def test_move(state, movestring):
""" Test placing a simple tile move """
coord, word = movestring.split(u' ')
rowid = Board.ROWIDS
row, col = 0, 0
xd, yd = 0, 0
horiz = True
if coord[0] in rowid:
row = rowid.index(coord[0])
col = int(coord[1:]) - 1
yd = 1
else:
row = rowid.index(coord[-1])
col = int(coord[0:-1]) - 1
xd = 1
horiz = False
move = Move(word, row, col, horiz)
next_is_blank = False
for c in word:
if c == u'?':
next_is_blank = True
continue
if not state.board().is_covered(row, col):
move.add_cover(row, col, u'?' if next_is_blank else c, c)
next_is_blank = False
row += xd
col += yd
legal = state.check_legality(move)
if legal != Error.LEGAL:
print(u"Play is not legal, code {0}".format(Error.errortext(legal)))
return False
print(u"Play {0} is legal and scores {1} points".format(move, state.score(move)))
state.apply_move(move)
print(state.__str__())
return True
def accept(self, matched, final):
""" Called to inform the navigator of a match and whether it is a final word """
if final and len(matched) > 1 and (self._index >= Board.SIZE or
self._axis.is_empty(self._index)):
# Solution found - make a Move object for it and add it to the AutoPlayer's list
ix = self._index - len(matched) # The word's starting index within the axis
row, col = self._axis.coordinate_of(ix)
xd, yd = self._axis.coordinate_step()
move = Move(matched, row, col, self._axis.is_horizontal())
# Fetch the rack as it was at the beginning of move generation
autoplayer = self._axis._autoplayer
rack = autoplayer.rack()
tiles = u''
for c in matched:
if self._axis.is_empty(ix):
# Empty square that is being covered by this move
# Find out whether it is a blank or normal letter tile
if c in rack:
rack = rack.replace(c, u'', 1)
tile = c
tiles += c
else:
# Must be a wildcard match
rack = rack.replace(u'?', u'', 1)
tile = u'?'
tiles += tile + c
# assert row in range(Board.SIZE)
# assert col in range(Board.SIZE)
# Add this cover to the Move object
move.add_validated_cover(Cover(row, col, tile, c))
else:
tiles += c
ix += 1
row += xd
col += yd
# Note the tiles played in the move
move.set_tiles(tiles)
# Check that we've picked off the correct number of tiles
# assert len(rack) == len(self._rack)
autoplayer.add_candidate(move)
def test_move(state, movestring):
""" Test placing a simple tile move """
coord, word = movestring.split(u' ')
rowid = Board.ROWIDS
xd, yd = 0, 0
horiz = True
if coord[0] in rowid:
row = rowid.index(coord[0])
col = int(coord[1:]) - 1
yd = 1
else:
row = rowid.index(coord[-1])
col = int(coord[0:-1]) - 1
xd = 1
horiz = False
move = Move(word, row, col, horiz)
next_is_blank = False
for c in word:
if c == u'?':
next_is_blank = True
continue
if not state.board().is_covered(row, col):
move.add_cover(row, col, u'?' if next_is_blank else c, c)
next_is_blank = False
row += xd
col += yd
legal = state.check_legality(move)
msg = ""
if isinstance(legal, tuple):
legal, msg = legal
if legal != Error.LEGAL:
print(u"Play is not legal, code {0} {1}".format(
Error.errortext(legal), msg))
return False
print(u"Play {0} is legal and scores {1} points".format(
move, state.score(move)))
state.apply_move(move)
print(state.__str__())
return True
def accept(self, matched, final):
""" Called to inform the navigator of a match and whether it is a final word """
# pylint: disable=bad-continuation
if (final and len(matched) > 1 and
(self._index >= Board.SIZE or self._axis.is_empty(self._index))):
# Solution found - make a Move object for it and add it to the AutoPlayer's list
ix = self._index - len(
matched) # The word's starting index within the axis
row, col = self._axis.coordinate_of(ix)
xd, yd = self._axis.coordinate_step()
move = Move(matched, row, col, self._axis.is_horizontal())
# Fetch the rack as it was at the beginning of move generation
autoplayer = self._axis.autoplayer
rack = autoplayer.rack()
tiles = u""
for c in matched:
if self._axis.is_empty(ix):
# Empty square that is being covered by this move
# Find out whether it is a blank or normal letter tile
if c in rack:
rack = rack.replace(c, u"", 1)
tile = c
tiles += c
else:
# Must be a wildcard match
rack = rack.replace(u"?", u"", 1)
tile = u"?"
tiles += tile + c
# assert row in range(Board.SIZE)
# assert col in range(Board.SIZE)
# Add this cover to the Move object
move.add_validated_cover(Cover(row, col, tile, c))
else:
tiles += c
ix += 1
row += xd
col += yd
# Note the tiles played in the move
move.set_tiles(tiles)
# Check that we've picked off the correct number of tiles
# assert len(rack) == len(self._rack)
autoplayer.add_candidate(move)
def _load_locked(cls, uuid, use_cache = True):
""" Load an existing game from cache or persistent storage under lock """
gm = GameModel.fetch(uuid, use_cache)
if gm is None:
# A game with this uuid is not found in the database: give up
return None
# Initialize a new Game instance with a pre-existing uuid
game = cls(uuid)
# Set the timestamps
game.timestamp = gm.timestamp
game.ts_last_move = gm.ts_last_move
if game.ts_last_move is None:
# If no last move timestamp, default to the start of the game
game.ts_last_move = game.timestamp
# Initialize the preferences
game._preferences = gm.prefs
# Initialize a fresh, empty state with no tiles drawn into the racks
game.state = State(drawtiles = False)
# A player_id of None means that the player is an autoplayer (robot)
game.player_ids[0] = None if gm.player0 is None else gm.player0.id()
game.player_ids[1] = None if gm.player1 is None else gm.player1.id()
game.robot_level = gm.robot_level
# Load the initial racks
game.initial_racks[0] = gm.irack0
game.initial_racks[1] = gm.irack1
# Load the current racks
game.state.set_rack(0, gm.rack0)
game.state.set_rack(1, gm.rack1)
# Process the moves
player = 0
# mx = 0 # Move counter for debugging/logging
for mm in gm.moves:
# mx += 1
# logging.info(u"Game move {0} tiles '{3}' score is {1}:{2}".format(mx, game.state._scores[0], game.state._scores[1], mm.tiles).encode("latin-1"))
m = None
if mm.coord:
# Normal tile move
# Decode the coordinate: A15 = horizontal, 15A = vertical
if mm.coord[0] in Board.ROWIDS:
row = Board.ROWIDS.index(mm.coord[0])
col = int(mm.coord[1:]) - 1
horiz = True
else:
row = Board.ROWIDS.index(mm.coord[-1])
col = int(mm.coord[0:-1]) - 1
horiz = False
# The tiles string may contain wildcards followed by their meaning
# Remove the ? marks to get the "plain" word formed
if mm.tiles is not None:
m = Move(mm.tiles.replace(u'?', u''), row, col, horiz)
m.make_covers(game.state.board(), mm.tiles)
elif mm.tiles[0:4] == u"EXCH":
# Exchange move
m = ExchangeMove(mm.tiles[5:])
elif mm.tiles == u"PASS":
# Pass move
m = PassMove()
elif mm.tiles == u"RSGN":
# Game resigned
m = ResignMove(- mm.score)
assert m is not None
if m:
# Do a "shallow apply" of the move, which updates
# the board and internal state variables but does
# not modify the bag or the racks
game.state.apply_move(m, True)
# Append to the move history
game.moves.append(MoveTuple(player, m, mm.rack, mm.timestamp))
player = 1 - player
# Find out what tiles are now in the bag
game.state.recalc_bag()
# Account for the final tiles in the rack and overtime, if any
if game.is_over():
game.finalize_score()
if not gm.over:
# The game was not marked as over when we loaded it from
# the datastore, but it is over now. One of the players must
# have lost on overtime. We need to update the persistent state.
game._store_locked()
return game
def _process_move(movecount, movelist):
""" Process a move from the client (the human player)
Returns True if OK or False if the move was illegal
"""
game = Game.current()
if game is None:
# !!! TODO: more informative error message about relogging in
return jsonify(result=Error.NULL_MOVE)
# Make sure the client is in sync with the server:
# check the move count
if movecount != game.num_moves():
return jsonify(result=Error.OUT_OF_SYNC)
# Parse the move from the movestring we got back
m = Move(u'', 0, 0)
try:
for mstr in movelist:
if mstr == u"pass":
# Pass move
m = PassMove()
break
if mstr[0:5] == u"exch=":
# Exchange move
m = ExchangeMove(mstr[5:])
break
if mstr == u"rsgn":
# Resign from game, forfeiting all points
m = ResignMove(game.state.scores()[game.player_index])
game.resign()
break
sq, tile = mstr.split(u'=')
row = u"ABCDEFGHIJKLMNO".index(sq[0])
col = int(sq[1:]) - 1
if tile[0] == u'?':
# If the blank tile is played, the next character contains
# its meaning, i.e. the letter it stands for
letter = tile[1]
tile = tile[0]
else:
letter = tile
# print(u"Cover: row {0} col {1}".format(row, col))
m.add_cover(row, col, tile, letter)
except Exception as e:
logging.info(u"Exception in _process_move(): {0}".format(e).encode("latin-1"))
m = None
# Process the move string here
err = game.state.check_legality(m)
if err != Error.LEGAL:
# Something was wrong with the move:
# show the user a corresponding error message
return jsonify(result=err)
# Move is OK: register it and update the state
game.human_move(m)
# Respond immediately with an autoplayer move
# (can be a bit time consuming if rack has one or two blank tiles)
if not game.state.is_game_over():
game.autoplayer_move()
if game.state.is_game_over():
# If the game is now over, tally the final score
game.state.finalize_score()
# Make sure the new game state is persistently recorded
game.store()
# Return a state update to the client (board, rack, score, movelist, etc.)
return jsonify(game.client_state())
def load(cls, uuid, username):
""" Load an already existing game from persistent storage """
gm = GameModel.fetch(uuid)
if gm is None:
# A game with this uuid is not found in the database: give up
return None
# Initialize a new Game instance with a pre-existing uuid
game = cls(uuid)
game.username = username
game.state = State(drawtiles = False)
if gm.player0 is None:
# Player 0 is an Autoplayer
game.player_index = 1 # Human (local) player is 1
else:
assert gm.player1 is None
game.player_index = 0 # Human (local) player is 0
game.state.set_player_name(game.player_index, username)
game.state.set_player_name(1 - game.player_index, u"Netskrafl")
# Load the current racks
game.state._racks[0].set_tiles(gm.rack0)
game.state._racks[1].set_tiles(gm.rack1)
# Process the moves
player = 0
for mm in gm.moves:
m = None
if mm.coord:
# Normal tile move
# Decode the coordinate: A15 = horizontal, 15A = vertical
if mm.coord[0] in Board.ROWIDS:
row = Board.ROWIDS.index(mm.coord[0])
col = int(mm.coord[1:]) - 1
horiz = True
else:
row = Board.ROWIDS.index(mm.coord[-1])
col = int(mm.coord[0:-1]) - 1
horiz = False
# The tiles string may contain wildcards followed by their meaning
# Remove the ? marks to get the "plain" word formed
m = Move(mm.tiles.replace(u'?', u''), row, col, horiz)
m.make_covers(game.state.board(), mm.tiles)
elif mm.tiles[0:4] == u"EXCH":
# Exchange move
m = ExchangeMove(mm.tiles[5:])
elif mm.tiles == u"PASS":
# Pass move
m = PassMove()
elif mm.tiles == u"RSGN":
# Game resigned
m = ResignMove(- mm.score)
assert m is not None
if m:
# Do a "shallow apply" of the move, which updates
# the board and internal state variables but does
# not modify the bag or the racks
game.state.apply_move(m, True)
# Append to the move history
game.moves.append((player, m))
player = 1 - player
# If the moves were correctly applied, the scores should match
assert game.state._scores[0] == gm.score0
assert game.state._scores[1] == gm.score1
# Find out what tiles are now in the bag
game.state.recalc_bag()
# Cache the game so it can be looked up by user id
user = User.current()
if user is not None:
Game._cache[user.id()] = game
return game
def _load_locked(cls, uuid, use_cache=True):
""" Load an existing game from cache or persistent storage under lock """
gm = GameModel.fetch(uuid, use_cache)
if gm is None:
# A game with this uuid is not found in the database: give up
return None
# Initialize a new Game instance with a pre-existing uuid
game = cls(uuid)
# Set the timestamps
game.timestamp = gm.timestamp
game.ts_last_move = gm.ts_last_move
if game.ts_last_move is None:
# If no last move timestamp, default to the start of the game
game.ts_last_move = game.timestamp
# Initialize the preferences
game._preferences = gm.prefs
# Initialize a fresh, empty state with no tiles drawn into the racks
game.state = State(drawtiles=False, tileset=game.tileset)
# A player_id of None means that the player is an autoplayer (robot)
game.player_ids[0] = None if gm.player0 is None else gm.player0.id()
game.player_ids[1] = None if gm.player1 is None else gm.player1.id()
game.robot_level = gm.robot_level
# Load the initial racks
game.initial_racks[0] = gm.irack0
game.initial_racks[1] = gm.irack1
# Load the current racks
game.state.set_rack(0, gm.rack0)
game.state.set_rack(1, gm.rack1)
# Process the moves
player = 0
# mx = 0 # Move counter for debugging/logging
for mm in gm.moves:
# mx += 1
# logging.info(u"Game move {0} tiles '{3}' score is {1}:{2}".format(mx, game.state._scores[0], game.state._scores[1], mm.tiles).encode("latin-1"))
m = None
if mm.coord:
# Normal tile move
# Decode the coordinate: A15 = horizontal, 15A = vertical
if mm.coord[0] in Board.ROWIDS:
row = Board.ROWIDS.index(mm.coord[0])
col = int(mm.coord[1:]) - 1
horiz = True
else:
row = Board.ROWIDS.index(mm.coord[-1])
col = int(mm.coord[0:-1]) - 1
horiz = False
# The tiles string may contain wildcards followed by their meaning
# Remove the ? marks to get the "plain" word formed
if mm.tiles is not None:
m = Move(mm.tiles.replace(u'?', u''), row, col, horiz)
m.make_covers(game.state.board(), mm.tiles)
elif mm.tiles[0:4] == u"EXCH":
# Exchange move
m = ExchangeMove(mm.tiles[5:])
elif mm.tiles == u"PASS":
# Pass move
m = PassMove()
elif mm.tiles == u"RSGN":
# Game resigned
m = ResignMove(-mm.score)
assert m is not None
if m:
# Do a "shallow apply" of the move, which updates
# the board and internal state variables but does
# not modify the bag or the racks
game.state.apply_move(m, True)
# Append to the move history
game.moves.append(MoveTuple(player, m, mm.rack, mm.timestamp))
player = 1 - player
# Find out what tiles are now in the bag
game.state.recalc_bag()
# Account for the final tiles in the rack and overtime, if any
if game.is_over():
game.finalize_score()
if not gm.over:
# The game was not marked as over when we loaded it from
# the datastore, but it is over now. One of the players must
# have lost on overtime. We need to update the persistent state.
game._store_locked()
return game
