def test_Assemble_C6FlagEnabled_ReturnsCorrectTuple_case7():
moves1 = [
BlackMove(9, 9),
WhiteMove(9, 8),
WhiteMove(8, 9),
BlackMove(8, 8),
BlackMove(7, 10)
]
moves2 = [
BlackMove(9, 9),
WhiteMove(9, 8),
WhiteMove(8, 9),
BlackMove(8, 8),
BlackMove(10, 7)
]
assembler = Assembler(moves1, merge_symmetric_moves=True)
assembler.assemble(moves2)
actual = to_tuple(assembler)
expected = (
Root(),
BlackMove(9, 9),
WhiteMove(8, 9),
WhiteMove(9, 8),
BlackMove(8, 8),
BlackMove(7, 10),
)
assert actual == expected
def test_topMoves_chooseTop2_ReturnListsOfMoves():
moves1 = [
BlackMove(9, 9),
WhiteMove(0, 0),
WhiteMove(0, 2),
BlackMove(0, 3),
BlackMove(0, 4)
]
moves2 = [
BlackMove(9, 9),
WhiteMove(0, 0),
WhiteMove(0, 2),
BlackMove(0, 3),
BlackMove(0, 4)
]
moves3 = [BlackMove(9, 9), WhiteMove(0, 0), WhiteMove(0, 1)]
moves4 = [BlackMove(9, 9), WhiteMove(0, 0), WhiteMove(0, 1)]
moves5 = [BlackMove(9, 9), WhiteMove(0, 2), WhiteMove(8, 8)]
assembler = Assembler(moves1, merge_symmetric_moves=True)
assembler.assemble(moves2)
assembler.assemble(moves3)
assembler.assemble(moves4)
assembler.assemble(moves5)
actual = assembler.top_n_moves(2)
expected = [';;B[JJ];W[AA];W[AC]', ';;B[JJ];W[AA];W[AB]']
assert actual == expected
def test_Assemble_ReturnsCorrectPreOrderTraversalTuple_1():
moves1 = [
BlackMove(0, 0),
WhiteMove(0, 1),
BlackMove(0, 2),
]
moves2 = [
BlackMove(1, 0),
WhiteMove(1, 1),
BlackMove(0, 2),
]
assembler = Assembler(moves1)
assembler.assemble(moves2)
actual = to_tuple(assembler)
expected = (
Root(),
BlackMove(0, 0),
WhiteMove(0, 1),
BlackMove(0, 2),
BlackMove(1, 0),
WhiteMove(1, 1),
BlackMove(0, 2),
)
assert actual == expected
def test_Assemble_ReturnsCorrectPreOrderTraversalTuple_4():
assembler = Assembler()
assembler.assemble([])
actual = to_tuple(assembler)
expected = (Root(), )
assert actual == expected
def test_DumpTo_ReturnsCorrectSgf_0():
moves1 = [
BlackMove(9, 9),
WhiteMove(8, 10),
WhiteMove(10, 10),
]
moves2 = [
BlackMove(9, 9),
WhiteMove(8, 8),
WhiteMove(9, 10),
]
assembler = Assembler(moves1,
"_sample_url_",
game_results="BWin",
merge_symmetric_moves=True)
assembler.assemble(moves2, "_sample_url_", "WWin")
# We use this object to emulate a `file`, so no additional file will be created when unit-testing
file = io.StringIO()
dump_to(assembler, file, editor_style=False)
actual = file.getvalue()
print(actual)
expected = '''\
(;GM[511]C[Visit Count = 2
BWin count = 1
WWin count = 1
Draw count = 0
];B[JJ]C[Visit Count = 2
BWin count = 1
WWin count = 1
Draw count = 0
WinRate = 50.00%
];W[II]C[Visit Count = 2
BWin count = 1
WWin count = 1
Draw count = 0
WinRate = 50.00%
](;W[IK]C[BWin count = 1
WWin count = 0
Draw count = 0
WinRate = 0.00%
Game urls = _sample_url_
])(;W[JK]C[BWin count = 0
WWin count = 1
Draw count = 0
WinRate = 100.00%
Game urls = _sample_url_
]))C[Visit Count = 2
BWin count = 1
WWin count = 1
Draw count = 0
]\
'''
assert actual == expected
def test_dumpTo_editorStyleEnabled_ReturnsCorrectSgf_0():
moves1 = [BlackMove(9, 9), WhiteMove(0, 0), WhiteMove(0, 1)]
moves2 = [BlackMove(9, 8), WhiteMove(0, 0), WhiteMove(0, 1)]
assembler = Assembler(moves1,
game_results="WWin",
merge_symmetric_moves=True)
assembler.assemble(moves2, game_results="BWin")
file = io.StringIO()
dump_to(assembler, file, editor_style=True)
actual = file.getvalue()
print(actual)
expect = '''\
(;GM[511](;B[JJ]C[BWin count = 0
WWin count = 1
Draw count = 0
WinRate = 0.00%
];W[AA]C[BWin count = 0
WWin count = 1
Draw count = 0
WinRate = 100.00%
];W[AB]C[BWin count = 0
WWin count = 1
Draw count = 0
WinRate = 100.00%
Game urls = _sample_url_
])(;B[IJ]C[BWin count = 1
WWin count = 0
Draw count = 0
WinRate = 100.00%
];W[AA]C[BWin count = 1
WWin count = 0
Draw count = 0
WinRate = 0.00%
];W[BA]C[BWin count = 1
WWin count = 0
Draw count = 0
WinRate = 0.00%
Game urls = _sample_url_
]))C[Visit Count = 2
BWin count = 1
WWin count = 1
Draw count = 0
]\
'''
assert actual == expect
def test_Assemble_mergeSymmetricMoves_ReturnsCorrectPreOrderTraversalTuple_0():
moves1 = [BlackMove(0, 0), WhiteMove(2, 1), BlackMove(0, 2)]
moves2 = [
BlackMove(0, 18),
WhiteMove(1, 16),
BlackMove(2, 18),
] # Rotate 90%
moves3 = [
BlackMove(18, 18),
WhiteMove(16, 17),
BlackMove(18, 16),
] # Rotate 180%
moves4 = [
BlackMove(18, 0),
WhiteMove(17, 2),
BlackMove(16, 0),
] # Rotate 270%
moves5 = [
BlackMove(0, 18),
WhiteMove(2, 17),
BlackMove(0, 16),
] # Horizontal reflection
assembler = Assembler(moves1, merge_symmetric_moves=True)
assembler.assemble(moves2)
assembler.assemble(moves3)
assembler.assemble(moves4)
assembler.assemble(moves5)
actual = to_tuple(assembler)
expected = (
Root(),
BlackMove(0, 0),
WhiteMove(1, 2),
BlackMove(2, 0),
)
assert actual == expected
def test_Assemble_C6FlagEnabled_ReturnsCorrectTuple_case1():
moves1 = [
BlackMove(9, 9),
WhiteMove(11, 7),
WhiteMove(12, 6),
BlackMove(11, 11),
BlackMove(12, 12),
WhiteMove(11, 3),
WhiteMove(12, 3),
BlackMove(9, 3),
BlackMove(8, 3)
]
moves2 = [
BlackMove(9, 9),
WhiteMove(7, 11),
WhiteMove(6, 12),
BlackMove(11, 11),
BlackMove(12, 12),
WhiteMove(11, 3),
WhiteMove(12, 3),
BlackMove(9, 3),
BlackMove(8, 3)
]
assembler = Assembler(moves1, merge_symmetric_moves=True)
assembler.assemble(moves2)
expected = (Root(), BlackMove(9, 9), WhiteMove(6, 6), WhiteMove(7, 7),
BlackMove(6, 12), BlackMove(7, 11), WhiteMove(6, 3),
WhiteMove(7, 3), BlackMove(9,
3), BlackMove(10,
3), WhiteMove(15, 11),
WhiteMove(15, 12), BlackMove(15, 8), BlackMove(15, 9))
actual = to_tuple(assembler)
assert actual == expected
game_results = Extractor().extract(args.json_src, "game_result")
print("Assembling to a tree...")
assembler = Assembler(
merge_symmetric_moves=args.enable_symmetrical_assembling, )
with tqdm.tqdm(total=len(kifus)) as pbar:
number_of_skipped_moves = 0
for kifu, url, game_results in zip(kifus, urls, game_results):
# Use Kifuparser to parse the raw string into sequence of move
moves = KifuParser.parse(kifu)
if len(moves) < args.lower_bound:
number_of_skipped_moves += 1
else:
assembler.assemble(moves, url, game_results)
pbar.update(1)
print(
f"'{number_of_skipped_moves}' kifus are skipped because it has too few moves.\n"
)
if args.num_of_openings != 0:
with open("openings.txt", "w") as f:
f.write(str(assembler.top_n_moves(args.num_of_openings)))
print(f"Writing to file '{args.output_file}'...>")
with open(args.output_file, "w") as f:
dump_to(assembler, f, editor_style=args.use_editor_style)