b = self.editor.add_block((BoringBlock, ID), x, y)
self.game.play_snd('place_block')
self.change('set_block', old_b, b, x, y)
else:
if current[0] != ID:
old_ID = current[0]
self.editor.set_surface(x, y, ID)
self.game.play_snd('place_surface')
self.change('set_surface', old_ID, ID, x, y)
def _insert_cb (self, *args):
"""Callback for conf.KEYS_INSERT."""
if self.editing:
self.insert()
else:
self.switch_puzzle()
def delete (self, *args):
"""Delete a block or surface in the currently selected tile."""
if self.editing:
x, y = self.editor.selected.keys()[0]
data = self.editor.grid[x][y]
snd = True
# delete block, if any
if data[1] is not None:
b = self.editor.rm_block(None, x, y)
self.change('set_block', b, None, x, y)
# set surface to blank if not already
elif data[0] != conf.S_BLANK:
s = self.editor.set_surface(x, y, conf.S_BLANK)
self.change('set_surface', s, conf.S_BLANK, x, y)
else:
snd = False
if snd:
self.game.play_snd('delete')
def set_block (self, b, x, y):
"""Add or remove a block to or from the puzzle.
set_block(b, x, y)
b: BoringBlock instance, or None to remove.
x, y: tile position.
"""
if b is None:
self.editor.rm_block(None, x, y)
else:
self.editor.add_block(b, x, y)
def undo (self, *args):
"""Undo changes to the puzzle."""
if self.state > 0:
self.state -= 1
# get change data
data = self.changes[self.state]
c, data = data[0], data[1:]
# make the change to the puzzle
if c == 'set_block':
old_b, new_b, x, y = data
self.set_block(old_b, x, y)
elif c == 'set_surface':
old, new, x, y = data
self.editor.set_surface(x, y, old)
elif c == 'resize':
amount, direction, lost = data
self.editor.resize(-amount, (direction - 2) % 4)
# restore stuff that was lost in the resize
for obj, x, y in lost:
if isinstance(obj, int):
self.editor.set_surface(x, y, obj)
else:
self.set_block(obj, x, y)
self.dirty = True
def redo (self, *args):
"""Redo undone changes."""
if self.state < len(self.changes):
# get change data
data = self.changes[self.state]
c, data = data[0], data[1:]
self.state += 1
# make the change to the puzzle
if c == 'set_block':
old_b, new_b, x, y = data
self.set_block(new_b, x, y)
elif c == 'set_surface':
old, new, x, y = data
self.editor.set_surface(x, y, new)
elif c == 'resize':
amount, direction, lost = data
self.editor.resize(amount, direction)
self.dirty = True
def click_tile (self, insert, pos):
"""Insert or delete a block or surface at the given position.
click_tile(insert, pos)
insert: whether to insert the current block or surface (else delete).
pos: on-screen position to try to perform the action at.
"""
# get clicked tile
p = self.editor.point_tile(pos)
if p:
# clicked a tile in self.editor: switch to and select
if not self.editing:
self.switch_puzzle()
self.editor.deselect()
self.editor.select(p)
(self.insert if insert else self.delete)()
else:
p = self.selector.point_tile(pos)
if p:
# clicked a tile in self.selector: switch to selector, then
# select the tile
if self.editing:
self.switch_puzzle()
self.selector.deselect()
self.selector.select(p)
def _click (self, evt):
"""Handle mouse clicks."""
button = evt.button
pos = evt.pos
if button in (1, 3):
# left-click to insert, right-click to delete
self.click_tile(button == 1, pos)
elif button == 2:
rel_pos = self.editor.point_pos(pos)
# make sure we're clicking in the grid
if rel_pos is None:
return
self._resize_sides = []
# exclude a zone in the middle
b = conf.RESIZE_DEAD_ZONE_BOUNDARY
for i in (0, 1):
if b < rel_pos[i] < 1 - b:
self._resize_sides.append(None)
else:
# the axes we can resize on depends on where we start from
self._resize_sides.append(1 if rel_pos[i] > .5 else -1)
if self._resize_sides == [None, None]:
return
self.resizing = list(pos)
def _unclick (self, evt):
"""Handle mouse click release."""
if evt.button == 2 and self.resizing:
self.resizing = False
del self._resize_sides
def switch_puzzle (self, *args):
"""Switch selected puzzle between editor and block selector."""
self.editing = not self.editing
pzls = (self.editor, self.selector)
if self.editing:
new, old = pzls
else:
old, new = pzls
# deselect old and select new
for colour, pzl in enumerate((new, old)):
pos = pzl.selected.keys()[0]
pzl.deselect()
pzl.select(pos, colour)
self.puzzle = new
def reset (self, *args):
"""Confirm resetting the puzzle."""
if self.state > 0:
self.game.start_backend(Menu, 1, self)
# else nothing to reset
def menu (self, *args):
"""Show the editor menu."""
self.game.start_backend(Menu, 0, self)
def _do_reset (self):
"""Actually reset the puzzle."""
# just reset to original state - to whatever was loaded, if anything
while self.state > 0:
self.undo()
def update (self):
"""Handle mouse movement."""
if self.mouse_moved:
pos = pygame.mouse.get_pos()
if self.resizing:
# change puzzle size if middle-click-dragging
old_pos = self.resizing
for i in (0, 1):
side = self._resize_sides[i]
if side is None:
# can't resize on this axis
continue
diff = pos[i] - old_pos[i]
threshold = min(conf.RESIZE_LENGTH * conf.RES[0],
self.editor.tile_size(i))
while abs(diff) >= threshold:
# resize
sign = 1 if diff > 0 else -1
self.resize(sign * side, i + 2 * (sign == 1))
# prepare for resizing again
old_pos[i] += sign * threshold
diff -= sign * threshold
else:
# change selection based on mouse position
# get tile under mouse
tile = self.editor.point_tile(pos)
if tile:
# editor: select tile under mouse
if not self.editing:
self.switch_puzzle()
self.editor.deselect()
self.editor.select(tile)
else:
# selector: just make sure it's the current puzzle
tile = self.selector.point_tile(pos)
if tile:
if self.editing:
self.switch_puzzle()
self.mouse_moved = False
def draw (self, screen):
"""Draw the puzzles."""
w, h = screen.get_size()
w1 = int(conf.EDITOR_WIDTH * w)
w2 = w - w1
pad = int(conf.EDITOR_ARROW_PADDING * w)
if self.dirty:
screen.fill(conf.BG[conf.THEME])
# get puzzle sizes
e = self.editor.tiler
s = self.selector.tiler
if w1 != s.offset[0]:
# screen size changed: need to change puzzle positions
e.offset = (pad, pad)
s.offset = (w1, 0)
s.reset()
# draw puzzles
drawn1 = self.editor.draw(screen, self.dirty,
(w1 - 2 * pad, h - 2 * pad))
drawn2 = self.selector.draw(screen, self.dirty, (w2, h))
# and return the sum list of rects to draw in
drawn = []
for d in (drawn1, drawn2):
if d:
drawn += d
# draw arrows
if self.dirty:
self.editor_rect = drawn1
# TODO
to_draw = range(8)
special = []
drawn = True
else:
# TODO
to_draw = []
special = []
drawn += []
if to_draw:
# get draw area position and size
l, t, w, h = self.editor_rect[0]
tl = (l - pad, t - pad)
br = (l + w, t + h)
sz = (w + 2 * pad, h + 2 * pad)
# generate required arrow images
fn = conf.IMG_DIR + conf.THEME + os.sep + '{0}.png'
imgs = []
for ID in ('arrow', 'arrow-special'):
imgs.append(self.game.img(fn.format(ID), (pad / 2, None)))
for i in xrange(1, 4):
imgs.append(None)
img_s = [img for img in imgs if img is not None][0].get_size()
# draw
for i in to_draw:
p = [0, 0]
axis = (i / 2) % 2
p[axis] = (br if i > 3 else tl)[axis] + img_s[0] * (i % 2)
p[not axis] = tl[not axis] + (sz[not axis] - img_s[1]) / 2
img = (axis + 2 * (i % 2)) % 4
if i in special:
img += 4
if imgs[img] is None:
source = imgs[4 * (i in special)]
imgs[img] = pygame.transform.rotate(source, -90 * img)
screen.blit(imgs[img], p)
self.dirty = False
return drawn
from puzzle import Puzzle
'''
Information for the {@param: data_group}:
"Days" : [ "June 10", "June 11", "June 12", "June 13" ],
"Departures" : [ "uttonwillow", "Coulterville", "Farley", "Leland" ],
"Names" : [ "Allen", "Chris", "Julio", "Luke" ]
'''
data_group = {"Days" : [ "10", "11", "12", "13" ], "Departures" : [ "buttonwillow", "coulterville", "farley", "leland" ], "Names" : [ "allen", "chris", "julio", "luke"] }
puzzle = Puzzle(data_group)
# puzzle.process_hint('The/at person/nn departing/vbg from/in Buttonwillow/np will/md leave/vb 2/cd days/nn after/cs Julio/np.')
# puzzle.process_hint('Luke/np is/bez scheduled/vbd to/in leave/vb on/in June/np 11/cd.')
# puzzle.process_hint('The/at person/nn working/vbg on/in June/np 11/cd is/is either/cc the/at person/nn departing/vbg from/in Coulterville/np or/in Allen/np.')
puzzle.process_hint('The/at conductor/nn departing/vbg from/in Leland/np will/md leave/vb 1/cd day/nn after/cs Chris/np')
print(puzzle.kb_rule_list)
# print(puzzle.process_hint('The/at conductor/nn departing/vbg from/in Leland/np will/md leave/vb 1/cd day/nn after/cs Chris/np'))
# hint1 = Hint('The person departing from Buttonwillow will leave 2 days after Julio.')
def test_process_hint_puzzle_one(puzzle, num_tests = 4):
print(puzzle.process_hint('The/at person/nn departing/vbg from/in Buttonwillow/np will/md leave/vb 2/cd days/nn after/in Julio/np.'))
print(puzzle.process_hint('Luke/np is/bez scheduled/vbd to/in leave/vb on/in June/np 11/cd.'))
print(puzzle.process_hint('The/at conductor/nn departing/vbg from/in Leland/np will/md leave/vb 1/cd day/nn after/cs Chris/np'))
def testHowManyMovesIsCurrentStateFromGoal(self):
p = Puzzle("021345678")
self.assertEqual(p.distanceToGoal(), 2)
def choose_map(self, continent):
name = continent.replace(" ", "-")
img = pg.transform.smoothscale(prepare.GFX[name], (640, 480))
self.persist["puzzle"] = Puzzle(img)
self.next_state = "IDLE"
self.done = True
def read_ipuz(filename, warnings=True):
results = []
content = None
with open(filename, 'r') as f:
content = f.read()
content = content.strip('\n')
if content is not None:
data = json.loads(content[5:-1])
keys = data.keys()
if "version" not in keys:
raise IPUZParserError(u"Mandatory version element missing in ipuz file.")
if "kind" not in keys:
raise IPUZParserError(u"Mandatory kind element missing in ipuz file.")
n_kinds = len(data["kind"])
if n_kinds == 0:
raise IPUZParserError(u"Mandatory kind element has no content.")
if n_kinds > 1:
raise IPUZParserError(u"Mandatory kind element has more than one puzzle kind.")
kind = data["kind"][0]
if kind != "http://ipuz.org/crossword#1":
raise IPUZParserError(u"This type of puzzle (" + kind + ") is not supported.")
r_meta = {}
r_width = None
r_height = None
r_grid = None
r_notepad = ""
r_styles = {}
r_gstyles = {}
r_number_mode = constants.NUMBERING_AUTO
for m in IPUZ_MY_META_ELEMS:
if m in data:
r_meta[IPUZ_MY_META_ELEMS[m]] = data[m]
for m in IPUZ_META_ELEMS:
if m in data:
r_meta[m] = data[m]
c_block = IPUZ_BLOCK_CHAR
c_empty = IPUZ_EMPTY_CHAR
for t in IPUZ_TECH_ELEMS:
if t in data:
if t == "block":
r_meta[t] = c_block = data[t]
elif t == "empty":
r_meta[t] = c_empty = data[t]
else:
pass # TODO
for e in IPUZ_CROSS_ELEMS:
if e in data:
if e == "dimensions":
r_width = data[e]["width"]
r_height = data[e]["height"]
elif e == "puzzle":
assert r_width >= 0
assert r_height >= 0
r_grid = Grid(r_width, r_height)
x, y = 0, 0
for row in data[e]:
for x, c in enumerate(row):
if isinstance(c, dict):
if "style" in c:
style = c["style"]
if "shapebg" in style:
if style["shapebg"] == "circle":
if (x, y) not in r_styles:
r_styles[x, y] = CellStyle()
r_styles[x, y]["circle"] = True
if "color" in style:
if (x, y) not in r_styles:
r_styles[x, y] = CellStyle()
rgb = hex_to_color('#' + style["color"])
r_styles[x, y]["cell", "color"] = rgb
if "colortext" in style:
if (x, y) not in r_styles:
r_styles[x, y] = CellStyle()
rgb = hex_to_color(style["colortext"])
r_styles[x, y]["char", "color"] = rgb
if "cell" in c:
c = c["cell"]
# fall-through
if c == None:
r_grid.set_void(x, y, True)
elif c == c_block:
r_grid.set_block(x, y, True)
elif c == c_empty:
pass
y += 1
elif e == "solution":
assert r_grid is not None
x, y = 0, 0
for row in data[e]:
for x, c in enumerate(row):
if isinstance(c, list) or isinstance(c, dict):
print "TODO"
elif c is not None and c != c_block and c != c_empty:
r_grid.set_char(x, y, c)
y += 1
elif e == "clues":
assert r_grid is not None
clues = {}
for md, d in [("across", "Across"), ("down", "Down")]:
if d in data[e]:
for n, clue in data[e][d]:
clues[n, md] = clue
if r_number_mode == constants.NUMBERING_AUTO:
r_grid.assign_numbers()
for d in ["across", "down"]:
for n, x, y in r_grid.words_by_direction(d):
if (n, d) in clues:
r_grid.store_clue(x, y, d, "text", clues[n, d])
p = Puzzle(r_grid, r_styles, r_gstyles)
p.metadata = r_meta
p.type = constants.PUZZLE_IPUZ
p.filename = filename
p.notepad = r_notepad
results.append(p)
return results
if __name__ == "__main__":
parser = argparse.ArgumentParser()
parser.add_argument("size", type=int, help="Size of the puzzle's side. Must be >3.")
args = parser.parse_args()
cmd = "python puzzle_generator.py " + str(args.size)
proc = subprocess.Popen([cmd], stdout=subprocess.PIPE, shell=True)
(out, err) = proc.communicate()
print out
out = out.strip()
data = out.split('\n')
puzzle = Puzzle(data)
print ''
print 'Comment:', puzzle.comment
print ''
print 'Puzzle:', puzzle.list
print ''
print 'Solution:', puzzle.solution
start = BlockPuzzle(puzzle.size, puzzle.list)
end = BlockPuzzle(puzzle.size, puzzle.solution)
x = solve(start, end, distance_h)
i = 0
for puzzle in x[2]:
rect2 = pygame.Rect(0, 300, 600, 300)
font = pygame.font.Font(None, 30)
pygame.display.set_icon(pygame.image.load('objects/tile.bmp'))
while running:
for event in pygame.event.get():
if event.type == pygame.QUIT:
running = 0
outer_loop = 0
if event.type == pygame.MOUSEBUTTONUP:
pos = pygame.mouse.get_pos()
if rect1.collidepoint(pos):
puzzle = Puzzle(screen)
outer_loop = puzzle.play()
running = 0
break
elif rect2.collidepoint(pos):
puzzle = Puzzle(screen)
outer_loop = puzzle.user_create_puzzle()
running = 0
break
#draw rectangles
pygame.draw.rect(screen, (0, 0, 0), rect1, 1)
pygame.draw.rect(screen, (0, 0, 0), rect2, 1)
#render text
text1 = font.render("Solve a puzzle", True, (0, 0, 0))
#!/usr/bin/env python3
import argparse
from puzzle import Puzzle
parser = argparse.ArgumentParser(description='A very simple soduku solver')
parser.add_argument("file", type=str, default=None, help="File to process.")
parser.add_argument("-d",
"--details",
default=None,
action="store_true",
help="Output steps in details")
args = parser.parse_args()
p = Puzzle(args.file)
p.output_details = args.details
p.solve().format()
fin = ([1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,0],15)
nants = raw_input("Numero de hormigas: ")
base_attractiveness = raw_input("Atractividad base: ")
initial_tau = raw_input("Feromona inicial: ")
ratio_de_evaporacion = raw_input("Ratio de evaporacion: ")
cota = raw_input("Cota: ")
alfa = raw_input("Alfa: ")
beta = raw_input("Beta: ")
convergencia_minima = raw_input("Convergencia minima: ")
i = 0
start = time.time()
p1 = Puzzle(inicio, fin, float(alfa), float(beta), int(nants), float(ratio_de_evaporacion), float(cota), float(base_attractiveness), float(initial_tau))
solution = p1.run(int(convergencia_minima))
end = time.time()
if solution == None:
print("Run again")
else:
mostrar_solucion = ""
for s in solution:
mostrar_solucion += str(s[0])+","
print("Solution found in "+ str(end-start) + " seconds")
print("View solution in:")
print("http://ratslap.com/hormigas/")
print("Paste this:")
print(str(mostrar_solucion)[0:-1])
def general_search(problem, queueing_function):
num_expanded = 0 #Counts number of nodes expanded (excluding root)
max_nodes_in_queue = 0 #Counts maximum number of nodes in queue
PQueue = [] #List to be transformed into a priority queue
visited = {} #Dictionary to keep track of visited nodes (Allows for O(1) searching)
heapq.heapify(PQueue) #Heapify the list we made earlier
puzzle = copy.deepcopy(problem) #Make a deep copy just in case so stuff doesn't break
#Check for solvability in O(1) time
if not checkSolvability(puzzle):
print "\nPuzzle is not Solvable!\n"
return -1
#If puzzle is solvable, then calculate initial h(n)
if queueing_function == "UniformCostSearch":
puzzle.heuristicCost = 0
elif queueing_function == "A_star_misplaced":
puzzle.heuristicCost = calcMisplacedTilesDistance(puzzle)
elif queueing_function == "A_star_manhattan":
puzzle.heuristicCost = calcManhattanDistance(puzzle)
#Push initial node onto priority queue
heapq.heappush(PQueue,puzzle)
#While queue is not empty
#Values still exist in the queue which means search has not
#been exhausted(backup in case solvability check fails)
while len(PQueue) != 0:
#Pop the node with lowest total cost from queue
#(Overloaded <= operator in puzzle class)
prevPuzzle = heapq.heappop(PQueue)
#Check if the puzzle's state is equivalent to the goal state
if prevPuzzle.checkIfFinished():
#If true print out completion and the trace
#for nodes expanded and maximum nodes in queue
print "\nGoal!!"
prevPuzzle.printPuzzle()
print "\nTo solve this problem the search algorithm expanded a total of", num_expanded, "nodes."
print "The maximum number of nodes in the queue at any one time was", max_nodes_in_queue,"."
print "The depth of the goal node was", prevPuzzle.depth , "."
return
#Otherwise, print out trace for next best node to expand
print "\nThe best state to expand with a g(n) =",prevPuzzle.depth\
,"and h(n) =",prevPuzzle.heuristicCost,"is..."
#Print out the node that we are expanding
prevPuzzle.printPuzzle()
print "\nExpanding this node..."
#Generate all possible moves(children) for that node
puzzle_tree = prevPuzzle.GenerateMoves()
#For all the children of the current node popped
for puzzle in puzzle_tree:
#Generate a list and then convert it into a string
#based off the puzzle's state
#This will be our key in our dictionary for hashing
puzzle_list = []
for list in puzzle.startPuzzle:
puzzle_list += list
puzzle_key = ""
for elem in puzzle_list:
puzzle_key += str(elem)
#If the key does not exist in our dictionary
if puzzle_key not in visited:
#Hash in the new node with its respective key
#Must convert to tuple since lists are not hashable
visited[puzzle_key] = tuple(puzzle_list)
#Create the new puzzle to be pushed onto queue
#and calculate its respective h(n) value
nextPuzzle = Puzzle(puzzle.startPuzzle)
if queueing_function == "UniformCostSearch":
nextPuzzle.heuristicCost = 0
elif queueing_function == "A_star_misplaced":
nextPuzzle.heuristicCost = calcMisplacedTilesDistance(nextPuzzle)
elif queueing_function == "A_star_manhattan":
nextPuzzle.heuristicCost = calcManhattanDistance(nextPuzzle)
#Increment depth counter for children
nextPuzzle.depth = prevPuzzle.depth+1
#Push child onto priority queue
heapq.heappush(PQueue,nextPuzzle)
#Increment number of nodes expanded
num_expanded += 1
#If the current number of nodes in queue exceeds
#current maximum counter, update maximum
if len(PQueue) > max_nodes_in_queue:
max_nodes_in_queue = len(PQueue)
#Return failure if 2nd check trips
#(Should not happen because solvability check should handle)
print "This puzzle is not solvable! \n"
return -1
def _find_locations(self,puzzle):
locations = [None]*16
for i in enumerate(Puzzle.to_list(puzzle)):
locations[i[1]] = i[0]
return locations
class PuzzleTestLifecycle(unittest.TestCase):
def setUp(self):
self.p = Puzzle(plugins_dir=join(getcwd(), PATH))
def test_creation_puzzle(self):
self.assertIsNotNone("Creating instance of Puzzle.", self.p)
def test_loading_plugins(self):
self.p.load_plugins()
self.assertEqual(self.p.table.size(), 2)
def test_resolve_state(self):
self.p.load_plugins()
self.p.table.resolve_all()
for key, plugin in self.p.table_items():
self.assertIsInstance(plugin.state, statemachine.Resolved)
def test_active_state(self):
self.p.load_plugins()
self.p.table.resolve_all()
self.p.table.activate_all()
for key, plugin in self.p.table_items():
self.assertIsInstance(plugin.state, statemachine.Active)
def test_stop_plugin(self):
self.p.load_plugins()
self.p.table.resolve_all()
self.p.table.activate_all()
self.p.table.stop_plugin(0)
plugin = self.p.table.get_plugin(0)
self.assertIsInstance(plugin.state, statemachine.Stopped)
def test_restart_plugin(self):
self.p.load_plugins()
self.p.table.resolve_all()
self.p.table.activate_all()
self.p.table.stop_plugin(0)
self.p.table.restart_plugin(0)
plugin = self.p.table.get_plugin(0)
self.assertIsInstance(plugin.state, statemachine.Resolved)
def test_unregister_no_plugin_refresh(self):
self.p.load_plugins()
self.p.table.resolve_all()
self.p.table.activate_all()
self.p.table.stop_plugin(0)
self.p.table.unregister_plugin(0, False)
self.assertEqual(self.p.table.size(), 1)
def test_unregister_plugin_refresh(self):
self.p.load_plugins()
self.p.table.resolve_all()
self.p.table.activate_all()
self.p.table.stop_plugin(0)
self.p.table.unregister_plugin(0, True)
self.assertEqual(self.p.table.size(), 2)
def test_resolve_plugin_after_refresh(self):
self.p.load_plugins()
self.p.table.resolve_all()
self.p.table.activate_all()
self.p.table.stop_plugin(0)
self.p.table.unregister_plugin(0, True)
self.p.table.resolve(0)
plugin = self.p.table.get_plugin(0)
self.assertIsInstance(plugin.state, statemachine.Resolved)
def start( self): if( not self.is_active()): Puzzle.start( self) self._current_position = self._start_position
path - путь для сохранения файлов
Выход - файлы с решениями пазла размерностью sizeH на sizeV
"""
import keras.utils.io_utils as HDF5Matrix
import numpy as np
from puzzle import Puzzle
sizeH = 4
sizeV = 4
file_name = []
number_solution = 0
count = 1000
max_turn = 100
path = 'C:\\Python34\\Puzzle15\\utils\\Solutions\\3x3\\Solution'
while number_solution <= count:
puzz = Puzzle(sizeH, sizeV)
start = puzz.generate_puzzle()
print('Start puzzle', start)
solution = np.array(puzz.searchSolution())
l = len(solution)-1 # поправка на начальное состоние
print(' Have solution in -', l, ' step!')
if (l > 0) and (l < max_turn):
file_name = path + str(number_solution) + '-' + str(len(solution))
HDF5Matrix.save_array(solution, file_name)
number_solution += 1
print('Saving in ', file_name)