def __init__(self, rows, cols, iterable=None):
super().__init__(gs.BOARD_POS)
self.rows = rows
self.cols = cols
self.m = [[0 for c in range(cols)] for r in range(rows)]
self.tiles = [[None for c in range(cols)] for r in range(rows)]
self.tiles_to_destroy = []
self.tiles_to_spawn = []
self.should_wait_for_move_finished = False
self.tile_factory = TileFactory(self)
self.scorer = Scorer((10, 5))
board_image = pygame.image.load("data/images/board.png")
board_image_size = (gs.BOARD_WIDTH + gs.BOARD_BORDER,
gs.BOARD_HEIGHT + gs.BOARD_BORDER)
self.board_image = pygame.transform.scale(board_image,
board_image_size)
if iterable != None:
for n, (i, j) in enumerate(
itertools.product(range(self.rows), range(self.cols))):
val = iterable[n]
if val:
self.m[i][j] = val
self.tiles[i][j] = self.tile_factory.create(val, i, j)
def eval_openset(self):
self.sequential_extract(self.valid_test,
f"{self.project_dir}/tmp/test.h5")
if self.valid_enroll:
self.sequential_extract(self.valid_enroll,
f"{self.project_dir}/tmp/enroll.h5")
enroll_embedding = f"{self.project_dir}/tmp/enroll.h5"
else:
enroll_embedding = f"{self.project_dir}/tmp/test.h5"
if self.valid_target:
self.sequential_extract(self.valid_target,
f"{self.project_dir}/tmp/target.h5")
data_target = h52dict(f"{self.project_dir}/tmp/target.h5")
transform_lst = [PCA(whiten=True)]
for transform in transform_lst:
transform.fit_transform(data_target["X"])
else:
transform_lst = None
if self.score_paras is None:
self.score_paras = {}
scorer = Scorer(
comp_minDCF=False,
enroll=enroll_embedding,
test=f"{self.project_dir}/tmp/test.h5",
ndx_file=self.valid_trial_list,
transforms=transform_lst,
**self.score_paras,
)
eer = scorer.batch_cosine_score()
with open(f"{self.logger_dir}/validation.log", "a") as f:
f.write(f"{self.epoch} EER is {eer}\n")
def __init__(self, argument_string):
"""
Initialises metric-specific parameters.
"""
Scorer.__init__(self, argument_string)
if not 'negative_value' in self._arguments.keys():
self._arguments['negative_value'] = 0.0
def __init__(self,
model,
source_file,
target_file,
source_file2,
target_file2,
num_sentences=1000,
beam_size=3):
self.model = model
self.source_file = source_file
self.target_file = target_file
self.source_file2 = source_file2
self.target_file2 = target_file2
self.num_sentences = num_sentences
self.beam_size = beam_size
self.translationList = []
self.pairs = []
self.scoresList = []
self.scorer = Scorer()
self.metric_to_cter = {}
self.all_cter_scores = []
self.metric_to_bad = {}
def __init__(self, playerCount=2, firstToAct=1, nextToAct=1, actingOrderPointer=0, \
roundNumber=1, roundActionNumber=1, deck=None, deckPointer=0, variant='ofc'):
"""
Initialise Game object
Each game has a current round number, Player objects and a board object for each round
:param playerCount: int number of players
:param firstToAct: int playerNumber who acts first this round
:param deck: 104 char string containing card names format <rank><suit>*52
:return: None
"""
assert isinstance(playerCount, int)
assert 2 <= playerCount <= 4
assert isinstance(firstToAct, int)
assert 1 <= firstToAct <= 4
self.playerCount = playerCount
self.firstToAct = firstToAct
self.nextToAct = nextToAct
self.actingOrder = self.generateActingOrder(firstToAct=firstToAct)
self.actingOrderPointer = actingOrderPointer
self.roundActionNumber = roundActionNumber
self.roundNumber = roundNumber
self.variant = variant
self.board = Board(playerCount=playerCount,
deck=deck,
deckPointer=deckPointer)
self.players = self.createPlayers()
self.playerIds = self.createPlayerIds()
self.scoring = Scorer(players=self.players, board=self.board)
def score(self, y, y_hat, score="rmse"):
"""
Calculates score metrics for the learning algorithm.
Parameters
----------
X : array_like
The dataset of shape (m x n).
y : array_like
A vector of shape (m, ) for the values at a given data point.
Options
----------
type : string
The type of metric to be used in evaluation.
- rmse : root mean squared error
- mse : mean squared error
Returns
-------
score_metric: float
"""
scorer = Scorer()
if score == "rmse":
score_metric = scorer.rmse_(y, y_hat)
elif score == "mse":
score_metric = scorer.mse_(y, y_hat)
return score_metric
class Game:
def __init__(self):
self._current_frame = 0
self._first_throw_in_frame = True
self._scorer = Scorer()
def score(self):
return self.score_for_frame(self._current_frame)
def score_for_frame(self, frame):
return self._scorer.score_for_frame(frame)
def add(self, pins):
self._scorer.add_throw(pins)
self.adjust_current_frame(pins)
def adjust_current_frame(self, pins):
if self.last_ball_in_frame(pins):
self.advance_frame()
else:
self._first_throw_in_frame = False
def last_ball_in_frame(self, pins):
return self.strike(pins) or not self._first_throw_in_frame
def strike(self, pins):
return self._first_throw_in_frame and pins == 10
def advance_frame(self):
self._current_frame = min(10, self._current_frame + 1)
def _eval_pas(self,
arguments_set,
dataset: PASDataset,
corpus: str,
suffix: str = '') -> Dict[str, ScoreResult]:
prediction_output_dir = self.save_dir / f'{corpus}_out{suffix}'
prediction_writer = PredictionKNPWriter(
dataset, self.logger, use_knp_overt=(not self.predict_overt))
documents_pred = prediction_writer.write(arguments_set,
prediction_output_dir,
add_pas_tag=False)
log = {}
for pas_target in self.pas_targets:
scorer = Scorer(documents_pred,
dataset.gold_documents,
target_cases=dataset.target_cases,
target_exophors=dataset.target_exophors,
coreference=dataset.coreference,
bridging=dataset.bridging,
pas_target=pas_target)
result = scorer.run()
target = corpus + (f'_{pas_target}' if pas_target else '') + suffix
scorer.write_html(self.save_dir / f'{target}.html')
result.export_txt(self.save_dir / f'{target}.txt')
result.export_csv(self.save_dir / f'{target}.csv')
log[pas_target] = result
return log
def test_getter(self, size):
y_true = [1] * size
y_pred = [1] * size
y_true.append(0)
y_pred.append(0)
scorer = Scorer()
with pytest.raises(ValueError):
print(scorer['ACC(Accuracy)'])
scorer.evaluate(y_true, y_pred)
assert scorer.num_classes == 2
np.testing.assert_allclose(
scorer['FP(False positive/type 1 error/false alarm)'],
np.zeros(shape=(len(set(y_true)), )))
np.testing.assert_allclose(
scorer.score['FN(False negative/miss/type 2 error)'],
np.zeros(shape=(len(set(y_true)), )))
np.testing.assert_allclose(scorer.score['ACC(Accuracy)'],
np.ones(shape=(len(set(y_true)), )))
with pytest.raises(KeyError):
print(scorer['dummy'])
def __init__(self, model, source_file, target_file, test_source_file, test_target_file,
raw_source_file,
raw_target_file, num_sentences=400,
batch_translate=True):
self.model = model
self.source_file = source_file
self.target_file = target_file
self.loader = LanguagePairLoader("de", "en", source_file, target_file)
self.test_loader = LanguagePairLoader("de", "en", test_source_file, test_target_file)
self.extractor = DomainSpecificExtractor(source_file=raw_source_file, train_source_file=hp.source_file,
train_vocab_file="train_vocab.pkl")
self.target_extractor = DomainSpecificExtractor(source_file=raw_target_file, train_source_file=hp.source_file,
train_vocab_file="train_vocab_en.pkl")
self.scorer = Scorer()
self.scores = {}
self.num_sentences = num_sentences
self.batch_translate = batch_translate
self.evaluate_every = 10
self.metric_bleu_scores = {}
self.metric_gleu_scores = {}
self.metric_precisions = {}
self.metric_recalls = {}
# Plot each metric
plt.style.use('seaborn-darkgrid')
self.palette = sns.color_palette()
def main(argv):
# Check number of command line arguments
if len(argv) != 3:
print "Error usage:"
print "python simple_classifier.py <train_features> <train_classes> <test_features>"
sys.exit()
else:
trainfeatfile = argv[0]
trainclassfile = argv[1]
testfeatfile = argv[2]
y=[] # y is the classes, 1st column
X=[] # X is the features, 2nd column onwards
X_test=[] # X_test is features to test on
# Open training CSV file and save data in X
with open(trainfeatfile,'r') as traincsv:
trainreader = csv.reader(traincsv)
for row in trainreader:
X.append(row)
# Open training classes file and save in y
with open(trainclassfile,'r') as trainclass:
for row in trainclass:
y.append(int(row))
predictions = [0] * len(y)
# Open testing CSV file and save data in X_test
with open(testfeatfile,'r') as testcsv:
testreader = csv.reader(testcsv)
for row in testreader:
X_test.append(row)
# Do N-fold X-val
N=10
skf = StratifiedKFold(y, N)
for train, test in skf:
# Get training and test subsets
X_sub = [X[a] for a in train]
y_sub = [y[a] for a in train]
X_test_sub = [X[a] for a in test]
#Train a decision tree classifier for each split.
clf = tree.DecisionTreeClassifier(min_samples_leaf=50)
clf.fit(X_sub,y_sub)
#Predict on test subset and save results
predictions_sub = clf.predict(X_test_sub)
for i in range(0,len(test)):
predictions[test[i]] = predictions_sub[i]
# Score results
scorer=Scorer(0)
# Compute classification performance
scorer.printAccuracy(predictions, y, "Training set performance")
return
def __init__(self, argument_string):
"""
Initialises metric-specific parameters.
"""
Scorer.__init__(self, argument_string)
# use n-gram order of 4 by default
if not 'n' in list(self._arguments.keys()):
self._arguments['n'] = 4
def __init__(self, argument_string):
"""
Initialises metric-specific parameters.
"""
Scorer.__init__(self, argument_string='')
self._reference = None
# use n-gram order of 4 by default
self.additional_flags = argument_string
def testCalculateMaximumsGreater(self):
scorer = Scorer()
scorer.words = self.scorer.get_words_copy()
scorer.calculate_maximums(n=1000)
self.assertEqual(3, len(scorer.max_words))
self.assertEqual(1000, scorer.n)
self.assertEqual([("word", 10), ("another", 5), ("yet", 2)],
scorer.max_words)
def __init__(self, argument_string):
"""
Initialises metric-specific parameters.
"""
Scorer.__init__(self, argument_string)
# use n-gram order of 4 by default
if not 'n' in list(self._arguments.keys()):
self._arguments['n'] = 4
def test_wrong_nclass(self, size):
y_true = [1] * size
y_pred = [1] * size
scorer = Scorer()
with pytest.raises(ValueError):
scorer.evaluate(y_true, y_pred)
def __init__(self,title,ns_list):
self.tws = title_split(title)
self.ns_list = ns_list
self.scorer = Scorer('xh')
self.score_li = []
self.confidence_li = []
self.sim_var = 0.0
self.recorder = Recorder()
self.block = []
def main(file_name):
parsed_match = ScoreParser(yaml.load).parse(open(file_name).read())
scorer = Scorer()
scores = scorer.produce_scores(parsed_match)
return {
"version" : "1.0.0",
"match_number" : parsed_match["match_number"],
"scores" : scores,
}
def test_wrong_size(self, size):
y_true = np.random.choice([0., 1.], p=[.5, .5], size=(size, ))
y_pred = np.random.choice([0., 1.], p=[.5, .5], size=(size + 1, ))
scorer = Scorer()
with pytest.raises(ValueError):
scorer.evaluate(y_true, y_pred)
def test_setter(self, size):
y_true = np.random.choice([0., 1.], p=[.5, .5], size=(size, ))
y_pred = np.random.choice([0., 1.], p=[.5, .5], size=(size, ))
scorer = Scorer()
scorer.evaluate(y_true, y_pred)
with pytest.warns(UserWarning):
scorer['Nico'] = 'Nico'
def test_numpy(self, size):
y_true = np.random.choice([0., 1.], p=[.5, .5], size=(size, ))
y_pred = np.random.choice([0., 1.], p=[.5, .5], size=(size, ))
scorer = Scorer()
_ = scorer.evaluate(y_true, y_pred)
assert isinstance(_, type(scorer))
assert repr(scorer) == '<Scorer (classes: 2)>'
def check_by_input_file(input_name):
input_file = os.path.join("test/data/scorer", input_name)
test_data = yaml.load(open(input_file).read())
scorer = Scorer(test_data['input'])
scores = scorer.calculate_scores()
expected_scores = test_data['scores']
assert scores == expected_scores, "Incorrect scores for '{0}'.".format(input_name)
def _eval_pas(self, arguments_set, dataset: PASDataset, corpus: str, suffix: str = ''):
prediction_output_dir = self.save_dir / f'{corpus}_out{suffix}'
prediction_writer = PredictionKNPWriter(dataset,
self.logger,
use_knp_overt=(not self.predict_overt))
documents_pred = prediction_writer.write(arguments_set, prediction_output_dir)
documents_gold = dataset.joined_documents if corpus == 'kc' else dataset.documents
result = {}
for pas_target in self.pas_targets:
scorer = Scorer(documents_pred, documents_gold,
target_cases=dataset.target_cases,
target_exophors=dataset.target_exophors,
coreference=dataset.coreference,
bridging=dataset.bridging,
pas_target=pas_target)
stem = corpus
if pas_target:
stem += f'_{pas_target}'
stem += suffix
if self.target != 'test':
scorer.write_html(self.save_dir / f'{stem}.html')
scorer.export_txt(self.save_dir / f'{stem}.txt')
scorer.export_csv(self.save_dir / f'{stem}.csv')
metrics = self._eval_metrics(scorer.result_dict())
for met, value in zip(self.metrics, metrics):
met_name = met.__name__
if 'case_analysis' in met_name or 'zero_anaphora' in met_name:
if pas_target:
met_name = f'{pas_target}_{met_name}'
result[met_name] = value
return result
def _play_turn(self, turn_num, current_score=0):
num_remaining_dice = 6
turn_actions = []
new_score = 0
new_actions = []
scorer = Scorer([])
while(self._should_roll(turn_num, num_remaining_dice, current_score)):
die_rolls = self._roll(num_remaining_dice)
turn_actions.append(('rolled', die_rolls))
scorer = Scorer(die_rolls)
if scorer.is_blown():
return 0, turn_actions + ['blew it']
actions = self.strategy.actions(die_rolls)
turn_actions += actions
score = scorer.apply_actions(actions)
current_score = current_score + score
turn_actions.append(('adding', score, current_score))
num_remaining_dice = scorer.num_remaining_dice()
num_remaining_dice = num_remaining_dice if not num_remaining_dice == 0 else 6
dice = scorer._make_remaining_dice()
num_remaining, raw_score = Scorer(dice).raw_score()
current_score += raw_score
turn_actions.append(('auto-adding', raw_score, current_score))
game_over = self.stop_score and current_score + self.total_score >= self.stop_score
if num_remaining == 0 and not game_over:
turn_actions.append('rolled over')
current_score, new_actions = self._play_turn(turn_num, current_score)
return (current_score, turn_actions + new_actions)
def _valid_epoch(self, data_loader, corpus):
"""
Validate after training an epoch
:return: A log that contains information about validation
Note:
The validation metrics in log must have the key 'val_metrics'.
"""
self.model.eval()
total_loss = 0
arguments_set: List[List[List[int]]] = []
contingency_set: List[int] = []
with torch.no_grad():
for step, batch in enumerate(data_loader):
batch = {label: t.to(self.device, non_blocking=True) for label, t in batch.items()}
loss, *output = self.model(**batch)
if len(loss.size()) > 0:
loss = loss.mean()
pas_scores = output[0] # (b, seq, case, seq)
if corpus != 'commonsense':
arguments_set += torch.argmax(pas_scores, dim=3).tolist() # (b, seq, case)
total_loss += loss.item() * pas_scores.size(0)
if step % self.log_step == 0:
self.logger.info('Validation [{}/{} ({:.0f}%)] Time: {}'.format(
step * data_loader.batch_size,
len(data_loader.dataset),
100.0 * step / len(data_loader),
datetime.datetime.now().strftime('%H:%M:%S')))
log = {'loss': total_loss / len(data_loader.dataset)}
self.writer.add_scalar(f'loss/{corpus}', log['loss'])
if corpus != 'commonsense':
dataset = data_loader.dataset
prediction_writer = PredictionKNPWriter(dataset, self.logger)
documents_pred = prediction_writer.write(arguments_set, None, add_pas_tag=False)
targets2label = {tuple(): '', ('pred',): 'pred', ('noun',): 'noun', ('pred', 'noun'): 'all'}
scorer = Scorer(documents_pred, dataset.gold_documents,
target_cases=dataset.target_cases,
target_exophors=dataset.target_exophors,
coreference=dataset.coreference,
bridging=dataset.bridging,
pas_target=targets2label[tuple(dataset.pas_targets)])
result = scorer.run()
log['result'] = result
else:
log['f1'] = self._eval_commonsense(contingency_set)
return log
def grade(pull_request):
if pull_request.travis_build() is None:
print("travis not build - branch has conflicts")
return -1
print(pull_request.travis_build().url())
pull_request.check_test_modifications()
scorer = Scorer(pull_request)
score, comment = scorer.compute()
print("score:{s} comment:{c}".format(s=score, c=comment))
return score, comment
def __init__(self, argument_string):
"""
Initialises metric-specific parameters.
"""
Scorer.__init__(self, argument_string)
# use character n-gram order of 4 by default
if not 'n' in list(self._arguments.keys()):
self._arguments['n'] = 6
# use beta = 1 by default (recommendation by Maja Popovic for generative modelling)
if not 'beta' in list(self._arguments.keys()):
self._arguments['beta'] = 1
def __init__(self, model, source_file, target_file, num_sentences=1000):
self.model = model
self.source_file = source_file
self.target_file = target_file
self.scorer = Scorer()
self.num_sentences = num_sentences
self.metric_to_gleu = {}
self.all_gleu_scores = []
self.metric_to_bad = {}
self.bad_count = {}
# self.threshold = 0.2826 - 0.167362
self.threshold = 0.6
def score(phrases, docs):
scores = []
scorer = Scorer(docs)
for id, phrase in phrases.items():
p_score = scorer.calculate_score(phrase)
phrase.score = p_score
scores.append(p_score)
scores.sort()
return scores[len(scores) / 2]
def score(phrases, docs):
scores = []
scorer = Scorer(docs)
for id, phrase in phrases.items():
p_score = scorer.calculate_score(phrase)
phrase.score = p_score
scores.append(p_score)
scores.sort()
return scores[len(scores)/2]
def main(argv):
# Check number of command line arguments
if len(argv) != 3:
print "Error usage:"
print "python simple_classifier.py <train_features> <train_classes> <test_features>"
sys.exit()
else:
trainfeatfile = argv[0]
trainclassfile = argv[1]
testfeatfile = argv[2]
y=[] # y is the classes, 1st column
X=[] # X is the features, 2nd column onwards
X_test=[] # X_test is features to test on
# Open training CSV file and save data in X
with open(trainfeatfile,'r') as traincsv:
trainreader = csv.reader(traincsv)
for row in trainreader:
X.append(row)
# Open training classes file and save in y
with open(trainclassfile,'r') as trainclass:
for row in trainclass:
y.append(int(row))
# Open testing CSV file and save data in X_test
with open(testfeatfile,'r') as testcsv:
testreader = csv.reader(testcsv)
for row in testreader:
X_test.append(row)
# Train a decision tree classifier. Though the default settings
# aren't very good!
clf = tree.DecisionTreeClassifier(min_samples_leaf=50)
clf.fit(X,y)
predictions = clf.predict(X_test)
train_predictions = clf.predict(X)
# Print out the predictions, 1 per line
for predict in predictions:
print predict
# Score results
scorer=Scorer(0)
# Compute classification performance
scorer.printAccuracy(train_predictions, y, "Training set performance")
return
def calculate_maximums(self, n: int = 10) -> None:
"""
Calculates the maximum values for each file in the list.
:param int n: the number of maximum values to find
:return: None
:rtype: None
"""
self.combine_words()
for file in self.files:
file.calculate_maximums(n=n)
Scorer.calculate_maximums(self, n=n)
def __init__(self, argument_string):
Scorer.__init__(self, argument_string)
#Lock for the METEOR process, which can only handle one request at a time:
self.lock = threading.Lock()
#Get necessary arguments for starting METEOR from argument string parsed in Scorer.__init__()
self._meteor_language = self._arguments["meteor_language"]
self._meteor_path = self._arguments["meteor_path"] + "/"
#Start a METEOR process:
command = "java -Xmx2G -jar "+self._meteor_path+"meteor-*.jar - - -l "+self._meteor_language+" -stdio"
self.meteor_process = subprocess.Popen(command, stdin=subprocess.PIPE, stdout=subprocess.PIPE, stderr=subprocess.PIPE, shell=True)
def __init__(self, argument_string):
Scorer.__init__(self, argument_string)
#Lock for the BEER process, which can only handle one request at a time:
self.lock = threading.Lock()
#Get necessary arguments for starting BEER from argument string parsed in Scorer.__init__()
self._beer_language = self._arguments["beer_language"]
self._beer_path = self._arguments["beer_path"] + "/"
#Start a BEER process:
command = self._beer_path+"beer -l "+self._beer_language+" --workingMode interactive "
self.beer_process = subprocess.Popen(command, stdin=subprocess.PIPE, stdout=subprocess.PIPE, stderr=subprocess.PIPE, shell=True)
def __init__(self, playerCount=2, firstToAct=1, nextToAct=1, actingOrderPointer=0, \
roundNumber=1, roundActionNumber=1, deck=None, deckPointer=0, variant='ofc'):
"""
Initialise Game object
Each game has a current round number, Player objects and a board object for each round
:param playerCount: int number of players
:param firstToAct: int playerNumber who acts first this round
:param deck: 104 char string containing card names format <rank><suit>*52
:return: None
"""
assert isinstance(playerCount, int)
assert 2 <= playerCount <= 4
assert isinstance(firstToAct, int)
assert 1 <= firstToAct <= 4
self.playerCount = playerCount
self.firstToAct = firstToAct
self.nextToAct = nextToAct
self.actingOrder = self.generateActingOrder(firstToAct=firstToAct)
self.actingOrderPointer = actingOrderPointer
self.roundActionNumber = roundActionNumber
self.roundNumber = roundNumber
self.variant = variant
self.board = Board(playerCount=playerCount, deck=deck, deckPointer=deckPointer)
self.players = self.createPlayers()
self.playerIds = self.createPlayerIds()
self.scoring = Scorer(players=self.players, board=self.board)
def test_invalid_data():
something = object()
input_ = { "TLA1": something, "TLA2": something }
error = Exception('bacon')
def checker(tla, data):
assert data is something, "Wrong data passed to validator"
raise error
with mock.patch('scorer.validate_team', create=True) as mock_validate:
mock_validate.side_effect = checker
threw = False
try:
scorer = Scorer(input_)
actual = scorer.calculate_scores()
except Exception as e:
threw = True
assert e is error
assert threw, "Should have experienced an error from the validator"
def minimax(self, board, current_player, depth=0):
spot_score = -1
prime_move = 0
highest_score = -1
depth = depth
if Scorer.is_game_over(board):
return (self.score_move(board, current_player, depth), None)
depth += 1
for spot in board.available_spots():
board.place_move(current_player, spot)
spot_score = -(self.minimax(board, self.switch_players(current_player), depth)[0])
board.spots[spot - 1] = spot
if spot_score > highest_score:
prime_move = spot
highest_score = spot_score
return (highest_score, prime_move)
class Recommender:
phrasesRoot = os.getcwd() + "/phrases/"
corpusRoot = os.path.join(os.getcwd(), "corpus")
def __init__(self, filename="scored.txt"):
self.scorer = Scorer()
# Calculates the semantic orientation of all products
# based on their reviews and outputs a list of them
# ordered descendingly
def recommend(self, filename="recommendations.txt"):
scores = {}
nscores = {} # how many reviews for that product
for d in os.listdir(Recommender.corpusRoot):
if os.path.isdir(os.path.join(Recommender.corpusRoot, d)):
for f in os.listdir(os.path.join(Recommender.corpusRoot, d)):
m = re.search("(\d+)t(\d+).txt",f)
if m:
key = "{0}-{1}".format(d,m.groups()[0])
so = self.scorer.file_semantic_orientation(os.path.join(Recommender.corpusRoot, d, f))
if key in scores:
scores[key] = scores[key] + so
nscores[key] = nscores[key] + 1
else:
scores[key] = so
nscores[key] = 1
for key in scores:
scores[key] = scores[key]/nscores[key] #averaging multiple reviews for the same product
scores = sorted(scores.iteritems(), key=operator.itemgetter(1), reverse = True)
if filename:
f = open(filename,"w")
for score in scores:
f.write('{0} {1}\n'.format(score[0],score[1]))
f.close()
return scores
class Game(object):
def __init__(self, playerCount=2, firstToAct=1, nextToAct=1, actingOrderPointer=0, \
roundNumber=1, roundActionNumber=1, deck=None, deckPointer=0, variant='ofc'):
"""
Initialise Game object
Each game has a current round number, Player objects and a board object for each round
:param playerCount: int number of players
:param firstToAct: int playerNumber who acts first this round
:param deck: 104 char string containing card names format <rank><suit>*52
:return: None
"""
assert isinstance(playerCount, int)
assert 2 <= playerCount <= 4
assert isinstance(firstToAct, int)
assert 1 <= firstToAct <= 4
self.playerCount = playerCount
self.firstToAct = firstToAct
self.nextToAct = nextToAct
self.actingOrder = self.generateActingOrder(firstToAct=firstToAct)
self.actingOrderPointer = actingOrderPointer
self.roundActionNumber = roundActionNumber
self.roundNumber = roundNumber
self.variant = variant
self.board = Board(playerCount=playerCount, deck=deck, deckPointer=deckPointer)
self.players = self.createPlayers()
self.playerIds = self.createPlayerIds()
self.scoring = Scorer(players=self.players, board=self.board)
def createPlayers(self):
"""
Used to initialise the player objects based on given player requirements
:return: List of player objects in ascending numerical order
"""
players = []
for i in range(1, self.playerCount + 1):
players.append(Player(playerNumber=i))
return players
def createPlayerIds(self):
"""
Generate uuid4 for each player
This will be used as well as individual game ids for frontend
:return: List of player ids
"""
playerIds = []
for i in range(0, self.playerCount):
playerIds.append(str(uuid.uuid4()))
return playerIds
def resetBoard(self):
"""
Clears board and generates new deck of cards
:return: None
"""
self.board = Board(playerCount=self.playerCount)
def newRound(self):
"""
Start a new round
:return: None
"""
self.scoreBoard()
self.resetBoard()
self.roundNumber += 1
self.incrementNextToAct()
self.actingOrder = self.generateActingOrder(self.nextToAct)
def scoreBoard(self):
"""
Scores the board
:return: None
"""
self.scoring.scoreAll()
def interpretScores(self):
"""
Calls and interprets results of scorer
:return: string scores interpretation
"""
self.scoreBoard()
returnStr = ""
for message in self.scoring.scoresMessages:
returnStr += message + "\n"
returnStr += "\n"
for player in self.players:
returnStr += "Player %i's total score after this round = %i\n" % \
(player.playerNumber, player.score)
return returnStr
def generateActingOrder(self, firstToAct=1):
"""
Generates actingOrder for clockwise rotation of player action
:param firstToAct: int first player number to act
:return: List actingOrder [first playerNumber, second playerNumber ..]
"""
assert isinstance(firstToAct, int)
assert 1 <= firstToAct <= self.playerCount
actingOrder = []
for i in range(firstToAct, self.playerCount + 1):
actingOrder.append(i)
for i in range(1, firstToAct):
actingOrder.append(i)
return actingOrder
def incrementNextToAct(self):
"""
Increments nextToAct var and if necessary, the roundActionNumber
If last player has acted, go back to first player for next round of placements
:return: None
"""
if self.nextToAct == self.actingOrder[self.playerCount - 1]:
self.actingOrderPointer = 0
self.nextToAct = self.actingOrder[0]
self.roundActionNumber += 1
else:
self.actingOrderPointer += 1
self.nextToAct = self.actingOrder[self.actingOrderPointer]
def getLastActor(self):
"""
Returns the player number for the agent who acted last
:return: int player number
"""
if self.actingOrderPointer > 0:
return self.actingOrder[self.actingOrderPointer - 1]
else:
return self.actingOrder[self.playerCount - 1]
def handleNextAction(self):
"""
Determines which method to call next and for which player
If the last action has happened will pass request to scoring handler and return that response instead
:return: [int playerNumber, int roundActionNumber, [Card card]]
"""
playerNumber = self.nextToAct
cardsDealt = []
if (self.roundActionNumber == 1):
cardsDealt = self.dealFirstHand(playerNumber)
elif (self.roundActionNumber <= 9):
cardsDealt = self.dealSubsequentRounds(playerNumber)
else:
tools.write_error("handleNextAction(): All action for this round has finished!")
raise ValueError("All action for this round has finished!")
return [playerNumber, self.roundActionNumber, cardsDealt]
def dealFirstHand(self, playerNumber):
"""
Deal 5 cards to the given player
:param playerNumber: int playerNumber
:return: [5 card objects]
"""
assert self.roundActionNumber == 1
assert isinstance(playerNumber, int)
assert 1 <= playerNumber <= self.playerCount
if (len(self.players[playerNumber - 1].cards) > 0):
raise ValueError("Player already has cards dealt!")
cards = self.board.deck.deal_n(5)
self.players[playerNumber - 1].cards = cards
self.incrementNextToAct()
return cards
def dealSubsequentRounds(self, playerNumber):
"""
Deal one card to the given player
:param playerNumber: int playerNumber
:return: [1 card object]
"""
assert self.roundActionNumber > 1
assert isinstance(playerNumber, int)
assert 1 <= playerNumber <= self.playerCount
card = self.board.deck.deal_one()
self.players[playerNumber - 1].cards.append(card)
self.incrementNextToAct()
return [card]
STOP_WORDS = ['d01', 'd02', 'd03', 'd04', 'd05', 'd06', 'd07', 'd08',
'a', 'also', 'an', 'and', 'are', 'as', 'at', 'be', 'by', 'do',
'for', 'have', 'is', 'in', 'it', 'of', 'or', 'see', 'so',
'that', 'the', 'this', 'to', 'we']
crawler = Crawler([urljoin(SEED_URL, page) for page in SEED_PAGES])
page_rank = PageRank(crawler.webgraph_in, crawler.webgraph_out)
page_rank.build_graph()
index = Indexer(crawler.contents, STOP_WORDS)
index.build_index()
scorer = Scorer(index)
print("> SIMPLE SEARCH ENGINE (by Tammo, Tim & Flo)")
while True:
scores = scorer.calculate_scores(input("\n> query: "))
if not scores:
print("your search term does not occur on any page")
continue
ranked_scores = [(url, score, page_rank.get_rank(url), score * page_rank.get_rank(url)) for url, score in scores.items()]
print("\n url | score | rank | rank * score\n" + "-" * 54)
for url, score, rank, ranked_score in sorted(ranked_scores, key=lambda element: element[3], reverse=True):
print(" ..{} | {:.4f} | {:.4f} | {:.4f}".format(url[-15:], round(score, 6), round(rank, 6), round(ranked_score, 6)))
print("\n# Indexer TEST [doc length]")
d08_len = index.documents_length['http://mysql12.f4.htw-berlin.de/crawl/d08.html']
print(" d08 length: " + ("OK" if round(d08_len, 6) == 2.727447 else "WRONG"))
d06_len = index.documents_length['http://mysql12.f4.htw-berlin.de/crawl/d06.html']
print(" d06 length: " + ("OK" if round(d06_len, 6) == 1.974093 else "WRONG"))
d04_len = index.documents_length['http://mysql12.f4.htw-berlin.de/crawl/d04.html']
print(" d04 length: " + ("OK" if round(d04_len, 6) == 4.312757 else "WRONG"))
print("\n# Scorer TEST")
scorer = Scorer(index)
tokens_scores = scorer.calculate_scores('tokens')
tokens_scores_check = all(
((round(tokens_scores['http://mysql12.f4.htw-berlin.de/crawl/d08.html'], 6) == 0.119897),
(round(tokens_scores['http://mysql12.f4.htw-berlin.de/crawl/d02.html'], 6) == 0.093106),
(round(tokens_scores['http://mysql12.f4.htw-berlin.de/crawl/d04.html'], 6) == 0.061577),
(round(tokens_scores['http://mysql12.f4.htw-berlin.de/crawl/d01.html'], 6) == 0.051784),
(round(tokens_scores['http://mysql12.f4.htw-berlin.de/crawl/d03.html'], 6) == 0.045677)))
print(" 'tokens' score: " + ("OK" if tokens_scores_check else "WRONG"))
index_scores = scorer.calculate_scores('index')
index_scores_check = all(
((round(index_scores['http://mysql12.f4.htw-berlin.de/crawl/d08.html'], 6) == 0.250207),
(round(index_scores['http://mysql12.f4.htw-berlin.de/crawl/d05.html'], 6) == 0.233073),
(round(index_scores['http://mysql12.f4.htw-berlin.de/crawl/d04.html'], 6) == 0.098769)))
def play(self):
# cards may be unlimited - 4 suits in a deck
start = True
while start:
player = Player()
computer = Player()
player.addCards(self.deck.getCard())
player.addCards(self.deck.getCard())
if self.__isAllFaceCards(player.getCards()):
player.setPlayStatus(False)
scorer = Scorer()
while player.getPlayStatus():
scorer.addPointsToPlayer(self.__addUpCards(player.getCards()))
print "Player cards: %s total: %d" % (player.getCards(), scorer.getTotalPlayer())
if scorer.isBusted('p'):
print "Player bursted!"
player.setBurstedStatus(True)
player.setPlayStatus(False)
elif scorer.isBlackjack():
print "Black jack!"
player.setPlayStatus(False)
else:
hit_or_stand = raw_input("hit or stand? h / s : ")
if hit_or_stand is "h":
player.addCards(self.deck.getCard())
else:
player.setPlayStatus(False)
while computer.getPlayStatus():
# almost same
computer.addCards(self.deck.getCard())
computer.addCards(self.deck.getCard())
# till the computer hv 18
while True:
scorer.addPointsToComputer(self.__addUpCards(computer.getCards()))
if scorer.getTotalComputer() <= 18 :
computer.addCards(self.deck.getCard())
else:
break
print "computer cards: %s total: %d" % (computer.getCards(), scorer.getTotalComputer())
# who is the winner
if scorer.getTotalComputer() > 21:
print "computer bursted!"
if not player.getBurstedStatus():
print "player wins!"
elif scorer.getTotalComputer() > scorer.getTotalPlayer():
print "computer wins!"
elif scorer.getTotalComputer() == scorer.getTotalPlayer():
print "Draw!"
elif scorer.getTotalPlayer() > scorer.getTotalComputer():
if not player.getBurstedStatus():
print "player wins!"
elif not computer.getBurstedStatus():
print "computer bursted"
computer.setPlayStatus(False)
carryon = raw_input("would you like to continue? y or n : ")
if carryon is not "y":
start = False
def is_over(self):
if Scorer.is_game_won(self.board):
self.presenter.winner_message(self.current_player.mark)
elif Scorer.is_game_stalemate(self.board):
self.presenter.stalemate_message()
return Scorer.is_game_over(self.board)
def score_move(self, board, current_player, depth):
if Scorer.is_game_won(board):
return (1.0 / -depth)
else:
return 0
def __init__(self):
Scorer.__init__(self)
def __init__(self, filename="scored.txt"): self.scorer = Scorer()
