def get_devs():
data1 = fi.read_file("bdev")
data2 = fi.read_file("vdev")
data3 = fi.read_file("rdev")
b = data1[:]
v = data2[:]
r = data3[:]
N = len(b) - 1
bsq = np.power(b, 2)
bquot = np.divide(bsq, N)
bsum = np.sum(bquot)
bd = np.sqrt(bsum)
#print str("b error = " + str(bd))
vsq = np.power(v, 2)
vquot = np.divide(vsq, N)
vsum = np.sum(vquot)
vd = np.sqrt(vsum)
#print str("v error = " + str(vd))
rsq = np.power(r, 2)
rquot = np.divide(rsq, N)
rsum = np.sum(rquot)
rd = np.sqrt(rsum)
#print str("r error = " + str(rd))
bsigma.write(str(bd) + "\n")
def make_notice(args):
logging.info("Making notice")
components = []
if args.maven:
components.extend(convert_maven(read_file(args.maven)))
if args.node:
components.extend(convert_node(read_file(args.node)))
logging.info("Update the cache")
for component in components:
if not is_component_cached(component):
write_component_to_cache(component, download_definition(component))
logging.info("Collect licenses")
lib_description = []
for component in components:
data = read_component(component)
if data:
try:
description = construct_lib_description(data)
except KeyError:
logging.error(
f'package {component.to_string()} have bad representation')
continue
if description.license in ['OTHER', 'NOASSERTION']:
logging.error(
f'package {component.to_string()} have not defined license'
)
lib_description.append(construct_lib_description(data))
else:
logging.error(f'component {component.to_string()} is not defined')
with open('NOTICE', 'w') as notice:
notice.write('## Third-party Content\n')
for lib in sorted(lib_description, key=lambda item: item.name):
notice.write(
f'\n{lib.name} ({lib.version})\n\n * License: {lib.license}\n')
def preprocess(houses=HOUSES,
channels=CHANNELS,
path=PATH,
threshold=THRESHOLD,
input_ftype=INPUT_FTYPE,
output_ftype=OUTPUT_FTYPE):
"""
Maps the match_times_channel function to all of the given channels
"""
ls = []
for house in houses:
times_m, data_m_1 = read_file(
path + f"/house_{house}/channel_1.{input_ftype}", input_ftype)
_, data_m_2 = read_file(
path + f"/house_{house}/channel_2.{input_ftype}", input_ftype)
data_m = data_m_1 + data_m_2
times_m, data_m = remove_negative_diffs(times_m,
data_m,
input_ftype=None,
output_ftype=None)
times_m, data_m = join_results(
interpolate_channel(times_m,
data_m,
threshold=threshold,
input_ftype=None,
output_ftype=None))
for channel in channels[house]:
times_c, data_c = read_file(
path + f"/house_{house}/channel_{channel}.{input_ftype}",
input_ftype)
times_c, data_c = remove_negative_diffs(times_c,
data_c,
input_ftype=None,
output_ftype=None)
times_c, data_c = join_results(
interpolate_channel(times_c,
data_c,
threshold=threshold,
input_ftype=None,
output_ftype=None))
max_power = get_max_power(house, channel, path)
times_m_copy, data_m_copy = np.copy(times_m), np.copy(data_m)
l = match_times_channel((times_c, times_m_copy, house),
(data_c, data_m_copy, channel),
path=path,
threshold=threshold,
input_ftype=None,
output_ftype=output_ftype,
scale=max_power,
mean=True)
ls.append(l)
if not output_ftype: return ls
def get_least_p():
p_data = fi.read_file("ks_output_5.csv", ",")
p_val = p_data[:, 0]
r_i = p_data[:, 1]
r_f = p_data[:, 2]
N = p_data[:, 3]
m = 0
least_p_list = []
while m < len(p_val):
if p_data[m, 0] < 0.05:
if N[m] >= 6:
if r_f[m] - r_i[m] <= 8:
if r_f[m] - r_i[m] >= 3:
least_p_list.append(p_data[m, :])
m = m + 1
else:
m = m + 1
else:
m = m + 1
else:
m = m + 1
else:
m = m + 1
least_p_array = np.array(least_p_list)
print least_p_array
def read_output(ofile):
lines = ff.read_file(ofile)
E = float(lines[0])
gcc = [line.split() for line in lines[1:]]
gcc = fncs.flatten_llist(gcc)
gcc = [float(g_i) for g_i in gcc]
return E, gcc
def view_catalog():
catalog = f.read_file()
i = 1
for item in catalog:
title = get_product_title(item)
print "{0}) {1}".format(i, title)
i += 1
def main():
for xml_file, py_file in get_files():
print("Simulating %s ... " % colored(xml_file, attrs=["bold"]))
sim_result = psim(read_file(xml_file), {}, {"quiet": True})
test_result = run_tests(sim_result, py_file)
if not test_result:
sys.exit(1)
def select_quote():
quotes = read_file(join(NOTES_DIR,"SeamansLog/LifeLessons"))
if len(quotes)>1:
n = randint(0, len(quotes)-1)
return quotes[n]
else:
return 'No quote'
def read_context(self):
try:
atoms = pickle.loads(read_file(self.context_file))
for name, value in atoms.iteritems():
self.set(name, value)
except IOError:
pass
def get_site_title(site):
if site=='': site = '/'
#file path:/home/seaman/webapps/mybook/Private/HarborWalk/EmailNeighbors
#site: ../Private/HarborWalk/
content = read_file(get_doc_path(site+'Title'))
if len(content)>0:
return [ convert_line(content[0]), content[1] ]
return [ 'Shrinking World Guides', 'Tips for thriving in the modern world' ]
def main():
args = docopt(usage, version='pml v0.1')
xml = pml(app_file=args['<app.json>'],
graphml=read_file(args['<file.graphml>']),
props=read_json(args['--props']) if args['--props'] else {},
params=parse_params(args['--param'] or ''),
prettify=args['--pretty'])
print(xml)
def instance(xml_file):
"""Show graph instance information of an XML file."""
xml = read_file(xml_file)
instance = parse_poets_xml(xml)[1]
result = {
"devices": len(instance["devices"]),
"edges": len(instance["edges"])
}
pp(result)
def test_post_crud():
# * CSV file post 'Rattlesnakes, I hate snakes'
open_CSV()
# * Print post list
print_post()
# * Add post 'Kittens, Kittens are Fuzzy'
add_posts()
write.('Kittens, Kittens are Fuzzy')
write_post('Kittens, Kittens are Fuzzy')
# * Add user_id of 4 to posts
add_users()
# * Print posts showing user names
print_posts_users()
# * Remove post
remove_post()
# * Remove user
remove_users()
text = "line1\nline2"
path = 'test.txt'
write_file(path, text)
t = read_file(path)
print('text:'+text+'$')
print('t:'+t+'$')
assert(t==text)
assert(t!=text)
pass
def fit_params(lraw, braw, rraw, vgsrraw):
rawdata = fi.read_file("hyllus_pm2_7stars_092816.csv", ",")
lraw = rawdata[:, 2]
braw = randbarray[:]
rraw = rawdata[:, 4]
vgsrraw = rawdata[:, 5]
os.system("touch orbit.input")
inputfile = open('orbit.input', 'r+')
j = 0
for j in range(len(lraw)):
print >> inputfile, lraw[j], braw[j], vgsrraw[j], rraw[j]
inputfile.close()
def add_jcl_file(imagename, dockerfile):
jclfile = options.jcl_name(imagename)
jcl_data = ""
if os.path.isfile(jclfile):
# use local jcl file
print("Using jockler definition from %s ..." % jclfile)
jcl_data = files.read_file([jclfile])
# deserialize and re-serialize as syntax check
jcl_data = json.dumps(json.loads(jcl_data), indent=2)
else:
print("Generating jockler data from %s ..." % dockerfile)
# generate jcl file from dockerfile
jcl_data = extract_jcl_data(imagename, dockerfile)
store.write_data(jclfile, imagename, jcl_data)
def psim(xml_input, rmap={}, options={}):
"""Simulate POETS XML.
Arguments:
- xml_input (str) : an XML file or string.
- rmap (dict) : device region map [optional].
- options (dict) : simulation options [optional].
See docstring of simulator.simulate for simulation options documentation.
Return:
- result (dict) : simulation result.
"""
xml = read_file(xml_input) if is_file(xml_input) else xml_input
schema = Schema(xml, rmap)
result = simulate(schema, options)
return result
def devices(xml_file):
"""Show device type information of an XML file."""
attr = lambda atribute, items: [item[atribute] for item in items]
xml = read_file(xml_file)
graph_type = parse_poets_xml(xml)[0]
devices = {
dev["id"]: {
"state": {
"scalars": attr("name", dev["state"].get("scalars", [])),
"arrays": attr("name", dev["state"].get("arrays", []))
},
"pins": {
"input": attr("name", dev["input_pins"]),
"output": attr("name", dev["output_pins"])
}
}
for dev in graph_type["device_types"]
}
pp(devices)
def init_data_for_test(file):
if file is None:
return False
data = read_file(file)
record_list = []
user_ids = []
for line in data:
detail = str(line).split('-')
if len(detail) == 4:
record = action_log(user_id=str(detail[0]), action_id=str(detail[1]), item_id=str(detail[2]), time_line=str(detail[3]), uuid=None)
record_list.append(record)
user_ids.append(str(detail[0]))
user_list = list(set(user_ids))
for user_id in user_list:
redis_util.delete_action_log(user_id, None, 'user_itemall')
redis_util.delete_action_log(user_id, None, None)
cassandra_util.insert_action_record(record_list)
return True
def remove_negative_diffs(house_or_times, channel_or_data, path=PATH, input_ftype=INPUT_FTYPE, output_ftype=OUTPUT_FTYPE):
"""
Removes negative time differences within the data
"""
if input_ftype:
house, channel = house_or_times, channel_or_data
times, data = read_file(path + f"/house_{house}/channel_{channel}.{input_ftype}", input_ftype)
else:
house = channel = "undefined"
times, data = house_or_times, channel_or_data
sortinds = times.argsort()
new_times = times[sortinds]
new_data = data [sortinds]
if output_ftype:
write_file(path + f"/house_{house}/channel_{channel}.{output_ftype}", new_times, new_data, output_ftype)
else:
return new_times, new_data
def incoming_email(request):
logging.info(request.POST)
filename= request.POST['filename']
logging.info("filename = %s"%(filename))
data = files.read_file(filename)
logging.info('email fetch ok')
email = EmailMessage(data)
a_to = parseaddr(email.to)[1]
a_from = parseaddr(email.sender)[1]
logging.info('email.to=%s'%a_to)
logging.info('email.sender=%s'%a_from)
r = re.match(r'^import-email-(\d+)@',a_to)
if r:
logging.info('import email, id %s'%r.group(1))
process_incoming_email_template(r.group(1),data)
return HttpResponse("ok - import email")
return HttpResponse('ok - ign')
def test_article_crud():
# * CSV file Article 'Rattlesnakes, I hate snakes'
# * Print Article list
# * Add Article 'Kittens, Kittens are Fuzzy'
# * Add author_id of 4 to Articles
# * Print Articles showing Author names
# * Select articles for Author 4
# * Lookup '4, Kittens'
# * Change 'Kittens' body to 'Kittens are cute!'
# * Remove Article
# * Remove Author
text = "line1\nline2"
path = 'test.txt'
write_file(path, text)
t = read_file(path)
print('text:' + text + '$')
print('t:' + t + '$')
assert (t == text)
assert (t != text)
def read_ispe(filename):
'''
read input file for ispe
'''
# read lines
lines = ff.read_file(filename)
lines = fncs.clean_lines(lines, strip=True)
# initialize data
ispe_xy = []
VR, VP = None, None
tension = 0.0
# find data in lines
for line in lines:
if line == "\n": continue
label, val = line.split()
val = float(val)
if label.lower() == "tension": tension = val
elif label.lower() == "reac": VR = val
elif label.lower() == "prod": VP = val
else: ispe_xy.append((label, val))
return ispe_xy, tension, VR, VP
def set_EXE():
global EXE
txt = os.path.dirname(os.path.realpath(__file__)) + "/paths.txt"
# Defined in this file
if 'EXE' in globals():
return
# Try to export it from bashrc
elif "OrcaExe" in os.environ:
# in .bashrc: export OrcaExe="$MYHOME/Software/orca_4_0_1_2/orca"
EXE = os.environ["OrcaExe"]
return
# Export it from file
elif os.path.exists(txt):
lines = read_file(txt)
lines = clean_lines(lines, "#", True)
for line in lines:
if line == "\n": continue
name, path = line.split()
if name == "orca":
EXE = path
return
# Not found
else:
raise Exc.ExeNotDef(Exception)
'r+') #name of output file
j = 0
for j in range(len(newl1)):
print >> test1, newl1[j], newb1[j], newrgal1[j], newrsol1[j], newvgsr1[
j], newx1[j], newy1[j], newz1[j]
test1.close()
py.scatter(newl1, newb1, c='r')
py.plot(l3, b3)
py.plot(l2, b2)
py.show()
if __name__ == "__main__":
data1 = fi.read_file("sidd.5.05e6.globular.2.02B.params",
" ") #name of input nbody file
data2 = fi.read_file("hermustest31.back.0.25B.params.small",
",") #names of input orbit files
data3 = fi.read_file("hermustest31.forward.0.25B.params.small", ",")
#for Pauls nbody data and orbit params
l1 = data1[:, 10]
b1 = data1[:, 11]
x1 = data1[:, 0]
y1 = data1[:, 1]
z1 = data1[:, 2]
rgal1 = data1[:, 6]
rsol1 = data1[:, 8]
vgsr1 = data1[:, 9]
leny = int(np.amax(y) - np.amin(y))
vdispmatrix = np.zeros((leny, lenx))
i = 0
j = 0
while i < lenx:
while j < leny:
counter = (180 * i) + j
vdispmatrix[j][i] = z[counter]
j = j + 1
i = i + 1
j = 0
data = vdispmatrix
dx = np.arange(lmin, lmax, lrange / 10)
dy = np.arange(bmin + 90, bmax + 90, brange / 10)
pl.xticks(dx)
pl.yticks(dy)
pl.xlim(lmin, lmax)
pl.ylim(bmin + 90, bmax + 90)
pl.xlabel('l')
pl.ylabel('b + 90')
pl.pcolor(data, vmin=0, vmax=100)
pl.colorbar()
pl.show()
if __name__ == "__main__":
data1 = fi.read_file(str(filename))
x = np.asarray(data1[:, 1])
y = np.asarray(data1[:, 2])
z = np.asarray(data1[:, 0])
vdispplot(x, y, z)
import os
import files as fi
def get_devs(b, v, r):
N = len(b)
bsq = np.power(b, 2)
bquot = np.divide(bsq, N)
bsum = np.sum(bquot)
bd = np.sqrt(bsum)
print str("b error = " + str(bd))
vsq = np.power(v, 2)
vquot = np.divide(vsq, N)
vsum = np.sum(vquot)
vd = np.sqrt(vsum)
print str("v error = " + str(vd))
rsq = np.power(r, 2)
rquot = np.divide(rsq, N)
rsum = np.sum(rquot)
rd = np.sqrt(rsum)
print str("r error = " + str(rd))
if __name__ == "__main__":
data1 = fi.read_file("bdev")
data2 = fi.read_file("vdev")
data3 = fi.read_file("rdev")
b = data1[:]
v = data2[:]
r = data3[:]
get_devs(b, v, r)
relatorio = []
d = os.getcwd()
d1 = os.path.join(d, "compostos")
nome_do_arquivo_1 = input(
"Insira nome do arquivo do grafo 1(incluindo o .txt): ")
fname1 = os.path.join(d1, nome_do_arquivo_1)
relatorio.append("RELATÓRIO")
relatorio.append("Arquivo do composto 1: ")
relatorio.append(fname1)
graph1 = Graph()
file = file_to_list(read_file(fname1).split('\n'))
graph1.add_edges(file[0])
print("\nLegenda dos grafos:")
print("Vértice: [Lista de arestas]\n")
print("GRAFO 1")
relatorio.append(' ')
relatorio.append("Legenda dos grafos:")
relatorio.append("Vértice: [Lista de arestas]")
relatorio.append("GRAFO 1")
for key, value in graph1.nodes_edges.items():
print("{}: {}".format(key, value))
string1 = "{}: {}".format(key, value)
relatorio.append(string1)
import scipy as sp
import numpy as np
import math as ma
import matplotlib.pyplot as py
import files as fi
#filename = raw_input("Enter filename: ")
#lcol = int(raw_input("Enter l column: "))
#bcol = int(raw_input("Enter b column: "))
#lmin = float(raw_input("Min l value: "))
#lmax = float(raw_input("Max l value: "))
#bmin = float(raw_input("Min b value: "))
#bmax = float(raw_input("Max b value: "))
def orbit_polynomial(l, b):
l1 = l[0, :]
b1 = b[0, :]
#print l
#print b
orbfit = np.polyfit(l1, b1, 3)
print orbfit
if __name__ == "__main__":
data1 = fi.read_file("hermus_ra_dec_l_b", ",")
l = np.array([data1[:, 2]])
b = np.array([data1[:, 3]])
orbit_polynomial(l, b)
import matplotlib.pyplot as plt
import pylab as py
import files as fi
data = fi.read_file("50_orbits_vary_data.csv", ",")
data1 = fi.read_file("hermustest64.forward.100M.csv.params", ",")
data2 = fi.read_file("hermustest64.back.100M.csv.params", ",")
x = data[:, 0]
y = data[:, 1]
z = data[:, 2]
r = data[:, 8]
vgsr = data[:, 9]
l = data[:, 10]
i = 0
for i in range(len(l)):
if l[i] > 180:
l[i] = l[i] - 360.0
b = data[:, 11]
xorbfor = data1[:, 0]
yorbfor = data1[:, 1]
zorbfor = data1[:, 2]
rorbfor = data1[:, 8]
vgsrorbfor = data1[:, 9]
lorbfor = data1[:, 10]
j = 0
for j in range(len(lorbfor)):
if lorbfor[j] > 180:
lorbfor[j] = lorbfor[j] - 360.0
borbfor = data1[:, 11]
'r+') #name of output file
j = 0
for j in range(len(newl1)):
print >> test1, newl1[j], newb1[j], newrgal1[j], newrsol1[j], newvgsr1[
j], newx1[j], newy1[j], newz1[j]
test1.close()
py.scatter(newl1, newb1, c='r')
py.plot(l3, b3)
py.plot(l2, b2)
py.show()
if __name__ == "__main__":
data1 = fi.read_file("hermus.1e5.10pc.orb61.2.05B.nbody.params",
",") #name of input nbody file
data2 = fi.read_file("hermustest61.forward.250M.params.small",
",") #names of input orbit files
data3 = fi.read_file("hermustest61.back.250M.params.small", ",")
#for Pauls nbody data and orbit params
l1 = data1[:, 10]
b1 = data1[:, 11]
x1 = data1[:, 0]
y1 = data1[:, 1]
z1 = data1[:, 2]
rgal1 = data1[:, 6]
rsol1 = data1[:, 8]
vgsr1 = data1[:, 9]
def get_headline(page):
text = read_file(page)
if len(text)>0: return convert_line(text[0]).replace('*','')
return 'Shrinking World Guides'
def interpolate_channel(house_or_times, channel_or_data, threshold=THRESHOLD, path=PATH, input_ftype=INPUT_FTYPE, output_ftype=OUTPUT_FTYPE):
"""
Goes over all the data in a given channel, interpolates and splits it
"""
if input_ftype:
house, channel = house_or_times, channel_or_data
times, data = read_file(path + f"/house_{house}/channel_{channel}.{input_ftype}", input_ftype)
else:
house = channel = "undefined"
times, data = house_or_times, channel_or_data
times, data = remove_negative_diffs(times, data, input_ftype=None, output_ftype=None)
# Calculate the differences between the consecutive timestamps
diffs = np.diff(times)
# Discard those with difference 1, and add the index in the original array
l1 = np.array([diffs, np.arange(len(diffs))]).transpose()[(diffs - 1).astype(np.bool)]
arrays = []
current_times = np.empty(times[-1] - times[0], dtype = np.int32)
current_data = np.empty(times[-1] - times[0], dtype = np.float32)
array_index = 0
last_i = -1
for diff, i in l1:
if diff == 0:
current_times[array_index : array_index + i - last_i] = times[last_i : i]
current_data [array_index : array_index + i - last_i] = data [last_i : i]
array_index += i - last_i
last_i = i
continue
# Add the elements up to the current index to the current arrays
current_times[array_index : array_index + i - last_i] = times[last_i + 1 : i + 1]
current_data [array_index : array_index + i - last_i] = data [last_i + 1 : i + 1]
array_index += i - last_i
# If the time jump is less than the set threshold, interpolate between them
if diff <= threshold:
new_times, new_data = interpolate(data, times, diff, i)
current_times[array_index : array_index + diff - 1] = new_times
current_data [array_index : array_index + diff - 1] = new_data
array_index += diff - 1
# Else, start new arrays and save the current ones
else:
current_times.resize((array_index,))
current_data .resize((array_index,))
arrays.append((np.copy(current_times), np.copy(current_data)))
current_times = np.empty(times[-1] - times[i], dtype = np.int32)
current_data = np.empty(times[-1] - times[i], dtype = np.float32)
array_index = 0
last_i = i
# Add the final elements to the current array
to_go = len(times) - i - 1
current_times[array_index : array_index + to_go] = times[i + 1:]
current_data [array_index : array_index + to_go] = data [i + 1:]
array_index += to_go
# Deallocate the unnecessarily allocated space
current_times.resize((array_index,))
current_data .resize((array_index,))
# Save it as well
arrays.append((current_times, current_data))
if output_ftype:
# Write all of the data to new files
for file_num, (times_array, data_array) in enumerate(arrays):
# Make the channel_?_preprocessed directory if it doesn't exist
if not os.path.exists(PATH + f"/house_{house}/channel_{channel}_preprocessed"):
os.mkdir(PATH + f"/house_{house}/channel_{channel}_preprocessed")
write_file(path + f"/house_{house}/channel_{channel}_preprocessed/file_{output_ftype}.npy", times_array, data_array, output_ftype)
else:
return arrays
def get_contents(filename):
if not isfile(filename): return ''
return text_to_html(read_file(filename)[1:])
def messages(xml_file):
"""Show message type information of an XML file."""
xml = read_file(xml_file)
gtype = parse_poets_xml(xml)[0]
messages = {msg["id"]: msg for msg in gtype["message_types"]}
pp(messages)
def domain_map():
domains = {}
for b in read_file(get_mybook_path('Domains')):
(domain,directory) = b.split(' ')
domains[domain] = directory
return domains
def read(file):
"""Read file."""
return read_file(file)
redis_cl.srem("running", pid)
@user_function
def run(xml_input, rmap={}, rcon={}, verbose=False, async=False, level=1):
"""Start process."""
# Prepare Redis keys.
pid = redis_cl.incr("process_counter")
completed = "completed-%d" % pid
process_key = get_process_key(pid)
result_queue = "result-%d" % pid
# Prepare Schema.
xml = read_file(xml_input) if is_file(xml_input) else xml_input
schema = Schema(xml, rmap)
regions = schema.get_regions()
# Prepare process and job information
process = {
"xml": xml,
"pid": pid,
"user": whoami(),
"level": level,
"nedges": len(schema.graph_inst["edges"]),
"verbose": verbose,
"ndevices": len(schema.graph_inst["devices"]),
"nregions": len(regions),
"completed": completed,
"start_time": time.time(),