def __init__(self):
self.pawn_color = (255, 25, 25)
self.pawn_radius = 25
#stworzenie wszystkich pol (poza polami docelowymi graczy)
self.fields = [Field(0, 0, (255, 255, 255), 20) for _ in range(40)]
#stworzenie pol docelowych dla graczy
self.red_target_fields = [
Field(0, 0, (255, 128, 128), 20) for _ in range(4)
]
self.green_target_fields = [
Field(0, 0, (128, 255, 128), 20) for _ in range(4)
]
self.blue_target_fields = [
Field(0, 0, (128, 128, 255), 20) for _ in range(4)
]
self.yellow_target_fields = [
Field(0, 0, (255, 255, 128), 20) for _ in range(4)
]
#nadanie specjalnego koloru dla startowych pozycji
self.fields[0].set_color((255, 255, 128))
self.fields[10].set_color((255, 128, 128))
self.fields[20].set_color((128, 255, 128))
self.fields[30].set_color((128, 128, 255))
#nadanie odpowiednich pozycji dla wszystkich pol
self.set_fields_position()
#stworzenie indywidualnych sciezek dla graczy
self.routes = self.create_routes() # {green, blue, yellow, red}
def test_reach_end_field():
board = Board("rgby")
piece = PIECES["green1"]
board.move_piece(piece, Field("40"))
suggested_moves = board.suggest_moves(piece, 4)
assert 2 == len(suggested_moves)
assert (Field("B4", color="g"), "reach end field") in suggested_moves
def test_convert_to_short_weierstrass(self):
# Test with Curve41417
field = Field(2**414 - 17)
curve41417 = EdwardsCurve(1, 3617, Field(2**414 - 17))
curve41417_bp = (
17319886477121189177719202498822615443556957307604340815256226171904769976866975908866528699294134494857887698432266169206165,
34)
# this is tested in the Montgomery test case.
curve41417monty, P_to_monty, P_from_monty = curve41417.to_montgomery()
curve41417monty_bp = P_to_monty(curve41417_bp)
# now finally convert to short weierstrass
weiss, P_to_weiss, P_from_weiss = curve41417monty.to_short_weierstrass(
)
self.assertEquals(
42307582002575910332922579714097346549017899709713998034217522897561970639123926132812109468141778230245837569601494931198756,
weiss.a)
self.assertEquals(
42307582002575910332922579714097346549017899709713998034217522897561970639123926132812109468141778230245837569601494877203573,
weiss.b)
self.assertEquals((
33333246426271929353211729471713060917408042195532240875444108949594279897491578165245904429445037393527023539686026309646457,
2236671449683305925398969480507433209994648385971289644656272082874689574321388075188206152980709096399807140440181156775230
), P_to_weiss(curve41417monty_bp))
self.assertEquals(curve41417monty_bp,
P_from_monty(P_to_monty(curve41417monty_bp)))
def main():
"Play the game."
name1 = input('1st player, enter your name: ')
name2 = input('2nd player, enter your name: ')
path1, path2 = '{}.txt'.format(name1), '{}.txt'.format(name2)
player1 = Player(name1)
player2 = Player(name2)
ships1 = generate_field()
field1 = Field(ships1)
ships2 = generate_field()
field2 = Field(ships2)
game = Game(fields=[field1, field2], players=[player1, player2])
write(path1=path1, path2=path2, game=game)
print('New game.')
while not winner(field1.field_with_ships(), field2.field_with_ships()):
write(path1=path1, path2=path2, game=game)
# making move.
move = (game._players[game.current_player]).read_position()
# if shot in the ship.
if game.shot_at(move, game.current_player - 1):
print('Yeah!')
write(path1=path1, path2=path2, game=game)
# if didn;t change the player.
else:
if game.current_player == 1:
game.current_player = 0
else:
game.current_player = 1
print('The end!')
if '@' in field2.field_with_ships():
print('Winner is {}'.format(player2._name))
else:
print('Winner is {}'.format(player1._name))
def __init__(self, platforms):
"""Create a new delegator instance.
'platforms' is a set of all platforms to support
"""
super().__init__('luastructs', Platform.mappings['default'], None)
self.platforms = platforms
self.field_var = 'f.'
self.description = 'Lua C Structs'
self.dissectors = {self.platform.name: self}
self.var = create_lua_var('delegator')
self.table_var = create_lua_var('dissector_table')
self.id_table = create_lua_var('message_ids')
self.sizes_table = create_lua_var('dissector_sizes')
self.msg_var = create_lua_var('msg_node')
# Add fields, don't change sizes!
endian = Platform.big
self.add_field(Field('Version', 'uint8', 1, 0, endian))
values = {p.flag: p.name for name, p in self.platforms.items()}
field = Field('Flags', 'uint8', 1, 0, endian)
field.set_list_validation(values)
self.add_field(field)
self.add_field(Field('Message', 'uint16', 2, 0, endian))
self.add_field(Field('Message length', 'uint32', 4, 0, endian))
self.version, self.flags, self.msg_id, self.length = self.children
def __init__(self, name, queue, s_z):
self.player_name = name
self.queue = queue
self.field = Field(s_z)
self.field_enemy = Field(s_z)
self.killed = 0
self.log = []
def create_field():
"""Create a Protocol instance with some fields."""
proto, diss = dissector.Protocol.create_dissector('test')
diss.add_field(Field('one', 'float', 4, 0, Platform.big))
diss.add_field(Field('two', 'string', 12, 0, Platform.big))
diss.push_modifiers()
yield diss.children[0], diss.children[1]
dissector.Protocol.protocols = {}
del proto, diss
def __init__(self):
super(EmptyEntry, self).__init__()
self.entryType = ''
self.requiredFields = dict()
self.optionalFields = dict()
self.additionalFields = {
FieldName.Paper: Field(FieldName.Paper),
FieldName.Comment: Field(FieldName.Comment)
}
def initGame(height, width):
global botField, playerField, botShips, playerShips, bot
botField = Field(height, width)
playerField = Field(height, width)
playerShips = initShips()
botShips = initShips()
bot = Bot(botField, playerField, botShips)
bot.initShips()
def calculate_one_tick(self):
print("Cache has {} entrys,".format(len(self.queue)))
if self.queue == []:
f = Field(copy_field=self.field)
f.update()
self.queue.append(f)
elif len(self.queue) < 5:
f = Field(copy_field=self.queue[-1])
f.update()
self.queue.append(f)
def __init__(self):
super(Inproceedings, self).__init__()
self.entryType = 'INPROCEEDINGS'
self.requiredFields = {
FieldName.Author: Author(),
FieldName.Title: Field(FieldName.Title),
FieldName.BookTitle: Field(FieldName.BookTitle),
FieldName.Year: Year()
}
self.optionalFields.update({
FieldName.Editor:
Editor(),
FieldName.Volume:
Field(FieldName.Volume),
FieldName.Number:
Field(FieldName.Number),
FieldName.Series:
Field(FieldName.Series),
FieldName.Pages:
Pages(),
FieldName.Organization:
Organization(),
FieldName.Publisher:
Field(FieldName.Publisher),
FieldName.Address:
Field(FieldName.Address),
FieldName.Month:
Field(FieldName.Month),
FieldName.Note:
Field(FieldName.Note)
})
def simulate(in_runs, in_pairs, in_visitors):
target = [ [2,2,0],[2,2,1],[2,2,2] ]
genes = [ [1,1,0],[1,2,0],[2,0,0],[2,1,0] ] # simulating t110 x t110
probs = [ 4/9, 2/9, 1/9, 2/9 ] # 25/12.5/6.25/12.5
genemap = len(probs)
pairs_results = []
turtle_results = []
for run in range(in_runs):
turtle_day = -1
pairs_day = -1
turtle = Field("turtle", turtle_layout)
pairs = Field("pairs", pairs_layout)
pairer = PairBreeder()
feeder = Feeder(genes, probs, visit=in_visitors, pairs=in_pairs)
for day in range(1, 365):
# get the days flowers
feed = feeder.feed()
# print("day",day,feed)
# check for output from the pairer, put them into the pairs field
for new_pair in pairer.breed():
pairs.place(new_pair[0], new_pair[1])
# add the day's feed into the pairer and the turtle
for new_flower in feed:
pairer.place(new_flower)
turtle.place(new_flower)
# everything above this point technically "runs" the day before
# run the fields
if pairs_day == -1:
harvest = pairs.run()
# print("pairs:", pairs_harvest)
for flower in harvest:
if flower.get_genes() in target:
pairs_day = day
if turtle_day == -1:
harvest = turtle.run()
# print("turtle:", turtle_harvest)
for flower in harvest:
if flower.get_genes() in target:
turtle_day = day
# break out if they both finish
if turtle_day != -1 and pairs_day != -1:
break
if turtle_day != -1 and pairs_day != -1:
# print("run", run, "ended on day", day, "turtle", turtle_day, "pairs", pairs_day)
pairs_results.append(pairs_day)
turtle_results.append(turtle_day)
print("{}\t{}\tpairs\t{}\t{}\t{}\t{}\t{}".format(in_visitors, in_pairs, np.amin(pairs_results), np.amax(pairs_results), np.mean(pairs_results), np.median(pairs_results), np.percentile(pairs_results, 95)))
print("{}\t{}\tturtle\t{}\t{}\t{}\t{}\t{}".format(in_visitors, in_pairs, np.amin(turtle_results), np.amax(turtle_results), np.mean(turtle_results), np.median(turtle_results), np.percentile(turtle_results, 95)))
return
def __init__(self):
self._id = None
self.entryType = ''
self.key = ''
self.requiredFields = dict()
self.optionalFields = {FieldName.Key: Field(FieldName.Key)}
self.additionalFields = {
FieldName.Annote: Field(FieldName.Annote),
FieldName.Paper: Field(FieldName.Paper),
FieldName.Comment: Field(FieldName.Comment)
}
def __init__(self, name, settings):
super().__init__(name, settings)
self.name(name)
self.description = ""
# self.number_of_fifos = 1
self.fifo_fields = []
if self.access_mode() not in ['RO', 'WO']:
logger.error(
"'{}' not a valid access mode for slaves of type FIFO. Valid modes include 'RO' and 'WO'"
.format(self.access_mode()))
raise ARGSModeError
self.tx_fifo_vacancy = Field(
name="fifo_status",
settings={
'width':
32,
'access_mode':
"RO",
'address_offset':
0x8,
'reset_value':
0,
'field_description':
"Transmit Data FIFO Vacancy (TDFV). Width N equal to C_S_AXI_DATA_WIDTH"
})
self.rx_fifo_occupancy = Field(
name="fifo_status",
settings={
'width':
16,
'access_mode':
"RO",
'address_offset':
0x1C,
'reset_value':
0,
'field_description':
"Receive Data FIFO Occupancy (RDFO). Number of locations in use for data storage"
})
self.rx_length = Field(
name="fifo_status",
settings={
'width':
23,
'access_mode':
"RO",
'address_offset':
0x24,
'reset_value':
0,
'field_description':
"Receive Length Register (RLR). The number of bytes of the corresponding receive data stored in the receive data FIFO"
})
def create_array_field():
"""Create a Protocol instance with some fields."""
proto, diss = dissector.Protocol.create_dissector('test')
field = Field('arr', 'float', 4, 0, Platform.big)
diss.add_field(ArrayField.create([2, 3], field))
field = Field('str', 'string', 30, 0, Platform.big)
diss.add_field(ArrayField.create([2], field))
diss.push_modifiers()
yield diss.children[0], diss.children[1]
dissector.Protocol.protocols = {}
del proto, diss
def start_game(self):
field1 = Field()
field2 = Field()
client1, client2 = self._server.get_clients()
print(client1, client2)
player1 = Player(client1[0], client1[1], field1, 'player1')
player2 = Player(client2[0], client2[1], field2, 'player2')
self._game_process(player1, player2)
def create_lua_keywords_field():
"""Create a Protocol instance with some fields."""
proto, diss = dissector.Protocol.create_dissector('test')
field = Field('elseif', 'int32', 4, 0, Platform.big)
field.set_list_validation(dict(enumerate('VWXYZ')))
diss.add_field(field)
diss.add_field(Field('in', 'float', 4, 0, Platform.big))
diss.push_modifiers()
yield diss.children[0], diss.children[1]
dissector.Protocol.protocols = {}
del proto, diss
def init_fields(self):
for i in range(8):
for j in range(0, 8, 2):
if i % 2 == 0:
light_field = Field(i, j, 50, "light")
dark_field = Field(i, j + 1, 50, "dark")
else:
dark_field = Field(i, j, 50, "dark")
light_field = Field(i, j + 1, 50, "light")
self.fields.append(light_field)
self.fields.append(dark_field)
def __init__(self):
super(Unpublished, self).__init__()
self.entryType = 'UNPUBLISHED'
self.requiredFields = {
FieldName.Author: Author(),
FieldName.Title: Field(FieldName.Title),
FieldName.Note: Field(FieldName.Note)
}
self.optionalFields.update({
FieldName.Year: Year(),
FieldName.Month: Field(FieldName.Month)
})
def __init__(self):
"""
This method initializes a Game class.
field: - list of Fields for the game
players: - list of Players for the game
"""
field1, field2 = Field(), Field()
self.__field = [field1, field2]
name1 = str(input("Please enter name:"))
name2 = str(input("Please enter name:"))
self.__players = [Player(name1), Player(name2)]
self.__current_player = 1
def test_plow_sow_action(self):
player = init_player()
player.set_next_space(Field())
player.set_next_space(Field())
player.add_supply(VEGETABLE)
player.add_supply(GRAIN, 2)
args = {VEGETABLE: 1, GRAIN: 2}
if not PLOW_SOW_ACTION.apply_action(player, args):
self.assertTrue(False, 'Action not completed.')
expected = 3
self.assertEqual(len(player.get_fields()), expected)
self.assertEqual(sum([len(f.sown) for f in player.get_fields()]), 8)
def multiply(background: Field, foreground: Field):
white = Field(10, 20)
for x in range(10):
for y in range(20):
white.set_pixel(x, y, [255, 255, 255])
bg = numpy.array(background.field)
fg = numpy.array(foreground.field)
multi = numpy.multiply(bg, fg)
multi = numpy.divide(multi, white.field)
combined = Field(10, 20)
combined.field = multi.astype(int).tolist()
return combined
def __init__(self):
super(Manual, self).__init__()
self.entryType = 'MANUAL'
self.requiredFields = {FieldName.Title: Field(FieldName.Title)}
self.optionalFields.update({
FieldName.Author: Author(),
FieldName.Organization: Organization(),
FieldName.Edition: Field(FieldName.Edition),
FieldName.Address: Field(FieldName.Address),
FieldName.Year: Year(),
FieldName.Month: Field(FieldName.Month),
FieldName.Note: Field(FieldName.Note)
})
def main():
setrecursionlimit(10000)
game_field = Field()
while True:
command = Menu.get_command()
if command.startswith(Commands.EXIT):
return
elif command.startswith(Commands.START):
result = do_start_command(command, game_field)
if result is True:
game_field = Field()
def _init_fields(self) -> None:
"""
method for placing ships on both players' fields
"""
# set player.my_field
self.players[0].set_and_fill_field(
field=Field(height=self.map_height, width=self.map_width))
self.players[1].set_and_fill_field(
field=Field(height=self.map_height, width=self.map_width))
# set player.enemy_field
self.players[0].enemy_field = Field(height=self.map_height,
width=self.map_width)
self.players[1].enemy_field = Field(height=self.map_height,
width=self.map_width)
def __parse_board(self, matrix: List[List[str]]) -> List[List[Field]]:
"""
Parses input matrix into list of lists of fields imitating chessboard\n
:param matrix: Input containing matrix of encoded pieces
:return: List of lists of fields
"""
def create_fields(color: str, y: int, x: int) -> dict:
"""
Creates field dictionary matching code, color and coordinates with pieces\n
:param color: Color of piece
:param y: Vertical coordinate (0 starts at top of imaginary chessboard)
:param x: Horizontal coordinate (0 starts at left of imaginary chessboard)
:return: Dictionary of string, Field pairs
"""
return {
'p': Field(WPawn(), x, y, Statuses.PIECE),
'r': Field(Rook(color), x, y, Statuses.PIECE),
'k': Field(Knight(color), x, y, Statuses.PIECE),
'b': Field(Bishop(color), x, y, Statuses.PIECE),
'q': Field(Queen(color), x, y, Statuses.PIECE),
'W': Field(King(color), x, y, Statuses.PIECE)
}
board = []
for _ in matrix:
board.append([])
i = 0
colors = ("white", "black")
for row in matrix:
j = 0
for field in row:
if field == '--':
board[i].append(Field(Piece(), j, i, Statuses.NULL))
else:
color, piece = field[0], field[1]
if color == 'w':
fields = create_fields(colors[0], i, j)
if piece == 'W':
self.white_king_position = (j, i)
else:
fields = create_fields(colors[1], i, j)
fields['p'] = Field(BPawn(), j, i, Statuses.PIECE)
if piece == 'W':
self.black_king_position = (j, i)
board[i].append(fields[piece])
j += 1
i += 1
return board
def __init__(self, u, F):
self.t = 0
self.iter = 0
self.u = u
self.RHS = Field(u.grid)
self.F = F
self.I = Average3(u)
def __init__(self,
field_size,
food_fill_factor,
num_initial_creatures,
creature_mutation="NORMAL",
creature_reproduction_mutation_prob=0,
creatures_randomly_teleport=False,
field_has_boundaries=False,
food_spoils=False,
creature_meat_value=2):
self.field = Field(field_size, has_boundaries=field_has_boundaries)
self.field.sprout(food_fill_factor)
self.creatures = []
self.creatures_by_loc = [[[] for x in range(field_size)]
for y in range(field_size)]
self.create_creatures(
num_initial_creatures,
creature_mutation=creature_mutation,
creature_reproduction_mutation_prob=
creature_reproduction_mutation_prob,
creatures_randomly_teleport=creatures_randomly_teleport,
creature_meat_value=creature_meat_value)
self.days_passed = 0
self.history = []
self.food_fill_factor = food_fill_factor
self.food_spoils = food_spoils
def create_entry(filename):
entryid = str(uuid.uuid1)
self.instance[entryid] = {}
self.instance[entryid]["FILE"] = filename
self.instance[entryid]["STATE"] = FileState.UNLOADED
self.instance[entryid]["DATA"] = Field()
return entryid
def get_time_dependent_circular_flow_fields():
x = np.linspace(-5, 5, 100)
y = np.linspace(-2, 2, 100)
a = 1
U_inf = 10
K = 0
X, Y = np.meshgrid(x, y, indexing='ij')
R_sq = X**2 + Y**2
space = Space([x, y])
space.set_elements_names(['x', 'y'])
K_coeffs = np.linspace(0, 2 * U_inf * a, 100)
fields = []
for K in K_coeffs:
u = U_inf * (
1 - (a**2 * R_sq - 2 * a**2 * Y**2) / R_sq**2) - K * a * Y / R_sq
v = -2 * U_inf * a**2 * X * Y / R_sq**2 + K * a * X / R_sq
for xi in range(len(x)):
for yi in range(len(y)):
if x[xi]**2 + y[yi]**2 < a**2:
u[xi, yi] = 0.
v[xi, yi] = 0.
circ_field = Field([u, v], space)
circ_field.set_elements_names(['u', 'v'])
fields.append(circ_field)
return fields
