def count_retrieved_messages(mailBox):
import re
from collections import Counter as counter
addresses = []
for mail in mailBox:
(date, address, subject) = get_message_info(mail)
matches = re.findall(r'<(.+?)>', address)
addresses.append("".join(matches))
return counter(addresses), sorted((counter(addresses)).items(), key=lambda kv: kv[1])
def life(cells):
"""Takes a list of (x,y) points, and returns the next generation of the Game of Life."""
neighbours = counter(
[(x + xo, y + yo) for x, y in cells for xo in [-1, 0, 1] for yo in [-1, 0, 1]]
)
return counter(
[
cell
for cell in neighbours
if neighbours[cell] == 3 or (neighbours[cell] == 4 and cell in cells)
]
)
def ransom_note(magazine, ransom):
if len(ransom) > len(magazine):
return False
magazine_dict = counter(magazine)
ransom_dict = counter(ransom)
for key, value in ransom_dict.items():
if key not in magazine_dict:
return False
elif value > magazine_dict[key]:
return False
return True
def minWindowSub(source, target): if not source or not target: return "" s = counter() t = counter() for i in source: s[i] += 1 for j in target: t[j] += 1 start = 0 end = 0 while start < len(source): for i in range(len(target)):
def scopes_size(scopes: Scopes) -> Counter:
""" Calculate the different scope lengths.
Parameters
----------
scopes : DefaultDict
Dictionary of cells (keys) and their scopes
Returns
-------
Counter :
Counter of scopes lengths (key) and their frequency (values).
See Also
--------
get_scopes
Examples
--------
>>> import numpy as np
>>> scopes = structure(2, 3)[2]
>>> scopes_size(scopes) == Counter({2: 4, 3: 4, 4: 1})
True
"""
return counter([len(scope) for scope in scopes.values()])
def calc_mode(list1):
# max(set(list)),key=list.count()
data = collections.counter(list1)
datadic = dict(data)
max_value = max(datadic.values())
mode = [num for num, freq in datadic if freq == max_value]
return mode
def download_many(cc_list, base_url, verbose, concun_req):
conter = collections.counter()
with futures.ThreadPoolExecutor(max_workers=concun_req) as executor:
#把 max_workers 设为 concur_req，创建 ThreadPoolExecutor 实例
to_do_map = {} #这个字典把各个 Future 实例（表示一次下载）映射到相应的国家代码上，在处理错误时使用
for cc in sorted(cc_list):
future = executor.submit(download_one, cc, base_url, verbose)
#每次调用 executor.submit 方法排定一个可调用对象的执行时间，然后返回一个 Future 实例
to_do_map[future] = cc #把返回的 future 和国家代码存储在字典中。
dont_iter = futures.as_completed(to_do_map)
#futures.as_completed 函数返回一个迭代器，在期物运行结束后产出期物
if not verbose:
dont_iter = tqdm.tqdm(dont_iter, total=len(cc_list))
#如果不是详细模式，把 as_completed 函数返回的结果传给 tqdm 函数，显示进度条
for future in dont_iter: #迭代运行结束后的期物
try:
res = future.result()
#在期物上调用 result 方法，要么返回可调用对象的返回值，要么抛出可调用的对象在执行过程中捕获的异常。这个方法可能会阻塞，等待确定结果
except requests.exceptions.HTTPError as exc:
error_msg = 'HTTP {res.status_code} - {res.reason}'
error_msg = error_msg.format(res=exc.response)
except requests.exceptions.ConnectionError as exc:
error_msg = 'Connection error'
else:
error_msg = ''
status = res.status
if error_msg:
status = HTTPStatus.error
counter[status] += 1
if verbose and error_msg:
cc = to_do_map[future]
#为了给错误消息提供上下文，以当前的 future 为键，从to_do_map 中获取国家代码。
print('*** Error for {}: {}'.format(cc, error_msg))
return counter
def glove(n, arr):
n = counter(arr)
return sum(i // 2 for i in n.values())
n = input()
arr = list(map(int, input().split()))
print(glove(n, arr))
def predict_labels(self, dists, k=1):
"""
Given a matrix of distances between test points and training points,
predict a label for each test point.
Inputs:
- dists: A numpy array of shape (num_test, num_train) where dists[i, j]
gives the distance between the ith test point and the jth training point.
Returns:
- y: A numpy array of shape (num_test,) containing predicted labels for the
test data, where y[i] is the predicted label for the test point X[i].
"""
num_test = dists.shape[0]
y_pred = np.zeros(num_test)
print 'start predicting labels'
for i in xrange(num_test):
print i
# A list of length k storing the labels of the k nearest neighbors to
# the ith test point.
closest_y = self.y_train[np.argsort(dists[i])[:k]]
# Naive way (just assign the 0-index of closest_y
y_pred[i] = closest_y[0]
# Better way, count which class appears most
y_pred[i] = counter(closest_y).most_common(1)[0][0]
return y_pred
def _filter_atomic_property(self, zeta_data, selected_atoms):
zeta_data['atomic_number'] = zeta_data.index.labels[0] + 1
zeta_data['ion_number'] = zeta_data.index.labels[1] + 1
zeta_data = zeta_data[zeta_data.atomic_number.isin(selected_atoms)]
zeta_data_check = counter(zeta_data.atomic_number.values)
keys = np.array(zeta_data_check.keys())
values = np.array(zeta_data_check.values())
if np.alltrue(keys + 1 == values):
return zeta_data
else:
# raise IncompleteAtomicData('zeta data')
# This currently replaces missing zeta data with 1, which is necessary with
# the present atomic data. Will replace with the error above when I have
# complete atomic data.
logger.warn('Zeta_data missing - replaced with 1s')
updated_index = []
for atom in selected_atoms:
for ion in range(1, atom + 2):
updated_index.append([atom, ion])
updated_index = np.array(updated_index)
updated_dataframe = pd.DataFrame(index=pd.MultiIndex.from_arrays(
updated_index.transpose().astype(int)),
columns=zeta_data.columns)
for value in range(len(zeta_data)):
updated_dataframe.ix[zeta_data.atomic_number.values[value]].ix[
zeta_data.ion_number.values[value]] = \
zeta_data.ix[zeta_data.atomic_number.values[value]].ix[
zeta_data.ion_number.values[value]]
updated_dataframe = updated_dataframe.astype(float)
updated_index = pd.DataFrame(updated_index)
updated_dataframe['atomic_number'] = np.array(updated_index[0])
updated_dataframe['ion_number'] = np.array(updated_index[1])
updated_dataframe.fillna(1.0, inplace=True)
return updated_dataframe
def _filter_atomic_property(self, zeta_data, selected_atoms):
zeta_data['atomic_number'] = zeta_data.index.labels[0] + 1
zeta_data['ion_number'] = zeta_data.index.labels[1] + 1
zeta_data = zeta_data[zeta_data.atomic_number.isin(selected_atoms)]
zeta_data_check = counter(zeta_data.atomic_number.values)
keys = np.array(zeta_data_check.keys())
values = np.array(zeta_data_check.values())
if np.alltrue(keys + 1 == values):
return zeta_data
else:
# raise IncompleteAtomicData('zeta data')
# This currently replaces missing zeta data with 1, which is necessary with
# the present atomic data. Will replace with the error above when I have
# complete atomic data.
logger.warn('Zeta_data missing - replaced with 1s')
updated_index = []
for atom in selected_atoms:
for ion in range(1, atom + 2):
updated_index.append([atom, ion])
updated_index = np.array(updated_index)
updated_dataframe = pd.DataFrame(index=pd.MultiIndex.from_arrays(
updated_index.transpose().astype(int)),
columns=zeta_data.columns)
for value in range(len(zeta_data)):
updated_dataframe.ix[zeta_data.atomic_number.values[value]].ix[
zeta_data.ion_number.values[value]] = \
zeta_data.ix[zeta_data.atomic_number.values[value]].ix[
zeta_data.ion_number.values[value]]
updated_dataframe = updated_dataframe.astype(float)
updated_index = pd.DataFrame(updated_index)
updated_dataframe['atomic_number'] = np.array(updated_index[0])
updated_dataframe['ion_number'] = np.array(updated_index[1])
updated_dataframe.fillna(1.0, inplace=True)
return updated_dataframe
def query(self, point):
cnt = collections.counter()
for rep in self.reprs(point, self.tq):
cnt[rep] += 1
for point2 in self.lists[rep]:
yield point2
print(f'queried {sum(cnt.values())} buckets. {len(cnt)} unique.')
def _get_intents_and_slots(frame: Node, tree_based: bool) -> IntentsAndSlots:
intents: Counter[Node] = counter()
slots: Counter[Node] = counter()
def process_node(node: Node, is_intent: bool) -> None:
for child in node.children:
process_node(child, not is_intent)
if not tree_based:
node = type(node)(node.label, deepcopy(node.span), text=node.text)
if is_intent:
intents[node] += 1
else:
slots[node] += 1
process_node(frame, True)
return IntentsAndSlots(intents=intents, slots=slots)
def get_expected_messages(stream):
"""Parses a file and get expected messages.
:param stream: File-like input stream.
:returns: A dict mapping line,msg-symbol tuples to the count on this line.
"""
messages = collections.counter()
for i, line in enumerate(stream):
match = _EXPECTED_RE.search(line)
if match is None:
continue
line = match.group('line')
if line is None:
line = i + 1
elif line.startswith('+') or line.startswith('-'):
line = i + 1 + int(line)
else:
line = int(line)
version = match.group('version')
op = match.group('op')
if version:
required = parse_python_version(version)
if not _OPERATORS[op](sys.version_info, required):
continue
for msg_id in match.group('msgs').split(','):
messages[line, msg_id.strip()] += 1
return messages
def get_sequence_weights(self):
"""
Return the calculated sequence weights for all sequences in the MSA.
The order of weights in the array must be equal to the order of the
sequences in the MSA.
:return: Numpy array (dtype=numpy.float64) containing the weights for
all sequences in the MSA.
"""
# weights = np.zeros(self.get_size()[0], dtype=np.float64)
self.r_vals = np.zeros(self.get_size()[1], dtype=np.int64)
cell_weight = np.zeros_like(self.sequences, dtype=np.float64)
for i in range(self.get_size()[1]):
column = self.sequences[:,
i] # equivalent to np.take(self.sequences, i, axis=1)
counts = counter(column)
# inefficient way
""" s_vals = np.array([counts[val] for val in column])
self.r_vals[i] = len(counts)
for j in range(len(column)):
cell_weight[j][i] = 1/(self.r_vals[i]*counts[self.sequences[j][i]]) """
# more efficient way
s_vals = np.array(list(map(lambda key: counts[key], column)),
dtype=np.int64)
self.r_vals[i] = len(counts)
if self.r_vals[i] > 1:
# corresponds to S_i,k
cell_weight[:, i] = np.divide(
1, np.multiply(self.r_vals[i], s_vals)
) # Or cell_weight[:, i] = 1/(self.r_vals[i]*s_vals[:])
weights = cell_weight.sum(1)
# weights = [sum(x) for x in cell_weight]
return weights.astype(np.float64)
def arrayToCdf(array):
c = counter(array)
k = sorted(c.keys())
total = sum(c.values())
v = [float(c[key]) for key in k]
pdf = [x/total for x in v]
cdf = np.cumsum(pdf)
return [k, cdf]
def _get_received(self):
messages = self._linter.reporter.messages
messages.sort(key=lambda m: (m.line, m.symbol, m.msg))
received_msgs = collections.counter()
received_output_lines = []
for msg in messages:
received_msgs[msg.line, msg.symbol] += 1
received_output_lines.append(OutputLine.from_msg(msg))
return received_msgs, received_output_lines
def _check_same_line_imports(self, node):
# Detect duplicate imports on the same line.
names = (name for name, _ in node.names)
counter = collections.counter(names)
for name, count in counter.items():
if count > 1:
self.add_message('reimported',
node=node,
args=(name, node.fromlineno))
def stats_text_en(text):
import collections
if not isinstance(text,str): # Day8 添加参数类型检查
raise ValueError('输入的不是文本格式，请重新输入：')
text = text.replace('.', '').replace('!', '').replace('--', '').replace('*', '').replace(',', '').replace('(', '').replace(')', '').replace(';', '').replace(':', '').replace('\'', '').replace('?', '').replace('_', '').replace('-', '').replace('/', '') .replace('[', '') .replace(']', '') .replace('\\', '') .replace('\"', '').replace('{', '').replace('}', '').replace('\t', '').replace('\n', '').replace('\r\n', '') # 去除各种标点符号和空格
list_text = text.split() # 将string转换为list
count = int(input("请输入要限制输出的元素个数："))
dic = collections.counter(list_text).most_common(count)
return dic
def solve(arr):
c = counter(arr)
dicc_sorted = dict()
print(c)
for key in c.keys():
return 0
print(solve([1,2,3,0,5,0,1,6,8,8,6,9,1]))
def stats_text_en(text): #定义函数
import collections
if not isinstance(text, str):
raise ValueError('参数必须是 str 类型,输入类型 %s' % type(text))
text = text.replace(',', '').replace('.', '').replace('!', '').replace(
'--', '').replace('*', '').replace('(', '').replace(')', '')
list_text = text.split()
count = int(input("请输入要限制输出的元素个数："))
dic = collections.counter(list_text).most_common(count)
return dic
def minor_earned(self) -> Counter[Player]:
""" Determine how much money all players indirectly earned in this exercise.
Returns:
The amount of money that every player is indirectly responsible for.
"""
earned = counter()
for player, earning in it.product(self.alive, self.earned):
earned[player] += earning.minor_earned(player)
return earned
def update_filter(
self,
criteria: List[Criterion],
operation: Operation,
quantifier: str,
) -> None:
"""Update the selected programs and/or impart the associated taxa and/or mark them as hidden.
Description:
- If the operation is `"impart"`:
- calculate the appropriate sets of programs and taxa;
- remove these programs from `self.selected_programs`;
- add these taxa to `self.imparted_knowledge`.
- If the operation is `"hide"`:
- calculate the appropriate sets of programs and taxa;
- add these taxa to `self.hidden_taxa`.
- Otherwise (the operation is either `"include"` or `"exclude"`):
- calculate the appropriate bag of programs: this bag counts, for each program,
the number of criteria they meet (maximum: size of `criteria`);
- if `quantifier` is `"all"`, remove from this bag all programs which do not
meet at least one criterion;
- include or exclude the resulting programs. Note that the `"exclude"` operation
extends to the programs which import the resulting ones: if the user wants to
exclude a program, she obviously expects that the programs which require it
are excluded too.
Args:
criteria (List[Criterion]): A list of criteria, i.e., a mix of regular expression
patterns (strings) and/or predicates (triples).
operation (Operation): Either `"impart"`, `"hide"`, `"include"` or `"exclude"`.
quantifier (str): Either `"any"` or `"all"`.
"""
if operation in ("impart", "hide"):
patterns = [str(criterion) for criterion in criteria]
if operation == "impart":
(program_set,
taxon_set) = self.programs_and_taxa_of_patterns(patterns)
self.exclude_programs(program_set, follow=False)
self.impart_taxa(taxon_set)
else:
(program_set,
taxon_set) = self.programs_or_taxa_of_patterns(patterns)
self.hidden_programs.update(program_set)
self.hidden_taxa.update(taxon_set)
else:
program_bag = self.programs_of_criteria(
criteria, follow=(operation == "exclude"))
if quantifier == "all":
program_bag -= counter(
{program: len(criteria) - 1
for program in program_bag})
if operation == "include":
self.include_programs(set(program_bag))
else: # necessarily "exclude"
self.exclude_programs(set(program_bag), follow=True)
def satisfiesF(L):
"""
Assumes L is a list of strings
Assume function f is already defined for you and it maps a string to a Boolean
Mutates L such that it contains all of the strings, s, originally in L such
that f(s) returns True, and no other elements. Remaining elements in L
should be in the same order.
Returns the length of L after mutation
"""
data = counter(L)
return data.most_common(L)
def main():
n = int(input().rstrip())
myset = list()
for _ in range(0, n):
myset.append(input().rstrip())
print(len(set(myset)))
qty = list(counter(myset).values())
print(*qty, sep=" ")
def _filter_atomic_property(self, ionization_data, selected_atoms):
ionization_data["atomic_number"] = ionization_data.index.labels[0] + 1
ionization_data["ion_number"] = ionization_data.index.labels[1] + 1
ionization_data = ionization_data[ionization_data.atomic_number.isin(selected_atoms)]
ion_data_check = counter(ionization_data.atomic_number.values)
keys = np.array(ion_data_check.keys())
values = np.array(ion_data_check.values())
if np.alltrue(keys == values):
return ionization_data
else:
raise IncompleteAtomicData(
"ionization data for the ion (" + str(keys[keys != values]) + str(values[keys != values]) + ")"
)
def _filter_atomic_property(self, ionization_data, selected_atoms):
ionization_data['atomic_number'] = ionization_data.index.labels[0] + 1
ionization_data['ion_number'] = ionization_data.index.labels[1] + 1
ionization_data = ionization_data[ionization_data.atomic_number.isin(
selected_atoms)]
ion_data_check = counter(ionization_data.atomic_number.values)
keys = np.array(ion_data_check.keys())
values = np.array(ion_data_check.values())
if np.alltrue(keys == values):
return ionization_data
else:
raise IncompleteAtomicData('ionization data for the ion (' +
str(keys[keys != values]) +
str(values[keys != values]) + ')')
def programs_of_criteria(self, criteria: List[Criterion],
follow: bool) -> Counter[ProgramName]:
"""Calculate the set of programs that meet at least one of the criteria.
Description:
Each criterion may be either:
- a string, which will be interpreted either as:
- a program name pattern (ending with `".py"`). All programs matching it are
accumulated in the result;
- or a taxon name pattern. All programs featuring at least one taxon matching it
are accumulated in the result. If the operation is `"exclude"`, this set is
extended to the programs which import (either directly or by transitivity) at
least one of its members;
- a triple consisting in a “subject” pattern, a predicate (positive or negative)
and an ”object” pattern. This predicate is normalized and, depending on its
“sign”, evaluated on the patterns by either `ProgramFilter.programs_of_triple` or
`ProgramFilter.programs_of_negated_triple`.
Args:
criteria (List[Criterion]): A list of criteria, i.e., a mix of regular expression
patterns (strings) and/or predicates (triples).
follow (bool): If `True`, extend the result with all the programs which import (either
directly or by transitivity) at least one program meeting a criterion.
Returns:
Counter[ProgramName]: A bag (multiset) counting, for each resulting program, the number
of criteria it meets.
"""
resulting_programs: Counter[ProgramName] = counter()
for criterion in criteria:
if isinstance(criterion, str): # the criterion is a pattern
if criterion.endswith(
".py"): # the pattern is a program pattern
programs = self.programs_of_pattern(criterion)
else: # the pattern is a label pattern
taxa = self.taxa_of_pattern(criterion)
programs = self.programs_of_taxa(taxa, follow=follow)
resulting_programs.update(programs)
elif isinstance(criterion, (list, tuple)) and len(criterion) == 3:
(pattern_1, raw_predicate, pattern_2) = criterion
(predicate, negated) = normalize_predicate(raw_predicate)
function = self.programs_of_negated_triple if negated else self.programs_of_triple
resulting_programs.update(
function(pattern_1, predicate, pattern_2))
else:
print_warning(
f"criterion {repr(criterion)} cannot be included or excluded."
)
return resulting_programs
def spacy_tokenize_content(content, source_lang, setting):
if source_lang == 'en':
_spacy = spacy.load('en_core_web_sm')
elif source_lang == 'de':
_spacy = spacy.load('de_core_news_sm')
elif source_lang == 'fr':
_spacy = spacy.load('fr_core_news_sm')
elif source_lang == 'es':
_spacy = spacy.load('es_core_news_sm')
spacy_content = _spacy(content)
if setting == "to_words":
token_set = [
token.lemma_ for token in spacy_content if len(token) >= 3
]
token_count = counter(token_set)
elif setting == "to_sentences":
token_set = [token.text for token in spacy_content.sents]
token_count = counter(token_set)
return token_count
def stats_textt_en(textt_en):
# 统计每个英文单词出现的次数
# 第一步：过滤英文字符，并将text拆分为list
# 第二步：清理*-等标点符号
# 第三步：使用collections库中的counter函数进行词频统计结果。
result = re.sub("[^A-Za-z]", "", textt_en.strip())
newList = result.split()
x = 0
for x in range(0, len(newList)):
newList[x] = newList[x].strip("*-,.?!")
if newList[x] == "":
newList[x].remove('')
else:
x += 1
print("英文单词次品统计结果：", collections.counter(newList), "\n")
def create_dictionary(clean_list):
word_count = {}
for word in clean_list:
if word in word_count:
word_count[word] += 1
else:
word_count[word] = 1
for key, value in sorted(word_count.items(), key=operator.itemgetter(1)):
print("% S : % S " % (key, value))
c = counter(word_count)
top = c.most_common(10)
print(top)
def majorityElement(nums):
n = len(nums)
# print(n)
# x = nums.count(nums)
myCounter = counter(nums)
# print(myCounter.items())
halfN = n // 2
# print(halfN)
majorElement = 0
for key, value in myCounter.items():
# print(key ,'->', value)
if (value > halfN):
majorElement = key
# print('majorElement = ',majorElement)
return majorElement
def parse(textfile, countfile):
if os.path.isfile(countfile):
print("{} exists".format(countfile))
return
print("Loading {}".format(textfile))
with open(textfile, "r") as f:
data = f.read()
data = map(lambda c: (" ", c.lower())[int(c.isalpha())], data)
data = "".join(list(data)).split()
data = counter(data)
print("Writing {}".format(countfile))
with open(countfile, "w") as f:
print("word,count", file=f)
for word, count in data.items():
print("{},{}".format(word, count), file=f)
def __fit_clusters(self, column: np.array) -> List[float]:
""" Fit the clusters for a given feature.
Arguments:
column (np.array): All the values for a single feature.
Returns:
The cluster centers for this feature.
"""
column = np.sort(column)
distinct_counter = counter(column)
max_clusters = sum(min(count, self.__min_cluster_size) for count in distinct_counter.values()) // \
self.__min_cluster_size
for num_clusters in range(max_clusters, 0, -1):
clustering = KMeansConstrained(n_clusters = num_clusters, size_min = self.__min_cluster_size,
random_state = self.__random_generator)
clusters = clustering.fit_predict(column[:, np.newaxis])
if self.__correct_clustering(column, clusters):
return self.__cluster_centers(column, clusters)
def train_classifier(classifier, cache, classifier_cache=None):
"""
Train classifier with word2vec feature
:param classifier: classifier
:param cache: new cache path
:param classifier_cache: path of classifier cache
"""
if not classifier_cache:
classifier_cache = get_classifier_cache(classifier)
start_time = datetime.now()
logger.info('Start training classifier: {}'.format(start_time))
area_codes, feat = load_cache(cache,
__CACHE_KEY_AREA_CODES__,
__CACHE_KEY_FEATURE__)
area_counter = counter(area_codes)
logger.info('Training with {} samples'.format(len(area_codes)))
logger.info('Area count: \n{}\n{}'.format(area_counter.keys(),
area_counter.values()))
encode_path = get_encoder_cache(len(area_counter.keys()))
if os.path.exists(encode_path):
label_encoder = pickle.load(open(encode_path, 'rb'))
logger.info('load label_encoder from {}'.format(encode_path))
else:
label_encoder = LabelEncoder()
label_encoder.fit(area_codes)
pickle.dump(label_encoder, open(encode_path, 'wb'))
logger.info('dump label encoder to {}'.format(encode_path))
labels = label_encoder.transform(area_codes)
classifier.fit(feat, labels)
joblib.dump(classifier, classifier_cache)
logger.info('classifier dump to: {}'.format(classifier_cache))
end_time = datetime.now()
logger.info('End training classifier: {}'.format(end_time))
logger.info('Time elapsed: {}s'.format(
(end_time - start_time).total_seconds()))
for line in f:
timeslot += 1
line = line.strip()
line = line.split(' ')
if len(line) == 1:
userId = line[0].split('-')[1]
usersLocations[userId] = []
runningLocation = None
elif (line[1], line[2]) == runningLocation:
pass
else:
runningLocation = (line[1], line[2])
usersLocations[userId].append(runningLocation)
for k in usersLocations.keys():
usersLocations[k] = counter(usersLocations[k])
############### Simulation Analysis Over ###############
print usersLocations.keys()[0]
print usersLocations.keys()[1]
user1Locations = []
with open('user1.txt', 'r') as f:
l = f.readline()
l = l.strip()
l = l.split(' ')
totalDays = 0
print 'User 1:'
print l[0]
user1 = l[0]
from collections import Counter as counter
flexOptions = []
urban = []
urbansize = []
urbrur = []
with open('../../Data/NHTS/Unused_PERV2PUB.CSV', 'r') as f:
header = f.readline()
header = header.strip()
header = header.split(',')
#print header.index('FLEXTIME') # 40
print header.index('URBAN')
print header.index('URBRUR')
print header.index('URBANSIZE')
for line in f:
line = line.strip()
line = line.split(',')
flexOptions.append(int(line[40]))
urban.append(int(line[87]))
urbansize.append(int(line[88]))
urbrur.append(int(line[89]))
c = counter(flexOptions)
c1 = counter(urban)
c2 = counter(urbansize)
c3 = counter(urbrur)
urbanFlexOptions = [flexOptions[i] for i in range(len(flexOptions)) if urbrur[i]==1]
def sets(player):
values = [int(k[:-1]) for k in player]
values_counter = counter(values).items()
values_counter.sort(key = lambda values: values[1])
return values_counter
from urllib import urlopen
from bs4 import BeautifulSoup
site = urlopen("https://www.google.co.uk/finance").read()
soup = BeautifulSoup(site)
text = (soup.get_text())
from collections import counter
cnt = counter(text)
from urllib import urlopen
from bs4 import BeautifulSoup
site = urlopen("https://www.google.co.uk/finance").read()
soup = BeautifulSoup(site)
text = (soup.get_text())
from collections import counter
cnt = counter(text)
for train_id in train: #check it against the info for every training instance
train_instance = train[train_id]
train_label = train_instance[0]
labels.add(train_label)
train_counts = train_instance[1]
train_features = set(train_counts.keys())
shared = test_features.intersection(train_features)
if similarity == 1: # Euclidian distance measure
nearest.append((train_label, euclidian(train_counts, test_counts, train_features, test_features, shared, train_id, test_id)))
else: # Cosine distance measure
nearest.append((train_label, cosine(train_counts, test_counts, shared, train_id, test_id)))
if similarity == 1: # If Euclidian
nearest = sorted(nearest, key=itemgetter(1))[:int(k_val)]
else: # If cosine
nearest = sorted(nearest, key=itemgetter(1), reverse=True)[:int(k_val)]
projected_label = counter(item[0] for item in nearest).most_common(1)[0][0]
test_confusion_matrix[test_label][projected_label] += 1
sys_output.write("".join(["test:", str(instance_number), "\t", test_label, "\t"]))
instance_number += 1
# print the labels and votes to the sys_output
votes = defaultdict(int)
for tup in nearest:
votes[tup[0]] += 1
for c in labels:
sys_output.write("\t"+c+"\t"+str(votes[c]))
sys_output.write("\n")
#print the confusion matrix
print_matrix(test_confusion_matrix)
from decimal import *
import csv
from number import numberOf
from collections import counter
code=csv.reader(open('zipCodes.csv'),delimiter=',')
bor= csv.reader(open('boroughs.csv'),delimiter=',')
zipIncident= csv.reader(open('Incidents.csv'),delimiter=',')
zipIncident.next ()
cities = [row[1] for row in zipIncident]
freq=[]
for (x,y) in counter (cities).iteritems():
freq.append((x,y))
zip_pop= []
code.next()
for row in code:
zip_pop.append ((row[1],row[10]))
zip_boroughs=[]
bor.next()
for row in bor:
zip_boroughs.append((row[0],row[1]))
#
incidents = dict(freq)
population = dict(zip_pop)
borough = dict(zip_boroughs)
user2ObsLocationCount.append([])
loc = (float(l[4]), float(l[5]))
user2ObsLocationCount[-1].append(loc)
user2ObsTripDistances.append(loc)
runningDay = day
runningTime = time
totalDays += numdays
if totalDays>=14:
break
user2ObsLocationCount = [len(set(x)) for x in user2ObsLocationCount]
user2ObsTripDistances = getTripDistances(user2ObsTripDistances)
# Plots for Number of locations visited
c1_count = counter(user1ObsLocationCount)
total = sum(c1_count.values())
for k in c1_count:
c1_count[k] = float(c1_count[k])/total
c1_simCount = counter(usersDailyLocationCount[user1])
total = sum(c1_simCount.values())
for k in c1_simCount:
c1_simCount[k] = float(c1_simCount[k])/total
c2_count = counter(user2ObsLocationCount)
total = sum(c2_count.values())
for k in c2_count:
c2_count[k] = float(c2_count[k])/total
c2_simCount = counter(usersDailyLocationCount[user2])
plt.xlabel('Time of day (hrs)')
plt.ylabel('Duration of activity (hrs)')
plt.title('"Other" activity characteristics indicated by CDR')
plt.savefig('3_Other')
plt.close()
# Categorize beginning timestamps of work in 10 minute windows and plot
divisor = 1.0/6
bucketedTimestamps = [None for x in workBeginTimestamps]
for i in range(len(workBeginTimestamps)):
bucketedTimestamps[i] = workBeginTimestamps[i] - \
workBeginTimestamps[i]%divisor
c = counter(bucketedTimestamps)
x1 = c.keys()
y1 = c.values()
x = [a for (a,b) in sorted(zip(x1,y1))]
y = [b for (a,b) in sorted(zip(x1,y1))]
sumY = float(sum(y))
pOfY = [yy/sumY for yy in y]
plt.plot(x, pOfY)
plt.xlabel('Start Time [h]')
plt.ylabel('Frequency')
plt.xticks(range(0,25,6))
plt.xlim(0,24)
plt.savefig('StartTimeFrequency')
stopped_tokens = [i for i in tokens if not i in en_stop]
# stem tokens
stemmed_tokens = [p_stemmer.stem(i) for i in stopped_tokens]
# add tokens to list
texts.append(stemmed_tokens)
texts_final = []
for i in texts:
for j in range(len(i) - 1):
#print (i[j])
texts_final.append(i[j] + '_' + i[j+1])
#texts_final.append(text_temp)
texts_final = counter(texts_final)
dictWords = texts_final.most_common()
texts_final = pd.DataFrame(dictWords)
texts_final.to_csv('WordCount_gent.csv',encoding='utf-8')
# In[23]:
def char_ldamodel(reviewList):
corpus = create_corpus(reviewList)
ldamodel = gensim.models.ldamodel.LdaModel(corpus, num_topics=10, id2word = dictionary, passes=num_passes)
return ldamodel
plt.xlabel('Time of day (hrs)')
plt.ylabel('Duration of activity (hrs)')
plt.title('"Work" activity characteristics indicated by MASS')
plt.savefig('../../Figures/TSvsDur_MASS_Cont')
plt.close()
totalCount = 0
for c in counts:
for x in c:
totalCount+=x
with open('../../ProcessedData/TSvsDur_MASS.txt', 'w') as f:
for c in counts:
l = [str(x/totalCount) for x in c]
l = ' '.join(l)
f.write(l+'\n')
roundedStartTimes = [round(x) for x in arrivalTimes]
c = counter(roundedStartTimes)
total = len(arrivalTimes)
count24 = c.pop(24)
c[0] += count24
with open('../../ProcessedData/TSvsDurHrPerc_Mass.txt', 'w') as f:
for k in sorted(c.keys()):
f.write(str(k)+ ' ' + str(100*float(c[k])/total)+'\n')
for line in f:
line = line.strip()
line = line.split(' ')
if line[2]=='1':
numWorkers+=1
if line[9]=='1':
numWorking+=1
startTime = float(line[10])
endTime = startTime+float(line[11])
startTimes.append(startTime)
endTimes.append(endTime)
startTimes = [int(x/6) for x in startTimes]
endTimes = [int(x/6) for x in endTimes]
c1 = counter(startTimes)
c2 = counter(endTimes)
x = range(24)
y = [0]
for t in x:
working = y[-1]+c1[t]-c2[t]
y.append(float(working))
y = y[1:]
y = [yy/numWorking for yy in y]
plt.plot(x,y)
plt.xlabel('Time of day')
plt.ylabel('Fraction of active workers')
plt.xlim(0,24)
def isDrift(line):
minStrains = 2
return sorted(counter(line).items(), key=lambda x: x[1], reverse=True)[1][1] <= minStrains #this last value is the number of required strains + 1
allWorkersWorkDays.extend(workDays)
workDays = []
else:
continue
if workerBeingProcessed == 1:
workerBeingProcessed = 0
workersProcessed += 1
worker = workers[workersProcessed]
workDays = list(set(workDays))
allWorkersWorkDays.extend(workDays)
workDays = []
print workersProcessed
c = counter(allWorkersWorkDays)
k = [x for (x, y) in sorted(zip(c.keys(), c.values()))]
v = [y for (x, y) in sorted(zip(c.keys(), c.values()))]
d = [x.weekday() for x in k]
for i in range(len(d)):
if d[i] == 0:
d[i] = "M"
elif d[i] == 1:
d[i] = "T"
elif d[i] == 2:
d[i] = "W"
elif d[i] == 3:
d[i] = "T"
elif d[i] == 4:
d[i] = "F"
def readGenome(filename):
genome = ''
with open(filename, 'r') as f: #opened as read only
for line in f:
if not line[0] == '>':
genome += line.rstrip()
return genome
genome = readGenome('lambda_virus.fa')
counts = {'A':0, 'C':0, 'G':0, 'T':0, 'N':0}
for base in genome:
counts[base] +=1
print (counts)
import collections
collections.counter(genome)
!wget --no-check https://d28rh4a8wq0iu5.cloudfront.net/ads1/data/SRR835775_1.first1000.fastq
def readFastq(filename):
sequences = []
qualities = []
with open(filename) as fh:
while True:
fh.readline()
seq = fh.readline().rstrip()
fh.readline()
qual = fh.readline().rstrip()
if len(seq) == 0:
break
sequences.append(seq)
qualities.append(qual)
# initialize and load in data
grammar = defaultdict(list)
train = open(train).read().strip().split("\n")
sentences = open(sentences, 'r').read().strip().split("\n")
for s in train:
for rule in Tree(s).productions():
grammar[rule.lhs()].append(rule.rhs())
# create pcfg the key is the lhs of the rule,
# the value is a dictionary where the key is a tuple of the RHS
# and the value is the prob for that RHS
pcfg = defaultdict(dict)
for left in grammar:
for k, v in counter(grammar[left]).most_common():
pcfg[left][k] = v/float(len(grammar[left]))
inversePCFG = defaultdict(list)
for key in pcfg:
for value in pcfg[key]:
inversePCFG[value].append((key, pcfg[key][value]))
#output trained grammar
grammar_out = open(grammar_out, 'w')
for left in pcfg:
for right in pcfg[left]:
grammar_out.write(" ".join([str(left), "->", " ".join([str(item) for item in right]), "["+str(pcfg[left][right])+"]", "\n"]))
grammar_out.close()
from sklearn.cluster import DBSCAN
from sklearn import metrics
from sklearn.datasets.samples_generator import make_blobs
from sklearn.preprocessing import StandardScaler
data = np.array(X)
db = DBSCAN(eps=0.25, min_samples=80).fit(data)
core_samples = db.core_sample_indices_
labels = db.labels_
numClusters = len(set(labels)) - (1 if -1 in labels else 0)
previousClusterCount = numClusters
clusters = [labels == k for k in xrange(numClusters)]
from collections import Counter as counter
print counter(labels)
def getDbscanColor(label):
if label=='2':
return 'g'
elif label=='0':
return 'b'
elif label=='1':
return 'r'
elif label=='-1':
return 'k'
elif label=='3':
return 'orange'
elif label=='4':
return 'magenta'
m = startTime%100
h = startTime/100
startTime = h + float(m)/60
dwellTime = float(line[89])/60
if dwellTime>=0 and startTime>0: # Considering work longer than 2 hour
dwellTimesHbo.append(dwellTime)
startTimesHbo.append(startTime)
f.close()
startTimesNhb = [int(x) for x in startTimesNhb]
startTimesHbo = [int(x) for x in startTimesHbo]
startTimesHbw = [int(x) for x in startTimesHbw]
hourlyCountNhb = counter(startTimesNhb)
hourlyCountHbo = counter(startTimesHbo)
hourlyCountHbw = counter(startTimesHbw)
plt.xlim(0,24)
x1 = sorted(hourlyCountNhb.keys())
y1 = [hourlyCountNhb[x] for x in sorted(hourlyCountNhb.keys())]
x2 = sorted(hourlyCountHbo.keys())
y2 = [hourlyCountHbo[x] for x in sorted(hourlyCountHbo.keys())]
x3 = sorted(hourlyCountHbw.keys())
y3 = [hourlyCountHbw[x] for x in sorted(hourlyCountHbw.keys())]
plt.plot(x1, y1, color='b', marker='o', label='NHB')
plt.plot(x2, y2, color='r', marker='o', label='HBO')
for t in tractInfo:
for i in range(len(timeIntervals)):
if t[1] <= timeIntervals[i][0] and t[2] >= timeIntervals[i][1]:
occupancy[i] += 1
if t[0] == "h":
if t[1] <= timeIntervals[i][0] and t[2] >= timeIntervals[i][1]:
occupancyHome[i] += 1
elif t[0] == "w":
if t[1] <= timeIntervals[i][0] and t[2] >= timeIntervals[i][1]:
occupancyWork[i] += 1
elif t[0] == "o":
if t[1] <= timeIntervals[i][0] and t[2] >= timeIntervals[i][1]:
occupancyOther[i] += 1
occupantType = [t[0] for t in tractInfo]
c = counter(occupantType)
xCoords = [t[0] for t in timeIntervals]
plt.plot(xCoords, occupancy, color="b", label="Total")
plt.plot(xCoords, occupancyHome, color="r", label="Home")
plt.plot(xCoords, occupancyWork, color="g", label="Work")
plt.plot(xCoords, occupancyOther, color="orange", label="Other")
plt.legend(loc="lower left", prop={"size": 11})
plt.xlabel("Time of day (hours)")
plt.ylabel("Tract Occupancy")
plt.title("Occupancy profile for tract " + TRACT)
plt.savefig(TRACT)
plt.close()
[c, l] = tractColorAndLabel(tractInfo[tract])#Info[tract]/maxExpFactor
x = tractShape[tract][0]
y = tractShape[tract][1]
plt.fill(x,y,color=str(c), label=l if l not in addedLabels else '')
found+=1
plottedExpFactors.append(tractInfo[tract])
if l not in addedLabels:
addedLabels.append(l)
except:
notFound+=1
plt.legend(loc='lower left', prop={'size':11})
plt.savefig('censusTractExpansionFactors', dpi=500)
plt.close()
expansionFactors = tractInfo.values()
#int5ExpansionFactors = [x-x%5 for x in expansionFactors if x<250]
int5ExpansionFactors = [x-x%5 for x in plottedExpFactors if x<250 and x>0]
c = counter(int5ExpansionFactors)
k = c.keys()
v = c.values()
x = [X for (X,Y) in sorted(zip(k,v))]
y = [Y for (X,Y) in sorted(zip(k,v))]
total = sum(y)
y = [float(a)/total for a in y]
plt.plot(x, y, marker='o')
plt.xlabel('Expansion factor, f')
plt.ylabel('P(f)')
plt.savefig('pdfExpansionFactors')
plt.close()