class TestReferences:
def __init__(self, docsdir, refsdir):
self._docsdir = docsdir
self._refsdir = refsdir
self._skipped = get_skipped_tests(docsdir)
self._test = Test()
self.config = Config()
self.printer = get_printer()
try:
os.makedirs(self._refsdir)
except OSError as e:
if e.errno != errno.EEXIST:
raise
except:
raise
def create_refs_for_file(self, filename, n_doc = 1, total_docs = 1):
if filename in self._skipped:
self.printer.print_default("Skipping test '%s' (%d/%d)" % (os.path.join(self._docsdir, filename), n_doc, total_docs))
return
refs_path = os.path.join(self._refsdir, filename)
try:
os.makedirs(refs_path)
except OSError as e:
if e.errno != errno.EEXIST:
raise
except:
raise
doc_path = os.path.join(self._docsdir, filename)
if not self.config.force and self._test.has_results(refs_path):
self.printer.print_default("Results found, skipping '%s' (%d/%d)" % (doc_path, n_doc, total_docs))
return
self.printer.printout_ln("Creating refs for '%s' (%d/%d)" % (doc_path, n_doc, total_docs))
if self._test.create_refs(doc_path, refs_path):
self._test.create_checksums(refs_path, self.config.checksums_only)
def create_refs(self):
docs, total_docs = get_document_paths_from_dir(self._docsdir)
n_doc = 0
for doc in docs:
n_doc += 1
self.create_refs_for_file(doc, n_doc, total_docs)
def train(self):
print "[INFO] Training .."
grad_history = np.zeros(self.num_parameters)
theta = self.theta_init
# Loop over epochs
for epochid in range(self.max_epochs):
# create a shuffled copy of the data
X_shuffled = random.sample(self.X_train, self.num_data)
# reset grad history per each epoch
grad_history = np.zeros(self.num_parameters)
# Loop over batches
for batch_id in range(self.num_batches):
start_i = batch_id * self.batch_size
end_i = (batch_id+1) * self.batch_size
if end_i + self.batch_size > self.num_data:
end_i = self.num_data
X_batch = X_shuffled[start_i:end_i]
theta, grad_history = self.trainOneBatch(
theta, X_batch, grad_history, batch_id)
print "Finished epoch %d." % epochid
# Save the model at every 5 epochs
if epochid % self.epoch_save_freq == 0:
filename = "optResult-RNTN-" + \
time.strftime("%Y%m%d-%H%M%S") + "-epoch-" + str(epochid)
with open(filename, 'wb') as output:
pickle.dump(theta, output, -1)
# Evaluate on train, test set
testObj_train = Test(self.dictionary, self.X_train)
tree_accuracy_train, root_accuracy_train = testObj_train.test(theta)
print "[Train accuracy] tree: %.2f, root: %.2f" %\
(tree_accuracy_train, root_accuracy_train)
# Test on test data
testObj_test = Test(self.dictionary, self.X_test)
tree_accuracy_test, root_accuracy_test = testObj_test.test(theta)
print "[Test accuracy] tree: %.2f, root: %.2f" %\
(tree_accuracy_test, root_accuracy_test)
sys.stdout.flush()
return theta
def __init__(self, docsdir, refsdir):
self._docsdir = docsdir
self._refsdir = refsdir
self._skipped = get_skipped_tests(docsdir)
self._test = Test()
self.config = Config()
self.printer = get_printer()
try:
os.makedirs(self._refsdir)
except OSError as e:
if e.errno != errno.EEXIST:
raise
except:
raise
def __init__(self, docsdir, refsdir, outdir):
self._docsdir = docsdir
self._refsdir = refsdir
self._outdir = outdir
self._skipped = get_skipped_tests(docsdir)
self._test = Test()
self.config = Config()
self.printer = get_printer()
# Results
self._n_tests = 0
self._n_passed = 0
self._failed = []
self._crashed = []
self._failed_status_error = []
self._stderr = []
try:
os.makedirs(self._outdir);
except OSError as e:
if e.errno != errno.EEXIST:
raise
except:
raise
# https://www.codewars.com/kata/a-wolf-in-sheeps-clothing/train/python
from Test import Test
def warn_the_sheep(queue):
if (queue[-1] == 'wolf'):
return 'Pls go away and stop eating my sheep'
else:
return 'Oi! Sheep number {}! You are about to be eaten by a wolf!'.format(
len(queue) - (queue.index('wolf') + 1))
test = Test()
test.assert_equals(
warn_the_sheep([
'sheep', 'sheep', 'sheep', 'sheep', 'sheep', 'wolf', 'sheep', 'sheep'
]), 'Oi! Sheep number 2! You are about to be eaten by a wolf!')
test.assert_equals(
warn_the_sheep(
['sheep', 'wolf', 'sheep', 'sheep', 'sheep', 'sheep', 'sheep']),
'Oi! Sheep number 5! You are about to be eaten by a wolf!')
test.assert_equals(
warn_the_sheep(
['wolf', 'sheep', 'sheep', 'sheep', 'sheep', 'sheep', 'sheep']),
'Oi! Sheep number 6! You are about to be eaten by a wolf!')
test.assert_equals(warn_the_sheep(['sheep', 'wolf', 'sheep']),
'Oi! Sheep number 1! You are about to be eaten by a wolf!')
test.assert_equals(warn_the_sheep(['sheep', 'sheep', 'wolf']),
'Pls go away and stop eating my sheep')
from Test import Test, Test as test
'''
Implement a function which convert the given boolean value into its string representation.
Note: Only valid inputs will be given.
'''
def boolean_to_string(b):
return f'{b}'
test.assert_equals(boolean_to_string(True), "True")
test.assert_equals(boolean_to_string(False), "False")
def __init__(self, dock): Test.__init__(self, "Test modules", dock)
# but WITHOUT ANY WARRANTY; without even the implied warranty of # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from socket import * from json import * from Test import Test test = Test() s1 = socket(AF_INET, SOCK_STREAM) s1.connect(("0.0.0.0", 20000)) data = test.send(s1, '{"op":"start","params":["single","None","None"]}') data = loads(data) gameid = data['gameid'] print gameid test.send(s1, '{"op":"play","params":["setdepth",%d]}' % (1,)) test.send(s1, '{"op":"play","params":["nextmove","%s","%s"]}' % ('White', 'e2 e4')) test.send(s1, '{"op":"play","params":["changemode","%s"]}' % ('multi',))
# This program is distributed in the hope that it will be useful, # but WITHOUT ANY WARRANTY; without even the implied warranty of # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from socket import * from Test import Test test = Test() s1 = socket(AF_INET, SOCK_STREAM) s1.connect(("0.0.0.0", 20000)) test.send(s1, '{"op":"start","params":["single","easy","None"]}') test.send(s1, '{"op":"play","params":["setdepth","1"]}') test.send(s1, '{"op":"play","params":["nextmove","%s","%s"]}' % ('White', 'e2 e4')) test.send(s1, '{"op":"play","params":["save","%s"]}' % 'pgnfile') test.send(s1, '{"op":"play","params":["history"]}') test.send(s1, '{"op":"play","params":["quit"]}') s2 = socket(AF_INET, SOCK_STREAM) s2.connect(("0.0.0.0", 20000))
def setUp(self):
"""Call before every test case."""
self.parser = Parser()
self.test = Test()
def __init__(self):
self.name = "LogTest"
Test.__init__(self)
rep = map(lambda x: x in pair[1], pair[0])
if any(rep) == False:
max_length = max(max_length, len(pair[1]) * len(pair[0]))
return max_length
def maxProduct_v2(words: List[str]) -> int:
iterations = 0
max_length = 0
s = set()
for w1 in words:
for w2 in words:
if w1 is w2 or (w1, w2) in s or (w2, w1) in s:
continue
iterations += 1
rep = map(lambda x: x in w2, w1)
if any(rep) == False:
max_length = max(max_length, len(w1) * len(w2))
s.add((w1, w2))
return max_length
def maxProduct_v3(words: List[str]) -> int:
pass
Test.assert_equals(maxProduct(["abcw", "baz", "foo", "bar", "xtfn", "abcdef"]),
16)
Test.assert_equals(maxProduct(["a", "ab", "abc", "d", "cd", "bcd", "abcd"]), 4)
Test.assert_equals(maxProduct(["a", "aa", "aaa", "aaaa"]), 0)
def __init__(self, dock):
self.exe = config.exe1
self.wmclass = config.wmclass1
self.desktop_file = config.desktop_file1
Test.__init__(self, "Test launcher", dock)
from Test import Test, Test as test
'''
Trolls are attacking your comment section!
A common way to deal with this situation is to remove all of the vowels from the trolls' comments, neutralizing the threat.
Your task is to write a function that takes a string and return a new string with all vowels removed.
For example, the string "This website is for losers LOL!" would become "Ths wbst s fr lsrs LL!".
Note: for this kata y isn't considered a vowel.
'''
def disemvowel(string):
return ''.join(x for x in string if x.lower() not in ('a','e','i','o','u'))
def disemvowel(string):
return ''.join(x for x in string if x.lower() not in ('aeiou'))
def disemvowel(string):
return string.translate(string.maketrans('','','aeiouAEIOU'))
test.assert_equals(disemvowel("This website is for losers LOL!"), "Ths wbst s fr lsrs LL!")
from Test import Test, Test as test
'''
You take your son to the forest to see the monkeys. You know that there are a certain number there (n), but your son is too young to just appreciate the full number, he has to start counting them from 1.
As a good parent, you will sit and count with him. Given the number (n), populate an array with all numbers up to and including that number, but excluding zero.
For example:
monkeyCount(10) # --> [1, 2, 3, 4, 5, 6, 7, 8, 9, 10]
monkeyCount(1) # --> [1]
'''
def monkey_count(n):
return [i for i in range(1, n + 1)]
# Top solution
def monkey_count(n):
return range(1, n + 1)
Test.describe("Basic tests")
Test.assert_equals(monkey_count(5), [1, 2, 3, 4, 5])
Test.assert_equals(monkey_count(3), [1, 2, 3])
Test.assert_equals(monkey_count(9), [1, 2, 3, 4, 5, 6, 7, 8, 9])
Test.assert_equals(monkey_count(10), [1, 2, 3, 4, 5, 6, 7, 8, 9, 10])
Test.assert_equals(
monkey_count(20),
[1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15, 16, 17, 18, 19, 20])
persistence(999) => 4 # Because 9*9*9 = 729, 7*2*9 = 126,
# 1*2*6 = 12, and finally 1*2 = 2.
persistence(4) => 0 # Because 4 is already a one-digit number.
persistence(39) # returns 3, because 3*9=27, 2*7=14, 1*4=4
# and 4 has only one digit
persistence(999) # returns 4, because 9*9*9=729, 7*2*9=126,
# 1*2*6=12, and finally 1*2=2
persistence(4) # returns 0, because 4 is already a one-digit number
'''
def persistence(n):
count = 0
while len(str(n)) > 1:
prod = 1
for i in str(n):
prod *= int(i)
n = prod
count += 1
return count
Test.assert_equals(persistence(39), 3)
Test.assert_equals(persistence(4), 0)
Test.assert_equals(persistence(25), 2)
Test.assert_equals(persistence(999), 4)
def __init__(self):
self.name = "LoggingTimerLogTimeTest"
Test.__init__(self)
quoting=csv.QUOTE_ALL)
raw_writer = csv.DictWriter(raw_output,
fieldnames=raw_fieldnames,
quoting=csv.QUOTE_ALL)
# Write csv headers for both files
summary_writer.writeheader()
raw_writer.writeheader()
company_count = 1
for name in company_names:
endpoint = '/company?id={}&start_date=2018-01-01T00:00:00.000Z&end_date=2018-02-01T00:00:00.000Z&stats=name,fan_count,description,website,post_message,post_type,post_created_time,post_like_count,post_comment_count'.format(
company_names[name]['fbid'])
url = MOOSE_ROOT + endpoint
t = Test(company_names[name]['code'], name, MOOSE_ROOT, endpoint)
for run_count in range(1, NUM_RUNS + 1):
print("COMPANY {}/{} | {} - RUN: {}/{} | {}".format(
company_count, len(company_names), name, run_count, NUM_RUNS,
endpoint))
r = requests.get(url)
if r:
# print(json.dumps(r.json(), indent=2))
t.responses.append(r)
raw_writer.writerow(t.gen_response_row(r))
summary_writer.writerow(t.summarise(check_ok_status=False))
company_count += 1
def __init__(self, dock): self.mgr = 'Docks' self.dt = .2 # time to update the dock size Test.__init__(self, "Test Docks", dock)
from Test import Test, Test as test
'''
Given an array of integers, return a new array with each value doubled.
For example:
[1, 2, 3] --> [2, 4, 6]
For the beginner, try to use the map method - it comes in very handy quite a lot so is a good one to know.
'''
def maps(a):
return [i * 2 for i in a]
test.describe("Sample tests")
test.assert_equals(maps([1, 2, 3]), [2, 4, 6])
test.assert_equals(maps([0, 1, 2, 3, 4, 5, 6, 7, 8, 9]),
[0, 2, 4, 6, 8, 10, 12, 14, 16, 18])
test.assert_equals(maps([]), [])
def instantiate_test(self, alignment, record):
"""
Create a test instance, populate the attributes, and append it to the test list
:param alignment:
:param record
"""
test = Test()
pdb_id = ParseAlignment.get_alignment_pdb_id(alignment)
chain_id = ParseAlignment.get_alignment_pdb_chain(alignment)
# set the pdb_id
test.set_pdb_id(pdb_id)
# determine coverage & identity
coverage, identity = ParseAlignment.coverage_and_identity(alignment, record)
# set the test sequence
test.set_sequence(pdb_id, chain_id)
# set the coverage & identity values
test.set_coverage(coverage)
test.set_identity(identity)
# get the experimental method
test.set_expt_method()
# parse the pdb and pull out the resolution
test.set_resolution()
# parse the pdb and pull ligand information
test.set_ligands()
self.test_list.append(test)
class TestReferences:
def __init__(self, docsdir, refsdir):
self._docsdir = docsdir
self._refsdir = refsdir
self._skipped = get_skipped_tests(docsdir)
self._test = Test()
self.config = Config()
self.printer = get_printer()
self._total_tests = 1
self._n_tests = 0
self._queue = Queue()
self._lock = RLock()
try:
os.makedirs(self._refsdir)
except OSError as e:
if e.errno != errno.EEXIST:
raise
except:
raise
def create_refs_for_file(self, filename):
if filename in self._skipped:
with self._lock:
self._n_tests += 1
self.printer.print_default("Skipping test '%s'" % (os.path.join(self._docsdir, filename)))
return
refs_path = os.path.join(self._refsdir, filename)
try:
os.makedirs(refs_path)
except OSError as e:
if e.errno != errno.EEXIST:
raise
except:
raise
doc_path = os.path.join(self._docsdir, filename)
if not self.config.force and self._test.has_results(refs_path):
with self._lock:
self._n_tests += 1
self.printer.print_default("Results found, skipping '%s'" % doc_path)
return
if self._test.create_refs(doc_path, refs_path):
self._test.create_checksums(refs_path, self.config.checksums_only)
with self._lock:
self._n_tests += 1
self.printer.printout_ln("[%d/%d] %s: done" % (self._n_tests, self._total_tests, doc_path))
def _worker_thread(self):
while True:
doc = self._queue.get()
self.create_refs_for_file(doc)
self._queue.task_done()
def create_refs(self):
docs, total_docs = get_document_paths_from_dir(self._docsdir)
self._total_tests = total_docs
self.printer.printout_ln('Found %d documents' % (total_docs))
self.printer.printout_ln('Process %d using %d worker threads' % (os.getpid(), self.config.threads))
self.printer.printout_ln()
self.printer.printout('Spawning %d workers...' % (self.config.threads))
for n_thread in range(self.config.threads):
thread = Thread(target=self._worker_thread)
thread.daemon = True
thread.start()
for doc in docs:
self._queue.put(doc)
self._queue.join()
def main():
parser = Parser(True)
# Tokenize the data
parser.tokenize("src/europarl-v7.es-en.es")
parser.tokenize("src/europarl-v7.es-en.en")
parser.tokenize("src/europarl-v7.fr-en.en")
parser.tokenize("src/europarl-v7.fr-en.fr")
# Normalize the data
parser.cleanse("data/europarl-v7.es-en.es.tok", "data/europarl-v7.es-en.en.tok")
parser.cleanse("data/europarl-v7.fr-en.en.tok", "data/europarl-v7.fr-en.fr.tok")
# Split data into train, tune, test sets
parser.split_train_tune_test("data/europarl-v7.es-en.es.tok.cleansed", "data/europarl-v7.es-en.en.tok.cleansed",
"data/europarl-v7.fr-en.en.tok.cleansed", "data/europarl-v7.fr-en.fr.tok.cleansed", .6, .2)
parser.match("data/test/europarl-v7.es-en.es.tok.cleansed.test", "data/test/europarl-v7.es-en.en.tok.cleansed.test",
"data/test/europarl-v7.fr-en.en.tok.cleansed.test", "data/test/europarl-v7.fr-en.fr.tok.cleansed.test")
trainer = Train(True)
# Build target language models
trainer.build_language_models("data/train/europarl-v7.es-en.en.tok.cleansed.train")
trainer.build_language_models("data/train/europarl-v7.fr-en.fr.tok.cleansed.train")
# Train each leg of the translation system
trainer.train("data/train/europarl-v7.es-en.es.tok.cleansed.train",
"data/train/europarl-v7.es-en.en.tok.cleansed.train", "es-en.working")
trainer.train("data/train/europarl-v7.fr-en.en.tok.cleansed.train",
"data/train/europarl-v7.fr-en.fr.tok.cleansed.train", "en-fr.working")
# Tune the system on held out data
tuner = Tune(True)
tuner.tune("data/tune/europarl-v7.es-en.es.tok.cleansed.tune",
"data/tune/europarl-v7.es-en.en.tok.cleansed.tune", "es-en.working")
tuner.tune("data/tune/europarl-v7.fr-en.en.tok.cleansed.tune",
"data/tune/europarl-v7.fr-en.fr.tok.cleansed.tune", "en-fr.working")
test = Test(True)
# Run interactive translator server
test.test_translator_interactive("es-en.working")
test.test_translator_interactive("en-fr.working")
# Score translation quality between pivot translations using held out test data
test.test_translation_quality("data/test/europarl-v7.es-en.es.tok.cleansed.test",
"data/test/europarl-v7.es-en.en.tok.cleansed.test", "es-en.working")
test.test_translation_quality("data/test/europarl-v7.fr-en.en.tok.cleansed.test",
"data/test/europarl-v7.fr-en.fr.tok.cleansed.test", "en-fr.working")
# Run interactive translator on pivoting system
test.test_pivoting_interactive("es-en.working", "en-fr.working")
# Score translation quality on entire translation using matched test data
test.test_pivoting_quality("data/test/europarl-v7.es-en.es.tok.cleansed.test.matched",
"es-en.working", "data/test/europarl-v7.fr-en.fr.tok.cleansed.test.matched", "en-fr.working")
def get(self):
lat = float(self.request.get('lat'))
lon = float(self.request.get('lon'))
newtests = Test.query(lat, lon)
self.response.out.write(Utils.GqlEncoder().encode(newtests))
# This file is part of Checkmate. # # This program is free software: you can redistribute it and/or modify # it under the terms of the GNU General Public License as published by # the Free Software Foundation, either version 3 of the License, or # (at your option) any later version. # # This program is distributed in the hope that it will be useful, # but WITHOUT ANY WARRANTY; without even the implied warranty of # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from socket import * from Test import Test test = Test() s2 = socket(AF_INET, SOCK_STREAM) s2.connect(("0.0.0.0", 20000)) test.send(s2, '{"op":"connect", "color":"Black", "gameid":"%d"}' % 1) test.send(s2, '{"op":"kill"}')
def DTW(tf, nf):
len_t = len(tf) #预存语音梅谱帧数
len_n = len(nf) #实时语音梅谱帧数
vector_len = len(tf[0]) #特征向量长度
#print(len_t,' ',vector_len)
print("before:", len(tf), ',', len(nf), ',', vector_len)
if len_t > len_n:
for i in range(len_t - len_n):
nf = np.append(nf, [nf[len_n - 1]], axis=0)
len_n = len_t
elif len_t < len_n:
for i in range(len_n - len_t):
tf = np.append(tf, [tf[len_t - 1]], axis=0)
len_t = len_n
D = CalculateDistance(0, 0, tf, nf, vector_len) #起点距离
#d = []
#d.append(D)
i = 0
j = 0
#t =[1]
#n = [1]
#k = 0 #计数器，用来查看DTW的执行过程
max_size = 65535
min_size = 0
#print(len_t,',',len_n)
while (i <= len_n - 1 and j <= len_t - 1):
#if (j*2>=i and (2*(i-len_n+2)<=j-len_t+1) and i+1<len_n-1) :
if (j * 2 >= i and (2 * (i - len_n + 2) <= j - len_t + 1)
and i + 1 < len_n - 1):
D1 = CalculateDistance(i + 1, j, tf, nf, vector_len)
else:
D1 = max_size
#if (j<=2*i and (0.5*(i-len_n+1)>=(j-len_t+2)) and j+1 <len_n-1) :
if (j <= 2 * i and (i - len_n >= 2 * j - 2 * len_t + 1)
and j + 1 < len_n - 1):
D2 = CalculateDistance(i, j + 1, tf, nf, vector_len)
else:
D2 = max_size
if i + 1 <= len_n - 1 and j + 1 <= len_t - 1:
#print(j+1)
D3 = CalculateDistance(i + 1, j + 1, tf, nf, vector_len)
min_size = min(D1, D2, D3)
if min_size == D1:
i = i + 1
elif min_size == D2:
j = j + 1
elif min_size == D3:
i = i + 1
j = j + 1
D = D + min_size
Test.getCpu()
#d.append(min_size)
# k = k+1
#print(k,' ','( ',i,' ',j,' )' )
#x = [i for i in range(len(d))]
#plt.plot(x,d,label="distance")
#plt.legend()
#plt.show()
#print(D)
return D
# Esref Ozturk([email protected]) from random import randint from Checkmate import Checkmate from Test import Test bookmodes = ["worst", "best", "random"] a = Checkmate(mode="multi") # Be sure to download and extract http://ftp.gnu.org/gnu/chess/book_1.00.pgn.gz a.addbook("book_1.00.pgn") a.enablebook(enable=True) dummy = Test() while not a.isfinished(): a.setbookmode(bookmodes[randint(0, 2)]) move = a.hint() if move: a.nextmove(a.currentplayer(), move) else: break dummy.show(a) a.quit()
from Test import Test, Test as test
'''
We need a function that can transform a number into a string.
What ways of achieving this do you know?
Examples:
number_to_string(123) /* returns '123' */
number_to_string(999) /* returns '999' */
'''
def number_to_string(num):
return str(num)
test.assert_equals(number_to_string(67), '67')
def __init__(self, dock): self.mgr = 'Icons' self.dt = .3 # time to update the dock size Test.__init__(self, "Test Icons", dock)
from Test import Test
'''
Deoxyribonucleic acid (DNA) is a chemical found in the nucleus of cells and carries the "instructions" for the development and functioning of living organisms.
If you want to know more http://en.wikipedia.org/wiki/DNA
In DNA strings, symbols "A" and "T" are complements of each other, as "C" and "G". You have function with one side of the DNA (string, except for Haskell); you need to get the other complementary side. DNA strand is never empty or there is no DNA at all (again, except for Haskell).
More similar exercise are found here http://rosalind.info/problems/list-view/ (source)
DNA_strand ("ATTGC") # return "TAACG"
DNA_strand ("GTAT") # return "CATA"
'''
def DNA_strand(dna):
d = {'A': 'T', 'T': 'A', 'C': 'G', 'G': 'C'}
return ''.join([d[x] for x in dna])
# Top solution, use translate + maketrans
def DNA_strand(dna):
return dna.translate(str.maketrans("ATCG", "TAGC"))
Test.assert_equals(DNA_strand("AAAA"), "TTTT", "String AAAA is")
Test.assert_equals(DNA_strand("ATTGC"), "TAACG", "String ATTGC is")
Test.assert_equals(DNA_strand("GTAT"), "CATA", "String GTAT is")
from Test import Test
def array_plus_array(arr1,arr2):
return sum(arr1 + arr2)
Test.it("Basic test")
Test.assert_equals(array_plus_array([1, 2, 3], [4, 5, 6]), 21)
Test.assert_equals(array_plus_array([-1, -2, -3], [-4, -5, -6]), -21)
Test.assert_equals(array_plus_array([0, 0, 0], [4, 5, 6]), 15)
Test.assert_equals(array_plus_array([100, 200, 300], [400, 500, 600]), 2100)
from Core import Interface
from Core.Granularity import GranularityTemporal
from Core.Granularity import GranularityTimeInterval
from Core.Enum_Type import Enum_Type
from Metrics import MetricColumn
from Metrics.MetricExpressions import MetricExpressionNullValue
from Test import Test
from Test.TestOperations import TestOperationMayor
from Test.TestRepresentations import TestRepresentationPercentage
from Test.TestService import TestService
from Source.SourceBBDD import SourceHIVE
from Metrics import MetricService
#Test 1
column_metric_program = MetricExpressionNullValue(MetricColumn())
test_column_metric = Test(15, TestRepresentationPercentage(),
TestOperationMayor(), column_metric_program)
columns = [
Column('channel_id', Enum_Type.STRING, None),
Column('slot', Enum_Type.STRING, None),
Column('week', Enum_Type.STRING, None),
Column('genre_id', Enum_Type.STRING, None),
Column('duration', Enum_Type.STRING, None),
Column('subgenre_id', Enum_Type.STRING, None),
Column('user_id', Enum_Type.STRING, None),
Column('program_id', Enum_Type.STRING, column_metric_program),
Column('event_id', Enum_Type.STRING, None)
]
granularity = GranularityTemporal(2018, 3, 0, 11, None, None, None,
GranularityTimeInterval.DAY)
from Test import Test, Test as test
'''
Your task is to create a function that does four basic mathematical operations.
The function should take three arguments - operation(string/char), value1(number), value2(number).
The function should return result of numbers after applying the chosen operation.
Examples
basic_op('+', 4, 7) # Output: 11
basic_op('-', 15, 18) # Output: -3
basic_op('*', 5, 5) # Output: 25
basic_op('/', 49, 7) # Output: 7
'''
def basic_op(operator, value1, value2):
return eval(f'{value1} {operator} {value2}')
# Similar
def basic_op(operator, value1, value2):
return eval("{}{}{}".format(value1, operator, value2))
Test.describe("Basic tests")
Test.assert_equals(basic_op('+', 4, 7), 11)
Test.assert_equals(basic_op('-', 15, 18), -3)
Test.assert_equals(basic_op('*', 5, 5), 25)
Test.assert_equals(basic_op('/', 49, 7), 7)
def main():
testing = Test()
testing.testFunction()
interface = getUIChoice()
interface.menuInterface()
def main(fn):
# data= pd.read_csv("../data/kddcup.data_10_percent_corrected", names=cols)
data = pd.read_csv(fn, header=-1)
# data= remove_missing(data)
# data= impute_missing(data)
data = impute_missing2(data)
# Features to be used in classification
features = [x for x in range(1, len(data.columns))]
X = data[features]
y = data[0]
#h= TGaussianNB(X, y)
#h.run()
print("GaussianNB")
h = Test(X, y, GaussianNB())
h.run()
h.report(fn="../Report/results/cancer.gnb.cm.tex")
s = Search(X, y, GaussianNB(), [{}])
s.search()
s.report("../Report/results/cancer.gnb.tex")
print("DTree neu")
parameters = [{
'criterion': ['gini', 'entropy'],
'max_features': ['auto', 'sqrt', 'log2']
}]
s = Search(X, y, DTree(), parameters)
s.search()
s.report("../Report/results/cancer.dt.tex")
h = Test(X, y,
DTree(max_features='log2', criterion='gini', random_state=1234))
h.run()
h.report(fn="../Report/results/cancer.dt.cm.tex")
print("RF")
parameters = [{
'n_estimators': range(1, 15),
'criterion': ['gini', 'entropy'],
'max_features': ['auto', 'sqrt', 'log2']
}]
s = Search(X, y, RandomForestClassifier(), parameters)
s.search()
s.report("../Report/results/cancer.rf.tex", )
h = Test(
X, y,
RandomForestClassifier(n_estimators=6,
criterion='gini',
max_features='sqrt',
random_state=1234))
h.run()
h.report(fn="../Report/results/cancer.rf.cm.tex")
parameters = [{
'kernel': ['linear', 'sigmoid', 'rbf', 'poly'],
'C': [0.1, 1, 10, 11, 20]
}]
print("SVM")
from sklearn import preprocessing
X_scaled = preprocessing.scale(X)
s = Search(X_scaled, y, SVC(), parameters)
s.search()
s.report("../Report/results/cancer.svm.tex")
h = Test(X, y, SVC(C=11, kernel='poly'))
h.run()
h.report(fn="../Report/results/cancer.svm.cm.tex")
print("KNeighborsClassifier")
parameters = [{
'n_neighbors': range(4, 8),
'weights': ['uniform', 'distance'],
'p': [1, 2]
}]
s = Search(X, y, KNeighborsClassifier(), parameters)
s.search()
s.report("../Report/results/cancer.knn.tex")
h = Test(X, y, KNeighborsClassifier(n_neighbors=5, weights='uniform', p=2))
h.run()
h.report(fn="../Report/results/cancer.knn.cm.tex")
from Test import Test as test
'''
ASC Week 1 Challenge 4 (Medium #1)
Write a function that converts any sentence into a V A P O R W A V E sentence. a V A P O R W A V E sentence converts all the letters into uppercase, and adds 2 spaces between each letter (or special character) to create this V A P O R W A V E effect.
"Lets go to the movies" --> "L E T S G O T O T H E M O V I E S"
"Why isn't my code working?" --> "W H Y I S N ' T M Y C O D E W O R K I N G ?"
'''
def vaporcode(s):
return ' '.join([l.upper() for l in s if l != ' '])
# Easier to read, more succinct
def vaporcode(s):
return " ".join(s.replace(" ", "").upper())
test.assert_equals(vaporcode("Lets go to the movies"), "L E T S G O T O T H E M O V I E S")
test.assert_equals(vaporcode("Why isn't my code working?"), "W H Y I S N ' T M Y C O D E W O R K I N G ?")
from Test import Test, Test as test
'''
You are given an array (which will have a length of at least 3, but could be very large) containing integers. The array is either entirely comprised of odd integers or entirely comprised of even integers except for a single integer N. Write a method that takes the array as an argument and returns this "outlier" N.
Examples
[2, 4, 0, 100, 4, 11, 2602, 36]
Should return: 11 (the only odd number)
[160, 3, 1719, 19, 11, 13, -21]
Should return: 160 (the only even number)
'''
# Store in nested lists
# When both lists have items and one has more than 1
def find_outlier(integers):
l = [[],[]]
for i in integers:
if i % 2 == 0:
l[0].append(i)
else:
l[1].append(i)
if len(l[1]) > 1 and len(l[0]) == 1:
return l[0][0]
elif len(l[0]) > 1 and len(l[1]) == 1:
return l[1][0]
test.assert_equals(find_outlier([2, 4, 6, 8, 10, 3]), 3)
test.assert_equals(find_outlier([2, 4, 0, 100, 4, 11, 2602, 36]), 11)
test.assert_equals(find_outlier([160, 3, 1719, 19, 11, 13, -21]), 160)
from Test import Test, Test as test
'''
You get an array of numbers, return the sum of all of the positives ones.
Example [1,-4,7,12] => 1 + 7 + 12 = 20
Note: if there is nothing to sum, the sum is default to 0.
'''
def positive_sum(arr):
return sum([x for x in arr if x > 0])
Test.describe("positive_sum")
Test.it("works for some examples")
Test.assert_equals(positive_sum([1, 2, 3, 4, 5]), 15)
Test.assert_equals(positive_sum([1, -2, 3, 4, 5]), 13)
Test.assert_equals(positive_sum([-1, 2, 3, 4, -5]), 9)
Test.it("returns 0 when array is empty")
Test.assert_equals(positive_sum([]), 0)
Test.it("returns 0 when all elements are negative")
Test.assert_equals(positive_sum([-1, -2, -3, -4, -5]), 0)
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from socket import * from Test import Test moves = [('White', 'e2 e4'), ('White', 'd1 f3'), ('White', 'f1 c4'), ('White', 'f3 f7')] test = Test() s1 = socket(AF_INET, SOCK_STREAM) s1.connect(("0.0.0.0", 20000)) test.send(s1, '{"op":"start" , "color":"White","params":["multi","None","None"]}') test.send(s1, '{"op":"play","params":["nextmove","%s","%s"]}' % moves[0]) test.send(s1, '{"op":"play","params":["nextmove","%s","%s"]}' % moves[1]) test.send(s1, '{"op":"play","params":["nextmove","%s","%s"]}' % moves[2]) test.send(s1, '{"op":"play","params":["nextmove","%s","%s"]}' % moves[3]) test.send(s1, '{"op":"kill"}')
# # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from socket import * from json import * from Test import Test moves = [('White', 'e2 e4'), ('Black', 'a7 a6'), ('White', 'd1 f3'), ('Black', 'a6 a5'), ('White', 'f1 c4'), ('Black', 'a5 a4'), ('White', 'f3 f7')] test = Test() s1 = socket(AF_INET, SOCK_STREAM) s1.connect(("0.0.0.0", 20000)) s2 = socket(AF_INET, SOCK_STREAM) s2.connect(("0.0.0.0", 20000)) data = test.send(s1, '{"op":"start" , "color":"White","params":["multi","None","None"]}') data = loads(data) gameid = data['gameid'] test.send(s2, '{"op":"connect" , "color":"Black","gameid":"%d"}' % gameid) test.send(s1, '{"op":"play","params":["nextmove","%s","%s"]}' % moves[0])
class SimpleTests(unittest.TestCase):
def setUp(self):
"""Call before every test case."""
self.parser = Parser()
self.test = Test()
def testNormal1(self):
cut=self.test
test='''\
test squareError method <%squareError (%c1%,%c2%)%> returns <%double%>:
param <%ArrayList<point>%> c1:
dependsOn x1,x2,y1,y2:
<%
c1=new ArrayList();
c1.add(new Point(%x1%,%y1%));
c1.add(new Point(%x2%,%y2%));
%>
out:
returns >= (x1+y1) - (x2-y2)
invalid 0:
<%c1=null;%>
out:
throws <%.GetType().Name==NullReferenceException%>
'''
cut.tokens=self.parser.test.parseString(test)[0]
try:
cut.populate().next()
except StopIteration:
pass
else:
self.fail('Why has execution stopped')
assert self.test.test=="squareError",self.test.test
def testNormal2(self):
cut = self.test
test="""\
test squareError method <%squareError (%c1%,%c2%)%>:
param <%ArrayList<point>%> c1:
dependsOn x1,x2,y1,y2:
<%
c1=new ArrayList();
c1.add(new Point(%x1%,%y1%));
c1.add(new Point(%x2%,%y2%));
%>
out:
returns >= (x1+y1) - (x2-y2)
invalid 0:
<%c1=null;%>
out:
throws <%.GetType().Name==NullReferenceException%>
"""
self.test.tokens=self.parser.test.parseString(test)[0]
try:
cut.populate().next()
except StopIteration:
pass
else:
self.fail('Why has execution stopped')
assert self.test.method=="squareError (%c1%,%c2%)",self.test.method
def testDefective1(self):
test="""\
test squareError method <%squareError (%c1%,%c2%)%>:
param <%ArrayList<point>%> c1:
dependsOn x1,x2,y1,y2:
<%
c1=new ArrayList();
c1.add(new Point(%x1%,%y1%));
c1.add(new Point(%x2%,%y2%));
%>
out:
returns >= (x1+y1) - (x2-y2)
invalid 0:
<%c1=null;%>
out:
throws <%.GetType().Name==NullReferenceException%>
param <%ArrayList<point>%> c1:
dependsOn x1,x2,y1,y2:
<%
c1=new ArrayList();
c1.add(new Point(%x1%,%y1%));
c1.add(new Point(%x2%,%y2%));
%>
out:
returns >= (x1+y1) - (x2-y2)
invalid 0:
<%c1=null;%>
out:
throws <%.GetType().Name==NullReferenceException%>
"""
self.test.tokens=self.parser.test.parseString(test)[0]
gen=self.test.populate()
self.assertRaises(DuplicateDefinitionException,gen.next)
def testInheritance1(self):
cut=self.test
test='''\
test squareError method <%squareError (%c1%,%c2%)%>:
param x:
valid 0:
x==3
x==5
out:
assert <% true %>
param y(x)
'''
self.test.tokens=self.parser.test.parseString(test)[0]
try:
cut.populate().next()
except StopIteration:
pass
else:
self.fail('Why has execution stopped')
inp=cut.inputs['y']
assert isinstance(inp,Input)
assert not inp.dependsOn
assert inp.inherits
assert len(inp.validPartitions)==1,len(inp.validPartitions)
def testInheritance2(self):
cut=self.test
test='''\
test squareError method <%squareError (%c1%,%c2%)%>:
param x:
valid 0:
x==3
x==5
out:
assert <% true %>
param z(x)
param w(z):
valid 0:
w==3
w==5
w==1
out:
assert <% true %>
param y(x,w)
'''
self.test.tokens=self.parser.test.parseString(test)[0]
try:
cut.populate().next()
except StopIteration:
pass
else:
self.fail('Why has execution stopped')
inp=cut.inputs['y']
assert isinstance(inp,Input)
assert not inp.dependsOn
assert inp.inherits
assert len(inp.validPartitions)==3,len(inp.validPartitions)
def testInheritance3(self):
cut=self.test
test='''\
test squareError method <%squareError (%c1%,%c2%)%>:
param x(w):
valid 0:
x==3
x==5
out:
assert <% true %>
param z(x)
param w(z):
valid 0:
w==3
w==5
w==1
out:
assert <% true %>
param y(w)
'''
self.test.tokens=self.parser.test.parseString(test)[0]
self.assertRaises(CyclicReferenceException,cut.populate().next)
def getExample(self):
test='''\
invalid y:
y==4
y<3
y>2
'''
tokens=LibraryParser().invalidPartition.parseString(test)[0]
p=InheritedPartition(tokens)
for x in p.populate():
pass
return p
def testInheritance4(self):
cut=self.test
test='''\
test squareError method <%squareError (%c1%,%c2%)%>:
param x:
valid 0(email):
x==3
x==5
out:
assert <% true %>
param z(x)
param w(z):
valid 0:
w==3
w==5
w==1
out:
assert <% true %>
param y(w)
'''
self.test.tokens=self.parser.test.parseString(test)[0]
f=False
gen=cut.populate()
try:
typ,val=gen.next()
assert typ=='inp',typ
assert 'email' in val,val
f=True
gen.send(self.getExample())
except StopIteration:
pass
else:
self.fail('Why has execution stopped')
assert f
inp=cut.inputs['y']
assert isinstance(inp,Input)
assert not inp.dependsOn
assert inp.inherits
assert len(inp.validPartitions)==2,len(inp.validPartitions)
def testInheritance5(self):
cut=self.test
test='''\
test squareError method <%squareError (%c1%,%c2%)%>:
param x(w)
'''
self.test.tokens=self.parser.test.parseString(test)[0]
self.assertRaises(SemanticException,cut.populate().next)
def testInheritance6(self):
cut=self.test
test='''\
test squareError method <%squareError (%c1%,%c2%)%>:
param x(w)
param w(f,r)
param f:
valid 0:
f==4
param r(x)
'''
self.test.tokens=self.parser.test.parseString(test)[0]
self.assertRaises(CyclicReferenceException,cut.populate().next)
def testInheritance7(self):
cut=self.test
test='''\
test squareError method <%squareError (%c1%,%c2%)%>:
param x(w)
param w(f,r)
param f:
valid 0:
f==4
param r():
valid 0:
w==5
'''
self.test.tokens=self.parser.test.parseString(test)[0]
self.assertRaises(SemanticException,cut.populate().next)
def checkIfDependant(self,order,inputDict):
for i,name in enumerate(order):
assert all((dep in order[:i]) for dep in inputDict[name].dependsOn)
def testSortDependencies1(self):
cut=self.test
i1,i2,i3,i4,i5=Input(),Input(),Input(),Input(),Input()
i1.name,i2.name,i3.name,i4.name,i5.name='i1','i2','i3','i4','i5'
i1.dependsOn=['i2','i3','i4']
i5.dependsOn=['i1']
i4.dependsOn=['i2','i3']
i2.dependsOn=['i3']
cut.inputs={'i1':i1,'i2':i2,'i3':i3,'i4':i4,'i5':i5}
order=cut.sortDependencies()
assert len(order)==5,len(order)
self.checkIfDependant(order,cut.inputs)
def testSortDependencies2(self):
cut=self.test
i1,i2,i3,i4,i5=Input(),Input(),Input(),Input(),Input()
i1.name,i2.name,i3.name,i4.name,i5.name='i1','i2','i3','i4','i5'
cut.inputs={'i1':i1,'i2':i2,'i3':i3,'i4':i4,'i5':i5}
order=cut.sortDependencies()
assert len(order)==5,len(order)
self.checkIfDependant(order,cut.inputs)
def testSortDependencies3(self):
cut=self.test
i1,i2,i3,i4,i5=Input(),Input(),Input(),Input(),Input()
i1.name,i2.name,i3.name,i4.name,i5.name='i1','i2','i3','i4','i5'
i1.dependsOn=['i2','i4']
i5.dependsOn=['i1']
i4.dependsOn=['i2','i3']
i2.dependsOn=['i3']
i3.dependsOn=['i5']
cut.inputs={'i1':i1,'i2':i2,'i3':i3,'i4':i4,'i5':i5}
self.assertRaises(CyclicReferenceException,cut.sortDependencies)
def testSortDependencies4(self):
cut=self.test
i1,i2,i3,i4,i5=Input(),Input(),Input(),Input(),Input()
i1.name,i2.name,i3.name,i4.name,i5.name='i1','i2','i3','i4','i5'
i1.dependsOn=['i2','i4']
i5.dependsOn=['i1']
i4.dependsOn=['i2','i3']
i2.dependsOn=['i3']
i3.dependsOn=['i7']
cut.inputs={'i1':i1,'i2':i2,'i3':i3,'i4':i4,'i5':i5}
self.assertRaises(SemanticException,cut.sortDependencies)
def testCombine1(self):
test=self.combineN([1,2,3])
assert test==[[1],[2],[3]],test
def testCombine2(self):
test1=self.combineN([1,2,3],[4,5,6])
test2=self.test.combine2([1,2,3],[4,5,6],True)
assert all(t1==t2 for t1,t2 in zip(test1,test2))
def testHorizontalGrowth1(self):
cut=self.test
suite=cut.combine2([TestCaseValue(index=i+1,variableName=0) for i in range(3)],
[TestCaseValue(index=j+1,variableName=1) for j in range(3)],True)
pi=cut.horizontalGrowth(suite,2,[3,3,1])
assert len(pi)==0,len(pi)
assert all(TestCaseValue(index=1, variableName=2) in tc or TestCaseValue(index=None, variableName=2) in tc for tc in suite)
def testHorizontalGrowth2(self):
cut=self.test
suite=cut.combine2([TestCaseValue(index=i+1,variableName=0) for i in range(3)],
[TestCaseValue(index=j+1,variableName=1) for j in range(3)],True)
pi=cut.horizontalGrowth(suite,2,[3,3,3])
assert len(pi)==2,len(pi)
assert all(TestCaseValue(index=1, variableName=2) in tc or TestCaseValue(index=2, variableName=2) or TestCaseValue(index=3, variableName=2) in tc for tc in suite)
def testVerticalGrowth1(self):
cut=self.test
suite=[]
suite.append([TestCaseValue(index=1,variableName=0),TestCaseValue(index=1,variableName=1)])
suite.append([TestCaseValue(index=1,variableName=0),TestCaseValue(index=2,variableName=1)])
suite.append([TestCaseValue(index=2,variableName=0),TestCaseValue(index=1,variableName=1)])
suite.append([TestCaseValue(index=None,variableName=0),TestCaseValue(index=2,variableName=1)])
pi=set([(TestCaseValue(index=2,variableName=0),TestCaseValue(index=2,variableName=1))])
cut.verticalGrowth(suite,pi)
assert len(suite)==4,len(suite)
assert len(pi)==0,len(pi)
assert suite[3][1]==TestCaseValue(index=2,variableName=1),str(suite[3][1])
self.assertPairwiseCoverage(suite)
def assertPairwiseCoverage(self,suite):
vars=len(suite[0])
column=[[] for i in range(vars)]
for tc in suite:
for i in range(vars):
column[i].append(tc[i])
#calculate whole pi
pi=set()
for i in range(vars):
for c in range(i):
pairs=self.test.combine2(set(column[c]),set(column[i]))
intersections=set((p1,p2) for p1,p2 in pairs if p1.index!=None and p2.index!=None)
pi.update(intersections)
#start removing pairs from pi
for i in range(vars):
for c in range(i):
pairs=set(pair for pair in zip(column[c],column[i]))
pi.difference_update(pairs)
assert len(pi)==0,len(pi)
def combineN (self, *args):
'''Combines the first list (as argument) with subsequent lists'''
#This method is a bit too much memory hungry due to its recursive nature and can be optimised. Speed is ok.
if len(args)==0:
return
for i,ls in enumerate(args[0]):
if not isinstance(ls,list):
args[0][i]=[ls]
if len(args)==1:
for ls in args[0]:
ls[0]=copy.copy(ls[0])
return args[0]
res=[]
for ls in args[0]:
#combine with args[1]
for c in args[1]:
temp=copy.copy(ls)
temp.append(copy.copy(c))
res.append(temp)
return self.combineN(res,*args[2:])
def testAssertPairwiseCoverage1(self):
cut=self.test
suite=cut.combine2([TestCaseValue(index=i+1,variableName=0) for i in range(3)],
[TestCaseValue(index=j+1,variableName=1) for j in range(3)],True)
self.assertPairwiseCoverage(suite)
def testAssertPairwiseCoverage2(self):
cut=self.test
suite=self.combineN([TestCaseValue(index=i+1,variableName=0) for i in range(3)],
[TestCaseValue(index=j+1,variableName=1) for j in range(3)],
[TestCaseValue(index=j+1,variableName=2) for j in range(2)])
self.assertPairwiseCoverage(suite)
def testGetPairwiseSuite1(self):
suite=self.test.getPairwiseSuite([2,2,3])
self.assertPairwiseCoverage(suite)
def testGetPairwiseSuite2(self):
'''testing with a large test suite'''
suite=self.test.getPairwiseSuite([2,2,3,4,5,6,1])
self.assertPairwiseCoverage(suite)
def testGetPairwiseSuite3(self):
'''testing with a shallow test suite'''
suite=self.test.getPairwiseSuite([1,1,1,1,1,1,1,1,1,1])
assert len(suite)==1,len(suite)
self.assertPairwiseCoverage(suite)
def testGetPairwiseSuite4(self):
'''testing with a too short test suite'''
suite=self.test.getPairwiseSuite([1])
assert len(suite)==1,len(suite)
self.assertPairwiseCoverage(suite)
def testGetPairwiseSuite5(self):
'''testing with a very large test suite'''
suite=self.test.getPairwiseSuite([10,2,10,4,5,20,1])
self.assertPairwiseCoverage(suite)
def testGetPairwiseSuite6(self):
'''testing with an incrementally larger test suite'''
suite=self.test.getPairwiseSuite([1,1,5,10,60])
self.assertPairwiseCoverage(suite)
def testgetBCInvalidSuite(self):
'''testing base choice combination strategy'''
suite=self.test.getBCInvalidSuite([2,0,0,3,2])
assert len(suite)==7,len(suite)
#check there is only 1 negative no.
assert all(len([None for v in tc if v.index<0])==1 for tc in suite)
#check that all other nos are 0
assert all(len([None for v in tc if v.index==0])==len(tc)-1 for tc in suite)
#-----------------------------------------Integration tests-----------------------------------------#
def testGetTestSuite1(self):
'''Simple test suite generation'''
cut=self.test
test='''\
test xihaga method <% boq (%a%)%> returns <% int %>:
param c:
valid 0:
c==3
c==4
param b(c)
param a:
dependsOn b,c:
a==b+c
out:
returns>3
valid 0:
a==1
'''
cut.tokens=self.parser.test.parseString(test)[0]
gen=cut.populate()
try:
gen.next()
except StopIteration:
pass
else:
self.fail('Why has execution stopped')
suite=cut.getTestSuite()
values=[tc[3].value for tc in suite]
assert values==[6,1,1,8],values
def testGetTestSuite2(self):
'''Saved test suite generation'''
cut=self.test
with open('prog.stdl') as f:
cut.tokens=self.parser.test.parseString(f.read())[0]
gen=cut.populate()
try:
gen.next()
except StopIteration:
pass
else:
self.fail('Why has execution stopped')
suite=cut.getTestSuite()
assert len(suite)==6,len(suite)
def testGetInvalidTestSuite1(self):
'''Testing an invalid test suite only'''
cut=self.test
test='''\
test xihaga method <% boq (%a%)%> returns <% int %>:
param c:
valid 0:
c>3
c<7
out:
assert <%true%>
error:
assert <%false%>
param b(c)
'''
cut.tokens=self.parser.test.parseString(test)[0]
gen=cut.populate()
try:
gen.next()
except StopIteration:
pass
else:
self.fail('Why has execution stopped')
suite=cut.getTestSuite(valid=0,invalid='bc')
assert len(suite)==4,len(suite)
for check in (tc[0] for tc in suite):
assert isinstance(check,PartitionCheck)
checkItems=check.getCheckItems({})
for checkItem in checkItems:
assert isinstance(checkItem,PartitionCheckItem)
assert checkItem.value=='false',checkItems.value
def __init__(self, dock): Test.__init__(self, "Test separator icon", dock)
def __init__(self, dock): self.test_file='/tmp/cairo-dock-test' Test.__init__(self, "Test custom launcher", dock)
async3secSegments=Segmentation("None",periodSync=False,sizeType="fixed",frameSizeMs=3000.0,hopSizeMs=1000.0)
segStrategies=[async2secSegments,async3secSegments]
#Define features to be used /定義要使用的功能
features=[]
for featName in ['SubEnv']:#other options: 'MFCC','MelSpec'/其他選項：'MFCC'，'MelSpec'
for segType in segStrategies:
for timeDim in [32,64]:
for freqDim in [16]:
features.append(Feature(featName,[timeDim,freqDim],"frame",segType,involveDelta=False))
#Define data specifications for this database/定義此數據庫的數據規範
data=Data(dbaName,dataFolder,featureFolder,features,useBalancedData,splitRatios,info)
#Defining NN model with a name. /用名稱定義NN模型。
# Implementation is in models.py. Feel free to add your own models and /實現在models.py中。
# test by just changing the name here/您可以在此處更改名稱，隨意添加自己的模型並進行測試
modelNames=['uocSeq1','uocSeq2']
#Running random split and testing several times (1/testSetPercentage)/運行隨機拆分和測試幾次（1 / testSetPercentage）
# ex: if test set is 20%, tests will be repeated 5 times/例如：如果測試組為20％，測試將被重複5次
numExperiments=int(1/splitRatios[-1])
for i in range(numExperiments):
for modelName in modelNames:
#Define test specifications and run/定義測試規範並運行
singleTest=Test(modelName,data,resultsFolder,batch_size=128,num_epochs=50)
#Run the tests: outputs will be put in the results folder/運行測試：輸出將被放入結果文件夾中
singleTest.run()
#Cleaning this test sessions' intermediate files/清理此測試會話的中間文件
cleanFilesOfPrevSess([dataFolder])
# MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from socket import * from Test import Test moves = [('Black', 'a7 a6'), ('Black', 'a6 a5'), ('Black', 'a5 a4')] test = Test() s2 = socket(AF_INET, SOCK_STREAM) s2.connect(("0.0.0.0", 20000)) gameid = 1 test.send(s2, '{"op":"connect" , "color":"Black","gameid":"%d"}' % gameid) test.send(s2, '{"op":"play","params":["nextmove","%s","%s"]}' % moves[0]) test.send(s2, '{"op":"play","params":["nextmove","%s","%s"]}' % moves[1]) test.send(s2, '{"op":"play","params":["nextmove","%s","%s"]}' % moves[2]) test.send(s2, '{"op":"kill"}')
# # This program is distributed in the hope that it will be useful, # but WITHOUT ANY WARRANTY; without even the implied warranty of # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from Checkmate import Checkmate from Test import Test dummy = Test() a = Checkmate(mode='multi') a.nextmove('White', 'e2 e4') a.nextmove('Black', 'a7 a6') dummy.show(a) a.undo() a.nextmove('Black', 'a7 a5') dummy.show(a) a.quit()
# # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from random import randint from socket import * from json import * from Test import Test bookmodes = ['worst', 'best', 'random'] test = Test() s1 = socket(AF_INET, SOCK_STREAM) s1.connect(("0.0.0.0", 20000)) s2 = socket(AF_INET, SOCK_STREAM) s2.connect(("0.0.0.0", 20000)) data = test.send(s1, '{"op":"start", "color":"White","params":["multi","None","None"]}') data = loads(data) gameid = data['gameid'] test.send(s2, '{"op":"connect" , "color":"Black","gameid":"%d"}' % gameid) # Be sure to download and extract http://ftp.gnu.org/gnu/chess/book_1.00.pgn.gz
stepsize = 0.001
while vUpdate > 100 and uCnt < outLoop:
uCnt += 1
p_array = {}
innerUpdate = inLoop
Member_array, Cost_array, update2 = lr_solver_MC(
TupleSet_array, Pos_array, Neg_array, Cost_array, Benefit_array,
Member_array, b, Cost_Prior_array, A_MC_x, A_MC_y, innerUpdate,
stepsize)
Benefit_array, Cost_array, update1 = lr_solver_BC(
TupleSet_array, Pos_array, Neg_array, Cost_array, Benefit_array,
Member_array, b, A_BC_x, A_BC_y, innerUpdate, stepsize)
print "Update ", uCnt, update1, update2
# Store the Model
newAUC_score = Test(Cost_array, Benefit_array, Member_array, uCnt, f,
TestData)
if newAUC_score > Best_AUPR:
Best_AUPR = newAUC_score
Store(Cost_array, Benefit_array, Member_array, uCnt, f)
Predict(Cost_array, Benefit_array, Member_array)
print "new AUC score, AUC = ", Best_AUPR
__author__ = 'nitinpasumarthy'
from Test import Test
trainfilepath = './data/entrain.txt'
testfilepath = './data/entest.txt'
outfilepath = './data/predictedtags.txt'
tester = Test(trainfilepath, testfilepath, outfilepath)
print("error_rate = {}".format(tester.error_rate(outfilepath, testfilepath)))
print('Done')
def fit(self,
data,
test_split=True,
test_portion=0.1,
search_parameter_space=False):
lr_bu = self.lr_bu
lr_bi = self.lr_bi
lr_pu = self.lr_pu
lr_qi = self.lr_qi
lr_yj = self.lr_yj
reg_bu = self.reg_bu
reg_bi = self.reg_bi
reg_pu = self.reg_pu
reg_qi = self.reg_qi
reg_yj = self.reg_yj
if not search_parameter_space:
self.test_split = test_split
self.__set_data(data, test_portion)
print('Initializing features for Users and Items...')
initial = initializer(self.user_ids, self.item_ids,
self.initialization_method, self.n_latent,
self.init_mean, self.init_std)
self.pu, self.qi = initial.initialize_latent_vectors(
initalization_method='normal')
_, self.yj = initial.initialize_latent_vectors(
initalization_method='normal')
self.bu = dict([(key, 0) for key in self.train_data_user_ids])
self.bi = dict([(key, 0) for key in self.train_data_item_ids])
if not self.biased:
global_mean = 0
else:
global_mean = self.all_ratings_in_train / len(self.train_data)
for current_epoch in range(self.n_epochs):
if self.verbose:
print(" processing epoch {}".format(current_epoch))
for u, i, r in self.train_data:
# items rated by u
self.Iu = [items for items in self.user_existing_ratings[u]]
self.sqrt_Iu = np.sqrt(len(self.Iu))
# implicit feedback
self.u_impl_fdb = np.zeros(self.n_latent, np.double)
for j in self.Iu:
for f in range(self.n_latent):
self.u_impl_fdb[f] += self.yj[j][f] / self.sqrt_Iu
# compute current error
dot = 0
for f in range(self.n_latent):
dot += self.qi[i][f] * (self.pu[u][f] + self.u_impl_fdb[f])
err = r - (global_mean + self.bu[u] + self.bi[i] + dot)
# update biases
self.bu[u] += lr_bu * (err - reg_bu * self.bu[u])
self.bi[i] += lr_bi * (err - reg_bi * self.bi[i])
# update factors
for f in range(self.n_latent):
puf = self.pu[u][f]
qif = self.qi[i][f]
self.pu[u][f] += lr_pu * (err * qif - reg_pu * puf)
self.qi[i][f] += lr_qi * (err * puf - reg_qi * qif)
for j in self.Iu:
self.yj[j][f] += lr_yj * (err * qif / self.sqrt_Iu -
reg_yj * self.yj[j][f])
# Calculate errors
#error_counter += 1
train_error = Test.rmse_error(self.train_data, self.pu, self.qi)
# Show error to Client
if self.test_split:
test_error = Test.rmse_error(self.test_data, self.pu, self.qi)
print(
'Epoch Number: {}/{} Training RMSE: {:.2f} Test RMSE: {}'.
format(current_epoch + 1, self.n_epochs, train_error,
test_error))
else:
print('Epoch Number: {}/{} Training RMSE: {:.2f}'.format(
current_epoch + 1, self.n_epochs, train_error))
self.bu = self.bu
self.bi = self.bi
self.pu = self.pu
self.qi = self.qi
self.yj = self.yj
def __init__(self, dock): self.exe = config.exe1 self.wmclass = config.wmclass1 self.desktop_file = config.desktop_file1 Test.__init__(self, "Test launcher", dock)
def fit(self,
data,
test_split=True,
test_portion=0.1,
search_parameter_space=False):
if not search_parameter_space:
self.test_split = test_split
self.__set_data(data, test_portion)
print('Initializing features for Users and Items...')
initial = initializer(self.user_ids, self.item_ids,
self.initialization_method, self.n_latent, 0, 0)
user_features, item_features = initial.initialize_latent_vectors()
bu = dict([(key, 0) for key in self.train_data_user_ids])
bi = dict([(key, 0) for key in self.train_data_item_ids])
if not self.biased:
global_mean = 0
else:
global_mean = self.all_ratings_in_train / len(self.train_data)
for current_epoch in range(self.n_epochs):
if self.verbose:
print("Processing epoch {}".format(current_epoch))
# (re)initialize nums and denoms to zero
self.user_num = dict([(key, np.zeros(self.n_latent))
for key in self.train_data_user_ids])
self.user_denom = dict([(key, np.zeros(self.n_latent))
for key in self.train_data_user_ids])
self.item_num = dict([(key, np.zeros(self.n_latent))
for key in self.train_data_item_ids])
self.item_denom = dict([(key, np.zeros(self.n_latent))
for key in self.train_data_item_ids])
for u, i, r in self.train_data:
# compute current estimation and error
dot = 0 # <q_i, p_u>
for f in range(self.n_latent):
dot += user_features[u][f] * item_features[i][f]
est = global_mean + bu[u] + bi[i] + dot
err = r - est
# Update biases
if self.biased:
bu[u] += self.lr_bu * (err - self.reg_bu * bu[u])
bi[i] += self.lr_bi * (err - self.reg_bi * bi[i])
# Compute numerators and denominators
for f in range(self.n_latent):
self.user_num[u][f] += item_features[i][f] * r
self.user_denom[u][f] += item_features[i][f] * est
self.item_num[i][f] += user_features[u][f] * r
self.item_denom[i][f] += user_features[u][f] * est
# Update user factors
for u in self.train_data_user_ids:
n_ratings = self.user_n_ratings[u]
for f in range(self.n_latent):
self.user_denom[u][
f] += n_ratings * self.reg_user_features * user_features[
u][f]
user_features[u][
f] *= self.user_num[u][f] / self.user_denom[u][f]
# Update item factors
for i in self.train_data_item_ids:
n_ratings = self.item_n_ratings[i]
for f in range(self.n_latent):
self.item_denom[i][
f] += n_ratings * self.reg_item_features * item_features[
i][f]
item_features[i][
f] *= self.item_num[i][f] / self.item_denom[i][f]
# Calculate errors
#error_counter += 1
train_error = Test.rmse_error(self.train_data, user_features,
item_features)
# Show error to Client
if self.test_split:
test_error = Test.rmse_error(self.test_data, user_features,
item_features)
print(
'Epoch Number: {}/{} Training RMSE: {:.2f} Test RMSE: {}'.
format(current_epoch + 1, self.n_epochs, train_error,
test_error))
else:
print('Epoch Number: {}/{} Training RMSE: {:.2f}'.format(
current_epoch + 1, self.n_epochs, train_error))
self.bu = bu
self.bi = bi
self.user_features = user_features
self.item_features = item_features
def __init__(self, dock): self.name1 = 'xxx' self.name2 = 'yyy' Test.__init__(self, "Test stack icon", dock)
def fit(self,
data,
test_split=True,
test_portion=0.1,
search_parameter_space=False):
# Set train_data, test_data, user_ids etc. if search parameter is False
# If True, this lets us search parameter space with the same train-test split
if not search_parameter_space:
self.test_split = test_split
self.__set_data(data, test_portion)
# Initialization
print('Initializing features for Users and Items...')
initial = initializer(self.user_ids, self.item_ids,
self.initialization_method, self.n_latent,
self.init_mean, self.init_std)
self.user_features, self.item_features = initial.initialize_latent_vectors(
)
# Training
print('Starting training...')
error_counter = 0
for epoch in range(self.max_epoch):
# updating user and item features
for user, item, rating in self.train_data:
error = rating - \
np.dot(self.user_features[user], self.item_features[item])
# Use temp to update each item and user feature in sync.
temp = self.user_features[user]
# Update user and item feature for each user, item and rating pair
self.user_features[user] += self.learning_rate * \
(error * self.item_features[item] -
self.regularization * self.user_features[user])
self.item_features[item] += self.learning_rate * \
(error * temp - self.regularization *
self.item_features[item])
# Calculate errors
error_counter += 1
train_error = Test.rmse_error(self.train_data, self.user_features,
self.item_features)
# Show error to Client
if self.test_split:
test_error = Test.rmse_error(self.test_data,
self.user_features,
self.item_features)
print(
'Epoch Number: {}/{} Training RMSE: {:.2f} Test RMSE: {}'.
format(epoch + 1, self.max_epoch, train_error, test_error))
else:
print('Epoch Number: {}/{} Training RMSE: {:.2f}'.format(
epoch + 1, self.max_epoch, train_error))
# Save best features depending on test_error
if self.test_split and test_error < self.min_test_error:
self.min_test_error = test_error
self.best_user_features = copy.deepcopy(self.user_features)
self.best_item_features = copy.deepcopy(self.item_features)
error_counter = 0
# Save best features if test data is False
elif not self.test_split and train_error < self.min_train_error:
self.min_train_error = train_error
self.best_user_features = copy.deepcopy(self.user_features)
self.best_item_features = copy.deepcopy(self.item_features)
# Break if test_error didn't improve for the last n rounds and early stopping is true
if self.early_stopping and error_counter >= self.early_stopping:
print(
"Test error didn't get lower for the last {} epochs. Training is stopped."
.format(error_counter))
print('Best test error is: {:.2f}. Best features are saved.'.
format(self.min_test_error))
break
print('Training has ended...')
self.user_features = copy.deepcopy(self.best_user_features)
self.item_features = copy.deepcopy(self.best_item_features)
def __init__(self, dock): self.exe = config.exe self.wmclass = config.wmclass self.desktop_file = config.desktop_file Test.__init__(self, "Test taskbar", dock)
def main(self): """ Data parsing/processing section""" # parse input data strip=Parse(self.input) parsed_data=strip.getStripText() # Parse input data need_compress_catagory=strip.getNeedCompreeCatagory() # Check which catagories need group grouped_data=strip.getGroupedParsedData() # Group data """ Cuboid construction section """ #Create cuboid division_factor=3 min_sup=len(grouped_data)/division_factor # Iceberg condition cuboid=Cuboid(strip.getRowConuter(), min_sup) oneDimensionTable=cuboid.getOneDimensionTable() # Conduct 1-D aggregate compressedBaseTable=cuboid.getCompressedBaseTable(grouped_data, need_compress_catagory) # Construct compressed base table """ Star tree/table construction section""" #Construct star tree and star table s_t=Cubing(compressedBaseTable) root=s_t.starCubing() #s_t.constructStarTree() """ Test/Output section """ # test results t=Test() t.testParsedData(parsed_data) # Test if parsed data is correct t.testNeedCompressCatagory(need_compress_catagory) # Test which catagory needs compress t.testGroupedParsedData(grouped_data) # Test grouped data t.testOneDimensionAggregatation(oneDimensionTable,need_compress_catagory, min_sup) # Test 1-D aggregation t.testCompressedBaseTable(compressedBaseTable) # Test node-ordered compressed base table t.testStarTree(root,0,s_t.count,'')
# but WITHOUT ANY WARRANTY; without even the implied warranty of # MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the # GNU General Public License for more details. # # You should have received a copy of the GNU General Public License # along with this program. If not, see <http://www.gnu.org/licenses/>. # # Copyright 2015 Ozge Lule([email protected]), # Esref Ozturk([email protected]) from socket import * from json import * from Test import Test test = Test() s1 = socket(AF_INET, SOCK_STREAM) s1.connect(("0.0.0.0", 20000)) s2 = socket(AF_INET, SOCK_STREAM) s2.connect(("0.0.0.0", 20000)) data = test.send(s1, '{"op":"start","params":["single","easy","None"]}') data = loads(data) gameid = data['gameid'] test.send(s1, '{"op":"play","params":["setdepth","1"]}') test.send(s1, '{"op":"play","params":["nextmove","%s","%s"]}' % ('White', 'e2 e4')) test.send(s1, '{"op":"exit"}')
from Test import Test, Test as test
'''
Deoxyribonucleic acid, DNA is the primary information storage molecule in biological systems. It is composed of four nucleic acid bases Guanine ('G'), Cytosine ('C'), Adenine ('A'), and Thymine ('T').
Ribonucleic acid, RNA, is the primary messenger molecule in cells. RNA differs slightly from DNA its chemical structure and contains no Thymine. In RNA Thymine is replaced by another nucleic acid Uracil ('U').
Create a function which translates a given DNA string into RNA.
For example:
"GCAT" => "GCAU"
The input string can be of arbitrary length - in particular, it may be empty. All input is guaranteed to be valid, i.e. each input string will only ever consist of 'G', 'C', 'A' and/or 'T'.
'''
def dna_to_rna(dna):
return ''.join(['U' if x == 'T' else x for x in dna])
# Top one
def DNAtoRNA(dna):
return dna.replace('T', 'U')
test.assert_equals(dna_to_rna("TTTT"), "UUUU")
test.assert_equals(dna_to_rna("GCAT"), "GCAU")
test.assert_equals(dna_to_rna("GACCGCCGCC"), "GACCGCCGCC")
def __init__(self):
Test.__init__(self)
self._numObjects = 64
self._numThreads = [1, 2, 4, 8, 16, 32]
self._numReads = 32
Task:
Your task is to write a function which returns the sum of following series upto nth term(parameter).
Series: 1 + 1/4 + 1/7 + 1/10 + 1/13 + 1/16 +...
Rules:
You need to round the answer to 2 decimal places and return it as String.
If the given value is 0 then it should return 0.00
You will only be given Natural Numbers as arguments.
Examples:
SeriesSum(1) => 1 = "1.00"
SeriesSum(2) => 1 + 1/4 = "1.25"
SeriesSum(5) => 1 + 1/4 + 1/7 + 1/10 + 1/13 = "1.57"
NOTE: In PHP the function is called series_sum().
'''
def series_sum(n):
total = 0
count = 1
for num in range(1, n + 1):
total += 1 / count
count += 3
return format(total, '.2f')
Test.assert_equals(series_sum(1), "1.00")
Test.assert_equals(series_sum(2), "1.25")
Test.assert_equals(series_sum(3), "1.39")
