def load(self, papers):
ct = CodeTimer("Convert paper to graph", silent=True, unit="s")
with ct:
for index, paper in enumerate(papers):
self.loader.load_json(paper.to_dict(), "Paper")
log.debug("Convert papers to graph took {}s".format(ct.took))
try:
if db_loading_lock is not None:
db_loading_lock.acquire()
log.info("{}Acquired DB loading lock.".format(
self.name + ": " if self.name else ""))
except NameError:
# we are in singlethreaded mode. no lock set
pass
log.debug("Load Data to DB...")
try:
ct = CodeTimer("Create Indexes", silent=True, unit="s")
with ct:
self.loader.create_indexes(graph)
log.debug("Creating Indexes took {}s".format(ct.took))
ct = CodeTimer("Load to DB", silent=True, unit="s")
with ct:
self.loader.merge(graph)
log.debug("Loading papers to db took {}s".format(ct.took))
finally:
try:
if db_loading_lock is not None:
log.info("{}Release DB loading lock.".format(
self.name + ": " if self.name else ""))
db_loading_lock.release()
except NameError:
# we are in singlethreaded mode. no lock set
log.debug("...Loaded Data to DB")
pass
def testing():
centroids_meters, centroids_feet = open_locations_data()
r_s = 4000
t = 6
start_time = datetime.datetime(2020,1,1,0, 0, 0)+datetime.timedelta(hours=2*t)
end_time = datetime.datetime(2020,1,1,2, 0, 0)+datetime.timedelta(hours=2*t)
print(start_time)
#counts = open_ride_data(start_time,end_time)
#with open('../../../Experimental_Data/test_countdata.json', 'w+') as outfile:
# json.dump(counts, outfile)
with open('../../../Experimental_Data/test_countdata.json', 'r') as infile:
counts = json.load(infile)
problem2 = probalistic_coverage.ProbablisticCoverage_v2(centroids_meters,centroids_meters,counts,r_s)
problem3 = probalistic_coverage.ProbablisticCoverage_v2(centroids_meters,centroids_meters,counts,r_s,soft_edges = True,soft_edge_eps = 0.05)
k = 10
with CodeTimer("general accel"):
S = problem3.bound_greedy_accel_general(k,lowerbound = True)
print(problem2.objective(S))
# with CodeTimer("special accel"):
# S2 = problem2.lb_greedy_accel_specialized(k)
# print(problem2.objective(S2))
with CodeTimer("basic"):
S3 = problem3.lb_greedy(k)
print(problem2.objective(S3))
with CodeTimer("basic specialized"):
S4 = problem2.lb_greedy_2(k)
print(problem2.objective(S4))
print(S)
print(S3)
print(S4)
n = 25
S_g = problem2.find_greedy_choices(S)
S_u = problem2.find_greedy_choices(S,upperbound=True)
margs = [problem2.objective([S[i]]+S[:i])-problem2.objective(S[:i]) for i in range(len(S))]
g_margs = [problem2.objective([S_g[i]]+S[:i])-problem2.objective(S[:i]) for i in range(len(S))]
u_margs_true = [problem2.pairwise_upperbound(S[i],S[:i]) for i in range(len(S))]
u_margs = [problem2.pairwise_upperbound(S_u[i],S[:i]) for i in range(len(S))]
l_margs_true = [problem2.pairwise_lowerbound(S[i],S[:i]) for i in range(len(S))]
plt.figure()
plt.plot(margs)
plt.plot(g_margs)
plt.legend(["marginals","best marginals "])
plt.figure()
plt.plot(u_margs)
plt.plot(u_margs_true)
plt.plot(l_margs_true)
plt.legend(["Opt Upper bounds","our upperbound","lowerbounds"])
plt.show()
def test_single_blank():
from linetimer import CodeTimer
ct = CodeTimer()
with ct:
sleep(0.1)
assert ct.took >= 100.0
def analyse(device, config=None, data=None):
"""
Data sample posted to AWS by device
Load data from storage using device ID
Call analytics module passing data in a Python object
Analytics runs and updates data objects as necessary
Updates are persisted to storage medium
"""
with CodeTimer('analyse'):
_run_analysis(device, config=config, data=data)
def _run_analysis(device, config=None, data=None):
# If CW_CONFIG is set use it to find configuration
# Otherwise look for config/default.json or config/configure.py in that order
if 'CW_CONFIG' in os.environ:
config_path = os.environ['CW_CONFIG']
analytics_config = _load_config(config_path)
else:
config_path = 'config/default.json'
if os.path.exists(config_path):
analytics_config = _load_config(config_path)
else:
analytics_config = _load_config('config.configure')
print('Loaded configuration from', config_path)
# If supplementary config information is provided merge it
if config is not None:
analytics_config = merge(analytics_config, config)
# Find the analytics module and import it
if 'analytics' in analytics_config:
print('Using analytics module:', analytics_config['analytics'])
analytics = importlib.import_module(analytics_config['analytics'])
else:
analytics = importlib.import_module('process.analytics')
silent = True
if 'codetimer' in analytics_config:
silent = not analytics_config['codetimer']
with CodeTimer('create data store', silent=silent):
data_store = storage.ConcurrentDataStore(analytics_config, data)
with CodeTimer('retrieve data', silent=silent):
device_data = data_store.retrieve(device)
if 'filter' in analytics_config:
with CodeTimer('filter data', silent=silent):
print('Using filter module:', analytics_config['filter'])
filter = importlib.import_module(analytics_config['filter'])
device_data = filter.filter(analytics_config, device_data)
with CodeTimer('process data', silent=silent):
result = analytics.process(device_data)
with CodeTimer('store data', silent=silent):
data_store.store(device, result)
def test_two_named():
from linetimer import CodeTimer
name1 = "name1"
name2 = "name2"
ct1 = CodeTimer(name1)
with ct1:
sleep(1)
ct2 = CodeTimer(name2)
with ct2:
sleep(2)
assert ct1.took >= 1000.0
assert ct1.name == name1
assert ct2.took >= 2000.0
assert ct2.name == name2
def test_single_named():
from linetimer import CodeTimer
name = "name"
ct = CodeTimer(name)
with ct:
sleep(0.1)
assert ct.took >= 100.0
assert ct.name == name
def test_two_nested():
from linetimer import CodeTimer
name1 = "outer"
name2 = "inner"
ct1 = CodeTimer(name1)
with ct1:
sleep(0.1)
ct2 = CodeTimer(name2)
with ct2:
sleep(0.2)
assert ct1.took >= 300.0
assert ct1.name == name1
assert ct2.took >= 200.0
assert ct2.name == name2
def test_time_unit():
from linetimer import CodeTimer
unit1 = 's'
ct1 = CodeTimer('ct_' + unit1, unit=unit1)
with ct1:
sleep(0.1)
assert ct1.took >= 0.1
assert ct1.unit == unit1
unit2 = 'xyz'
ct2 = CodeTimer('ct_' + unit2, unit=unit2)
with ct2:
sleep(0.1)
assert ct2.took >= 100
assert ct2.unit == unit2
def greedy_with_timing(self, n):
ct = CodeTimer()
X = list(range(len(self.sensor_sets)))
S = []
times = []
cummulative_time = 0
for i in range(n):
with ct:
x = max(
X,
key=lambda x: self.objective(S + [x]) - self.objective(S))
S.append(x)
X.remove(x)
cummulative_time += ct.took
times.append(cummulative_time)
return S, times
def speed_experiment():
centroids_meters, centroids_feet = open_locations_data()
r_s = 3000
experiment_data = []
with open('../../../Experimental_Data/countdata.json', 'r') as infile:
count_sets = json.load(infile)
speed_data = []
for t in range(12):
data = {"t":t}
print("Time:",t)
data['g_times'] = []
data['lb_times'] = []
data['ub_times'] = []
counts = count_sets[t]
timer = CodeTimer()
problem = probalistic_coverage.ProbablisticCoverage_v2(centroids_meters,centroids_meters,counts,r_s,soft_edges = True,soft_edge_eps = 0.05)
n_s = list(range(1,51))
S, times = problem.greedy_with_timing(50)
data['g_times'] = times
for n in n_s:
print("n = ",n)
# print("greedy")
# with timer:
# S = problem.greedy(n)
# data['g_times'].append(timer.took)
print("greedy")
with timer:
S = problem.bound_greedy_accel_general(n,lowerbound = True)
data['lb_times'].append(timer.took)
print("greedy")
with timer:
S = problem.bound_greedy_accel_general(n,lowerbound = False)
data['ub_times'].append(timer.took)
print(data)
speed_data.append(data)
now = datetime.datetime.now()
date_time = now.strftime("%m-%d-%Y_%H-%M")
with open('../../../Experimental_Data/speed experiment '+date_time+"_soft.json", 'w+') as outfile:
json.dump(speed_data, outfile)
def Active_Learning_Testing(total_num_plans=240,
plans_per_round=30,
random_seed=150,
noise_value=0.2,
random_sampling_enabled=False,
include_gain=True,
include_discovery_term=True,
include_feature_distinguishing=True,
include_prob_term=True,
include_feature_feedback=True,
manager_pickle_file="default_man.p",
prob_feat_select=0.2,
preference_distribution_string="power_law",
repetitions=1):
print("doing probability per level =", prob_feat_select)
print(manager_pickle_file)
ret_struct = []
for i in range(repetitions):
with CodeTimer():
ret_struct.append(
test_full_cycle_and_accuracy(
test_size=1000,
num_rounds=int(total_num_plans / plans_per_round),
num_plans_per_round=plans_per_round,
random_sampling_enabled=random_sampling_enabled,
include_gain=include_gain,
include_discovery_term=include_discovery_term,
include_feature_distinguishing=
include_feature_distinguishing,
include_prob_term=include_prob_term,
include_feature_feedback=include_feature_feedback,
random_seed=random_seed,
manager_pickle_file=manager_pickle_file,
input_rating_noise=noise_value,
prob_feat_select=prob_feat_select,
preference_distribution_string=
preference_distribution_string))
#end for loop
return ret_struct
def test_logger_func(capsys):
import logging.config
from linetimer import CodeTimer
logger_config = {
'version': 1,
'disable_existing_loggers': False,
'formatters': {
'standard': {
'format': '[%(levelname)s] - %(message)s'
},
},
'handlers': {
'default': {
'level': 'INFO',
'formatter': 'standard',
'class': 'logging.StreamHandler',
'stream': 'ext://sys.stdout', # Default is stderr
},
},
'loggers': {
'': { # root logger
'handlers': ['default'],
'level': 'INFO',
'propagate': True
}
}
}
logging.config.dictConfig(logger_config)
logger = logging.getLogger()
with CodeTimer('ct', unit='s', logger_func=logger.info):
sleep(0.1)
captured = capsys.readouterr()
assert captured.out.startswith("[INFO] - Code block 'ct' took: 0.1")
assert captured.out.endswith(' s\n')
def google_tr(
text: str,
from_lang: Optional[str] = "auto",
to_lang: str = "zh",
page: Optional[Page] = PAGE,
verbose: Union[bool, int] = False,
timeout: float = 5,
):
# fmt: on
"""Deepl via pyppeteer.
text = "Test it and more"
from_lang="auto"
to_lang="zh"
# page=PAGE
page=None
verbose=True
"""
#
try:
text = str(text).strip()
except Exception as exc:
logger.warning("%s, setting to ''", exc)
text = ""
if not text:
return ""
if to_lang in ["zh", "chinese", "zhong"]:
to_lang = "zh-CN"
if from_lang is None:
from_lang = "auto"
if from_lang in ["zh", "chinese", "zhong"]:
from_lang = "zh-CN"
if to_lang in ["zh", "chinese", "zhong"]:
to_lang = "zh-CN"
if from_lang in [to_lang]:
logger.info("Nothing to do, man")
return text
_ = 5000
if len(text) > _: # 5250
logger.warning("text too long, trimmed to %s", _)
text = text[:_]
# return text
# set verbose=40 to turn most things off
if isinstance(verbose, bool):
if verbose:
logzero.setup_default_logger(level=10)
else:
logzero.setup_default_logger(level=20)
else: # integer: log_level
logzero.setup_default_logger(level=verbose)
logger.debug(" Entry ")
# if page is not supplied, get one, TODO use get_pwbrowser
if not isinstance(page, Page):
page = PAGE
try:
google_tr.from_lang
except AttributeError:
google_tr.from_lang = "auto"
try:
google_tr.to_lang
except AttributeError:
google_tr.to_lang = "zh-CN"
url = ""
if (from_lang, to_lang) != (google_tr.from_lang, google_tr.to_lang):
url = f"https://translate.google.cn/?sl={from_lang}&tl={to_lang}&op=translate"
logger.debug(" lang pair changed")
try:
page.goto(url, timeout=45 * 1000)
except Exception as exc:
logger.error(exc)
raise
try:
textarea = page.wait_for_selector('//textarea', timeout=45 * 1000)
except Exception as exc:
logger.error(exc)
raise
if verbose < 11 or verbose is True:
_ = False # silent
else:
_ = True
with CodeTimer(name="fetching", unit="s", silent=_):
_ = """
# maybe no need to click, save some time
sel_btn = "#ow42 > div:nth-child(1) > span > button > i"
try: # first nothing to click, timeout in 2 s
btn = await page.wait_for_selector(sel_btn, timeout=5000)
await btn.click()
except Exception as exc:
logger.error(exc)
# """
timeout = 30 # defaults to 30 seconds
n_lines = len(text.splitlines())
if n_lines > 100:
timeout = n_lines * 0.4
timeout = timeout * 1000 # convert to ms
try:
textarea.fill('', timeout=timeout)
sleep(0.1)
textarea.fill('', timeout=timeout)
sleep(0.1)
textarea.fill(text, timeout=timeout)
except Exception as exc:
logger.error(exc)
raise
idx = 0
flag = False
ulimit = 3 / 0.1
while not flag and idx < ulimit:
idx += 1
content = page.content()
# doc = pq(content)
# flag = re.findall(r'data-text="[^"]+', doc.html())
flag = re.findall(r'data-text="[^"]+', content)
logger.debug(flag)
if flag:
break
sleep(0.1)
logger.debug("loop: %s", idx)
sleep(0.1)
content = page.content()
# doc = pq(content)
try:
# res, = re.search(r'data-text="([^"]+)', doc.html()).groups()
res, = re.search(r'data-text="([^"]+)', content).groups()
except Exception as exc:
logger.error(exc)
res = str(exc)
res = html.unescape(res)
logger.debug(res)
if (from_lang, to_lang) != (google_tr.from_lang, google_tr.to_lang):
logger.debug("url=%s", url)
logger.debug("page.url=%s", page.url)
logger.debug("%s, %s", url == page.url,
re.findall(rf"tl={to_lang}", page.url))
if not re.findall(rf"tl={to_lang}", page.url):
logger.warning(
" target lang [%s] does not appear to be a valid language, falled back to the previous tl [%s]",
to_lang, google_tr.to_lang)
else:
google_tr.from_lang, google_tr.to_lang = from_lang, to_lang
logger.debug(" Fini ")
return res
def effectiveness_experiment(n):
centroids_meters, centroids_feet = open_locations_data()
r_s = 3000
experiment_data = []
#Collect Data for testing
count_sets = []
for t in range(12):
start_time = datetime.datetime(2020,1,1,0, 0, 0)+datetime.timedelta(hours=2*t)
end_time = datetime.datetime(2020,1,1,2, 0, 0)+datetime.timedelta(hours=2*t)
print(start_time)
counts = open_ride_data(start_time,end_time)
count_sets.append(counts)
# with open('/Users/andrewdownie/Documents/Graduate Studies/Research/Simulations/Experimental_Data/countdata.json', 'w+') as outfile:
# json.dump(count_sets, outfile)
#with open('/Users/andrewdownie/Documents/Graduate Studies/Research/Simulations/Experimental_Data/countdata.json', 'r') as infile:
# count_sets = json.load(infile)
for t in range(12):
estimated_bounds = []
theoretical_bounds = []
greedy_values = []
lb_values = []
start_time = datetime.datetime(2020,1,1,0, 0, 0)+datetime.timedelta(hours=2*t)
end_time = datetime.datetime(2020,1,1,2, 0, 0)+datetime.timedelta(hours=2*t)
print(start_time)
counts = count_sets[t]
g_timer = CodeTimer("greedy time",unit = "s")
lb_timer = CodeTimer("lb time", unit = "s")
ub_timer = CodeTimer("ub time", unit = "s")
trial_data = {"n":n,"t":t}
#initalize problem
problem = probalistic_coverage.ProbablisticCoverage_v2(centroids_meters,centroids_meters,counts,r_s,soft_edges = True, soft_edge_eps = 0.05)
# execute Algorithms
with g_timer:
S = problem.greedy(n)
trial_data["greedy_time"] = g_timer.took
with lb_timer:
S_lower = problem.bound_greedy_accel_general(n,lowerbound = True)
trial_data["lb_time"] = lb_timer.took
with ub_timer:
S_upper = problem.bound_greedy_accel_general(n,lowerbound = False)
trial_data["ub_time"] = ub_timer.took
# Lower Bound Approximation Analysis
print("computing bounds for lower bound algo")
S_g_l = problem.find_greedy_choices(S_lower)
S_u_l = problem.find_greedy_choices(S_lower,upperbound=True)
# for i in range(n):
# print("numer",problem.marginal(S_g_l[i],S_lower[:i]))
# print("denominator",max([problem.marginal(S_lower[i],S_lower[:i]),0.00001]))
theoretical_alphas_lb = compute_theoretical_alphas(S_g_l,S_lower,problem)
#print("Theortical Alphas",theoretical_alphas_lb)
trial_data["theoretical_bounds_lb"] = [compute_bound_sequential(theoretical_alphas_lb[:i+1])for i in range(len(theoretical_alphas_lb))]
# print("Theortical Alphas",theoretical_alphas_lb)
# print("Theoretical Bound",trial_data["theoretical_bounds_lb"])
estimated_alphas_lb = [problem.pairwise_upperbound(S_u_l[i],S_lower[:i])/max([problem.pairwise_lowerbound(S_lower[i],S_lower[:i]),0.0000001] )for i in range(n)]
trial_data["estimated_bounds_lb"] = [compute_bound_sequential(estimated_alphas_lb[:i+1])for i in range(len(estimated_alphas_lb))]
# print("Estimated Alphas",estimated_alphas_lb)
# print("Estimated Bound",trial_data["estimated_bounds_lb"])
print("computing bounds for upper bound algo")
S_g_u = problem.find_greedy_choices(S_upper)
theoretical_alphas_ub = compute_theoretical_alphas(S_g_u,S_upper,problem)
trial_data["theoretical_bounds_ub"] = [compute_bound_sequential(theoretical_alphas_ub[:i+1])for i in range(len(theoretical_alphas_ub))]
# print("Theortical Alphas ub",theoretical_alphas_ub)
# print("Theoretical Bound ub",trial_data["theoretical_bounds_ub"])
estimated_alphas_ub = [problem.pairwise_upperbound(S_upper[i],S_upper[:i])/max([problem.pairwise_lowerbound(S_upper[i],S_upper[:i]),0.00001] )for i in range(n)]
trial_data["estimated_bounds_ub"] = [compute_bound_sequential(estimated_alphas_ub[:i+1])for i in range(len(estimated_alphas_ub))]
# print("Estimated Alphas",estimated_alphas_ub)
# print("Estimated Bound",trial_data["estimated_bounds_ub"])
trial_data["greedy_values"] = [problem.objective(S[:i])for i in range(1,len(S)+1)]
trial_data["lb_values"] = [problem.objective(S_lower[:i])for i in range(1,len(S)+1)]
trial_data["ub_values"] = [problem.objective(S_upper[:i])for i in range(1,len(S)+1)]
experiment_data.append(trial_data)
print(experiment_data)
now = datetime.datetime.now()
date_time = now.strftime("%m-%d-%Y_%H-%M")
print("date and time:",date_time)
with open('../../../Experimental_Data/experiment '+date_time+"_soft.json", 'w+') as outfile:
json.dump(experiment_data, outfile)
f = open(a, "r")
content = f.read().encode()
f.close()
return content
# Read input files.
msg1 = readfile("1kb.txt")
def hashit(content):
return SHA256.new(content)
print("Hash time")
with CodeTimer():
digest1 = hashit(msg1)
# Key gen time
print("key gen time")
with CodeTimer():
key = DSA.generate(1024)
publickey = key.publickey()
with open("publickey.pem", "w") as f:
f.write(publickey.export_key().decode())
# Sign the message
def sign(content, key):
signer = DSS.new(key, 'fips-186-3')
i += 1
i += 1
return result
def fourSum(nums: List[int], start: int, target: int) -> List[List[int]]:
"""O(N^3)"""
nums.sort() # O(NlogN)
n = len(nums)
result = []
i = 0
while i < n: # O(N)
three_sum_res = threeSum(nums, i + 1, target - nums[i]) # O(N^2)
for res in three_sum_res:
res = [nums[i]] + res
result.append(res)
while i < n - 1 and nums[i] == nums[i + 1]:
i += 1
i += 1
return result
if __name__ == "__main__":
nums = [1, 0, -1, 0, -2, 2]
target = 0
with CodeTimer("four_sum"):
try:
res = fourSum(nums, 0, target)
assert res == [[-2, -1, 1, 2], [-2, 0, 0, 2], [-1, 0, 0, 1]]
except:
print(res)
offset = 20
dims_outer = [dims[0] + 2 * offset, dims[1] + 2 * offset]
alphas = []
sim = submodular_sim(dims=dims)
a = 400
b = 600
X = [{
'x': random.random() * dims[0] + offset,
'y': random.random() * dims[1] + offset,
'r': random.uniform(math.sqrt(a / math.pi), math.sqrt(b / math.pi))
} for i in range(m1)]
m2 = 3
#Xn = [[{'x':random.random()*dims[0],'y':random.random()*dims[1],'r':random.uniform(math.sqrt(a/math.pi),math.sqrt(b/math.pi))} for i in range(m2)]for i in range(n)]
print("Computing Greedy Algorithm")
ct_lb = CodeTimer("lb_greedy", unit="s")
ct_g = CodeTimer("greedy", unit="s")
ct_lba = CodeTimer("accel lb greedy", unit="s")
lb_times = []
g_times = []
lba_times = []
n_s = list(range(0, 50, 10))
for n_test in n_s:
with ct_lb:
S = lb_greedy(X, n_test, sim)
print(ct_lb.took)
print(sim.coverage(S))
lb_times.append(ct_lb.took)
'Hour', 'T Ground', '31-day Avg lag DB'
]) #Read the weather data, ignoring the first 25 lines of header
First_Hour = WeatherData[WeatherData[
"Hour"] == 1] #filter data to only include the fist hour of every day
First_Hour = First_Hour.set_index([pd.Index(range(365))
]) #set index as zero-based day of year
T_Mains = 0.65 * First_Hour['T Ground'] + 0.35 * First_Hour[
'31-day Avg lag DB'] #Equation 10, ACM, Appendix B. Returns the mains water temperature as a function of the ground temper
Zones_Dict[each] = T_Mains
#%%---------------------------GENERATE AND SAVE REQUESTED DRAW PROFILES---------
Data = pd.read_csv(File_Location) #Read the file to be converted
proper_order = Data.columns.to_list() #reference correct column order
for each in New_Climate_Zones: #repeat for each new zone required
with CodeTimer('converting to climate zone {0} complete, it'.format(each)):
del Data[
'Fraction Hot Water'] #we are going to recalculate this column
del Data[
'Hot Water Volume (gal)'] #we are going to recalculate this column
del Data[
'Hot Water Flow Rate (gpm)'] #we are going to recalculate this column
del Data[
'Mains Temperature (deg F)'] #we are going to recalculate this column
Zone_T_Mains = Zones_Dict[
each] #get T_Mains Temperature data from previously created dictionary
if len(
Data
) > 40000: #use swifter module to speed up coed if it's a long file, because swifter actually slows it down if it's below this threshold
# with CodeTimer('swap climate data (swifter)'): #for testing
def threeSum(nums: List[int], start: int, target: int) -> List[List[int]]:
"""
O(NlogN + N^2) = O(N^2)
"""
nums.sort() # O(NlogN)
n = len(nums)
result = []
i = 0
while i < n: # O(N)
two_sum_res = twoSum(nums, i + 1, target - nums[i]) # O(N)
for res in two_sum_res:
res = [nums[i]] + res
result.append(res)
while i < n - 1 and nums[i] == nums[i + 1]:
i += 1
i += 1
return result
if __name__ == "__main__":
nums = [-1, 0, 1, 2, -1, -4]
target = 0
with CodeTimer("three_sum"):
try:
res = threeSum(nums, 0, target)
assert res == [[-1, -1, 2], [-1, 0, 1]]
except:
print(res)
def getPanphonDistanceSingleton1():
global _PANPHON_DISTANCE_SINGLETON
if _PANPHON_DISTANCE_SINGLETON is None:
_PANPHON_DISTANCE_SINGLETON = panphon.distance.Distance()
return _PANPHON_DISTANCE_SINGLETON
def getPanphonDistanceSingleton2():
if not hasattr(getPanphonDistanceSingleton2, "value"):
setattr(getPanphonDistanceSingleton2, "value",
panphon.distance.Distance())
return getPanphonDistanceSingleton2.value
for iters in (1, 1, 10, 100, 1000, 10000):
with CodeTimer(f"getPanphonDistanceSingleton1() {iters} times"):
for i in range(iters):
dst = getPanphonDistanceSingleton1()
with CodeTimer(f"getPanphonDistanceSingleton2() {iters} times"):
for i in range(iters):
dst = getPanphonDistanceSingleton2()
for words in (1, 10):
with CodeTimer(f"is_panphon() {words} words"):
string = " ".join(["ei" for i in range(words)])
is_panphon(string)
with CodeTimer(f"is_panphon() on 1 word {words} times"):
string = "ei"
for i in range(words):
is_panphon(string)
import os
from linetimer import CodeTimer
from load_data import load
from download_data import download
from metadata_loader import run_metadata_load
if __name__ == "__main__":
# with CodeTimer("Downloader", unit="s"):
# if not os.environ["ENV"] == "DEVELOPMENT":
# download()
with CodeTimer("Importer", unit="s"):
load()
with CodeTimer("Import Metadata.csv", unit="s"):
run_metadata_load()
def speed_experiment(n):
#open geographic information
centroids_meters, centroids_feet = open_locations_data()
r_s = 3000
experiment_data = []
#get count sets for the observations
with open('../../Experimental_Data/countdata.json', 'r') as infile:
count_sets = json.load(infile)
total_data = []
#Run the speed test 10 times to take average of later
for i in range(10):
speed_data = []
for t in range(12):
data = {"t": t}
print("Time:", t)
data['g_times'] = []
data['lb_times'] = []
data['ub_times'] = []
counts = count_sets[t]
timer = CodeTimer()
problem = probabilistic_coverage.probabilistic_coverage(
centroids_meters,
centroids_meters,
counts,
r_s,
soft_edges=True,
soft_edge_eps=0.005)
n_s = list(range(1, n + 1, 3))
X = problem.get_X()
ap = approximator.approximator(problem.objective, 2)
#S, times = problem.greedy_with_timing(n)
#execute the 3 algorithms
for n_i in n_s:
print("n = ", n_i)
print("Classical Greedy")
with timer:
S = ap.greedy_fit(X, n_i)
data['g_times'].append(timer.took)
print("Pessimisitic Greedy")
with timer:
S = ap.pairwise_fit(X, n_i, lb=True)
data['lb_times'].append(timer.took)
print("Optimistic Greedy")
with timer:
S = ap.pairwise_fit(X, n_i, lb=False)
data['ub_times'].append(timer.took)
print(data)
speed_data.append(data)
total_data.append(speed_data)
#save the data
now = datetime.datetime.now()
date_time = now.strftime("%m-%d-%Y_%H-%M")
with open(
'../../../Experimental_Data/speed experiment ' + date_time +
"_soft.json", 'w+') as outfile:
json.dump(speed_data, outfile)
from py2neo import Graph
from linetimer import CodeTimer
graph = Graph(scheme="bolt")
graph.run('MATCH (a) DETACH DELETE a')
graph.run("""UNWIND range(0, 250000) as i CREATE (t:Test)
SET t.a = 'aaaaaaaaa', t.b = 'bbbbbbbbb', t.c = 'ccccccccc'
""")
# large data query
query = 'MATCH (t:Test) RETURN t.a as a, t.b as b, t.c as c'
results = graph.run(query)
with CodeTimer('Iterate over list of results', unit='s'):
for x in results:
pass
results = graph.run(query)
with CodeTimer('.to_data_frame()', unit='s'):
results.to_data_frame()
results = graph.run(query)
with CodeTimer('.data()', unit='s'):
results.data()
while l < r and nums[l] == left:
l += 1
while l < r and nums[r] == right:
r -= 1
else:
while i < nl:
sub_result = nSumTarget(nums, n - 1, i + 1, target - nums[i])
for res in sub_result:
res = [nums[i]] + res
result.append(res)
while i < nl - 1 and nums[i] == nums[i + 1]:
i += 1
i += 1
print(result)
return result
def nSum(nums: List[int], n: int, target: int) -> List[List[int]]:
nums.sort()
return nSumTarget(nums, n, 0, target)
if __name__ == "__main__":
nums = [1, 0, -1, 0, -2, 2]
n = 4
target = 0
with CodeTimer("n_sum"):
try:
res = nSum(nums, n, target)
assert res == [[-2, -1, 1, 2], [-2, 0, 0, 2], [-1, 0, 0, 1]]
except:
print(res)
def effectiveness_experiment(n):
"""
Function run the performance efffective expirements. First it collects the problem to run the problem on and then the
exectues the greedy and pairwise algorithms on each of the sets of data and records them to a json file.
"""
#get york city geo data
centroids_meters, centroids_feet = open_locations_data()
r_s = 3000
experiment_data = []
#Collect Data for testing
count_sets = []
for t in range(12):
start_time = datetime.datetime(2020, 1, 1, 0, 0,
0) + datetime.timedelta(hours=2 * t)
end_time = datetime.datetime(2020, 1, 1, 2, 0,
0) + datetime.timedelta(hours=2 * t)
print(start_time)
counts = open_ride_data(start_time, end_time)
count_sets.append(counts)
# begin executing data
for t in range(12):
estimated_bounds = []
theoretical_bounds = []
greedy_values = []
lb_values = []
#logging
start_time = datetime.datetime(2020, 1, 1, 0, 0,
0) + datetime.timedelta(hours=2 * t)
end_time = datetime.datetime(2020, 1, 1, 2, 0,
0) + datetime.timedelta(hours=2 * t)
print(start_time)
counts = count_sets[t]
#set up timers
g_timer = CodeTimer("greedy time", unit="s")
lb_timer = CodeTimer("lb time", unit="s")
ub_timer = CodeTimer("ub time", unit="s")
trial_data = {"n": n, "t": t}
#initalize problem
problem = probabilistic_coverage.probabilistic_coverage(
centroids_meters,
centroids_meters,
counts,
r_s,
soft_edges=False,
soft_edge_eps=0.0005)
X = problem.get_X()
ap = approximator.approximator(problem.objective, 2)
# execute Algorithms
with g_timer:
S = ap.greedy_fit(X, n)
trial_data["greedy_time"] = g_timer.took
with lb_timer:
S_lower = ap.pairwise_fit(X, n, lb=True)
trial_data["lb_time"] = lb_timer.took
with ub_timer:
S_upper = ap.pairwise_fit(X, n, lb=False)
trial_data["ub_time"] = ub_timer.took
# Lower Bound Approximation Analysis
print("computing bounds for lower bound algo")
S_g_l = ap.find_greedy_choices(S_lower, X)
S_u_l = ap.find_greedy_choices(S_lower, X, upperbound=True)
theoretical_alphas_lb = compute_theoretical_alphas(
S_g_l, S_lower, problem)
trial_data["theoretical_bounds_lb"] = [
compute_bound_sequential(theoretical_alphas_lb[:i + 1])
for i in range(len(theoretical_alphas_lb))
]
estimated_alphas_lb = [
ap.pairwise_upperbound(S_u_l[i], S_lower[:i]) /
max([ap.pairwise_lowerbound(S_lower[i], S_lower[:i]), 0.0000001])
for i in range(n)
]
trial_data["estimated_bounds_lb"] = [
compute_bound_sequential(estimated_alphas_lb[:i + 1])
for i in range(len(estimated_alphas_lb))
]
print("computing bounds for upper bound algo")
S_g_u = ap.find_greedy_choices(S_upper, X)
theoretical_alphas_ub = compute_theoretical_alphas(
S_g_u, S_upper, problem)
trial_data["theoretical_bounds_ub"] = [
compute_bound_sequential(theoretical_alphas_ub[:i + 1])
for i in range(len(theoretical_alphas_ub))
]
estimated_alphas_ub = [
ap.pairwise_upperbound(S_upper[i], S_upper[:i]) /
max([ap.pairwise_lowerbound(S_upper[i], S_upper[:i]), 0.00001])
for i in range(n)
]
trial_data["estimated_bounds_ub"] = [
compute_bound_sequential(estimated_alphas_ub[:i + 1])
for i in range(len(estimated_alphas_ub))
]
trial_data["greedy_values"] = [
ap.f(S[:i]) for i in range(1,
len(S) + 1)
]
trial_data["lb_values"] = [
ap.f(S_lower[:i]) for i in range(1,
len(S) + 1)
]
trial_data["ub_values"] = [
ap.f(S_upper[:i]) for i in range(1,
len(S) + 1)
]
experiment_data.append(trial_data)
print(experiment_data)
now = datetime.datetime.now()
date_time = now.strftime("%m-%d-%Y_%H-%M")
print("date and time:", date_time)
with open('../../Experimental_Data/experiment ' + date_time + "_soft.json",
'w+') as outfile:
json.dump(experiment_data, outfile)
def set_version():
centroids_meters, centroids_feet = open_locations_data()
r_s = 4000
t = 6
start_time = datetime.datetime(2020,1,1,0, 0, 0)+datetime.timedelta(hours=2*t)
end_time = datetime.datetime(2020,1,1,2, 0, 0)+datetime.timedelta(hours=2*t)
print(start_time)
counts = open_ride_data(start_time,end_time)
problem1 = probalistic_coverage.ProbablisticCoverage.from_events_and_sensors(centroids_meters,centroids_meters,counts,r_s)
problem2 = probalistic_coverage.ProbablisticCoverage_v2(centroids_meters,centroids_meters,counts,r_s)
problem3 = probalistic_coverage.ProbablisticCoverage_v2(centroids_meters,centroids_meters,counts,r_s,soft_edges = True,soft_edge_eps = 0.05)
# with CodeTimer("P1 not soft"):
# o1 = problem1.objective(problem1.sensors[:100],soft = False)
# print("problem 1 Objective",o1)
# with CodeTimer("P1 soft"):
# o2 = problem1.objective(problem1.sensors[:100],soft = True)
# print("problem 1 Objective",o2)
# with CodeTimer("P2 not soft"):
# o3 = problem2.objective(list(range(100)))
# print("problem 2 Objective",o3)
# with CodeTimer("P2 soft"):
# o4 = problem3.objective(list(range(100)))
# print("problem 3 Objective",o4)
# with CodeTimer("Greedy 1"):
# S = problem1.greedy(10,soft = False)
# print(problem1.objective(S))
ct = CodeTimer()
g_times = []
lb_times = []
ac_times = []
acg_times = []
g_values = []
lb_values = []
ac_values = []
acg_values = []
n_s = list(range(1,200,5))
for n_test in n_s:
with ct:
S = problem2.greedy(n_test)
g_times.append(ct.took)
v = problem2.objective(S)
print(v)
g_values.append(v)
with ct:
S = problem2.lb_greedy_2(n_test)
lb_times.append(ct.took)
v = problem2.objective(S)
print(v)
lb_values.append(v)
with ct:
S = problem2.lb_greedy_accel(n_test)
ac_times.append(ct.took)
v = problem2.objective(S)
print(v)
ac_values.append(v)
with ct:
S = problem2.lb_greedy_accel_general(n_test)
acg_times.append(ct.took)
v = problem2.objective(S)
print(v)
acg_values.append(v)
plt.figure()
plt.plot(n_s,g_times)
plt.plot(n_s,lb_times)
plt.plot(n_s,ac_times)
plt.plot(n_s,acg_times)
plt.legend(["g","lb","ac","acg"])
print(ac_values)
print(lb_values)
plt.figure()
plt.plot(n_s,g_values)
plt.plot(n_s,lb_values)
plt.plot(n_s,ac_values)
plt.plot(n_s,acg_values)
plt.legend(["g","lb","ac","acg"])
plt.show()
print("original",problem2.pairwise_lowerbound(11,list(range(10))))
print("accelerated",problem2.pairwise_lowerbound_v2(11,list(range(10))))
os.path.realpath(os.path.join(os.getcwd(), os.path.expanduser(__file__)))
)
SCRIPT_DIR = os.path.join(SCRIPT_DIR, "..")
sys.path.append(os.path.normpath(SCRIPT_DIR))
from dataloader.download_data import download
from dataloader.load_data import load_data, load_data_mp
# Adapt to CovidGraph Dataloaders env API
if __name__ == "__main__":
config = getConfig()
print(
"Start with loglevel '{}' and ENV={}".format(
config.LOG_LEVEL, os.getenv("ENV", "DEVELOPMENT")
)
)
with CodeTimer("Downloader", unit="s"):
download()
with CodeTimer("Importer", unit="s"):
if config.NO_OF_PROCESSES == 1:
load_data()
elif config.NO_OF_PROCESSES > 1:
load_data_mp(config.NO_OF_PROCESSES, config.PAPER_BATCH_SIZE)
else:
config.NO_OF_PROCESSES
cypher_transaction_block = []
record = True
for line in lines:
stripped_line = line.replace('\r', '').replace('\n', '').strip()
if stripped_line == ":begin":
record = True
continue
elif stripped_line == ":commit":
record = False
commit(
isolate_single_statements_in_transaction_block(
cypher_transaction_block))
cypher_transaction_block = []
continue
if record:
# ignore empty line. only record lines with content
if stripped_line:
cypher_transaction_block.append(stripped_line)
# Delete existing/old source files, to prevent confusion with newer files
clean_data_sources()
# Download source files
download_data()
for filename in os_sorted(os.listdir(DATASOURCE_PATH)):
if filename.endswith(".cypher"):
print(f"Start processing '{filename}'")
with CodeTimer(filename, unit="s"):
parse_cypher_file(os.path.join(DATASOURCE_PATH, filename))
async def deepl_tr(
text: str,
from_lang: str = "auto",
to_lang: str = "zh",
page=None,
verbose: Union[bool, int] = False,
timeout: float = 5,
):
# fmt: on
"""Deepl via pyppeteer.
text = "Test it and more"
from_lang="auto"
to_lang="zh"
page=PAGE
verbose=True
"""
#
# set verbose=40 to turn most things off
if isinstance(verbose, bool):
if verbose:
logzero.setup_default_logger(level=10)
else:
logzero.setup_default_logger(level=20)
else: # integer: log_level
logzero.setup_default_logger(level=verbose)
logger.debug(" Entry ")
if page is None:
try:
# browser = await get_ppbrowser()
browser = await pyppeteer.launch()
except Exception as exc:
logger.error(exc)
raise
try:
page = await browser.newPage()
except Exception as exc:
logger.error(exc)
raise
url = r"https://www.deepl.com/translator"
try:
await page.goto(url, timeout=45 * 1000)
except Exception as exc:
logger.error(exc)
raise
url0 = f"{URL}#{from_lang}/{to_lang}/"
url_ = f"{URL}#{from_lang}/{to_lang}/{quote(text)}"
# selector = ".lmt__language_select--target > button > span"
if verbose < 11 or verbose is True:
_ = False # silent
else:
_ = True
with CodeTimer(name="fetching", unit="s", silent=_):
_ = """
await page.goto(url0)
try:
await page.waitForSelector(selector, timeout=8000)
except Exception as exc:
raise
# """
try:
content = await page.content()
except Exception as exc:
logger.error(exc)
raise
doc = pq(content)
text_old = doc('#source-dummydiv').text()
logger.debug("Old source: %s", text_old)
try:
deepl_tr.first_run
except AttributeError:
deepl_tr.first_run = 1
text_old = "_some unlikely random text_"
# selector = "div.lmt__translations_as_text"
if text.strip() == text_old.strip():
logger.debug(" ** early result: ** ")
logger.debug("%s, %s", text,
doc('.lmt__translations_as_text__text_btn').text())
doc = pq(await page.content())
content = doc('.lmt__translations_as_text__text_btn').text()
else:
# record content
try:
# page.goto(url_)
await page.goto(url0)
except Exception as exc:
logger.error(exc)
raise
try:
await page.waitForSelector(".lmt__translations_as_text",
timeout=20000)
except Exception as exc:
logger.error(exc)
raise
doc = pq(await page.content())
content_old = doc('.lmt__translations_as_text__text_btn').text()
# selector = ".lmt__translations_as_text"
# selector = ".lmt__textarea.lmt__target_textarea.lmt__textarea_base_style"
# selector = ".lmt__textarea.lmt__target_textarea"
# selector = '.lmt__translations_as_text__text_btn'
try:
await page.goto(url_)
except Exception as exc:
logger.error(exc)
raise
try:
await page.waitForSelector(".lmt__translations_as_text",
timeout=20000)
except Exception as exc:
logger.error(exc)
raise
doc = pq(await page.content())
content = doc('.lmt__translations_as_text__text_btn').text()
logger.debug("content_old: [%s], \n\t content: [%s]", content_old,
content)
# loop until content changed
idx = 0
# bound = 50 # 5s
while idx < timeout / 0.1:
idx += 1
await asyncio.sleep(.1)
doc = pq(await page.content())
content = doc('.lmt__translations_as_text__text_btn').text()
logger.debug("content_old: (%s), \n\tcontent: (%s)",
content_old, content)
if content_old != content and bool(content):
break
logger.debug(" loop: %s", idx)
logger.debug(" Fini ")
await page.close()
await browser.close()
browser.process.communicate()
return content
