def _get_app_info(self):
"""Get information about the app.
"""
info = dict()
info['core_data'] = core_data = _get_core_data()
info['extensions'] = extensions = self._get_extensions(core_data)
page_config = self._read_page_config()
info['disabled'] = page_config.get('disabledExtensions', [])
info['local_extensions'] = self._get_local_extensions()
info['linked_packages'] = self._get_linked_packages()
info['app_extensions'] = app = []
info['sys_extensions'] = sys = []
for (name, data) in extensions.items():
data['is_local'] = name in info['local_extensions']
if data['location'] == 'app':
app.append(name)
else:
sys.append(name)
info['uninstalled_core'] = self._get_uninstalled_core_extensions()
info['version'] = core_data['jupyterlab']['version']
info['sys_dir'] = self.sys_dir
info['app_dir'] = self.app_dir
info['core_extensions'] = core_extensions = _get_core_extensions()
disabled_core = []
for key in core_extensions:
if key in info['disabled']:
disabled_core.append(key)
info['disabled_core'] = disabled_core
return info
def plan_traj():
path_points = [do_trim(vt=100, gamma_deg=90, m_fuel=0.8)]
path_points.append(do_trim(vt=100, gamma_deg= 45, m_fuel = 0.4))
path_points.append(do_trim(vt=100, gamma_deg = 0,m_fuel = 0))
lin = linearize()
sys = []
ABCDs = []
gam_ref = [90,45,0]
h_ref = [0,]
for i,p in enumerate(path_points):
x0 = p[0]
u0 = p[1]
p0 = p[2]
A,B,C,D = lin(x0,u0,p0)
ABCDs.append([A,B,C,D])
sys.append(control.ss(A,B,C,D))
# A = np.array(ABCDs[0][0])
# B = np.array(ABCDs[0][1])
# v1 = np.zeros((14,1))
# v2 = np.zeros((1,15))
# v2[0,9] = -1
# Ai = np.vstack([np.hstack([A,v1]),v2])
# Bi = np.vstack([B,np.zeros(4)])
# print(np.shape(Ai))
# print(np.shape(Bi))
# q = zeros(15)
# q[14] = 40
# q[]
# K,S,E = control.lqr(Ai,Bi,)
return sys
def argfilter(args):
switches = []
sys = []
for arg in args:
if arg[0] == '-':
switches.append(arg)
else:
sys.append(arg)
return switches, " ".join(sys)
def argfilter(args):
switches = []
sys = []
for arg in args:
if arg[0] == '-':
switches.append(arg)
else:
sys.append(arg)
return switches, " ".join(sys)
def install_module(command, dest_path=None):
try:
subprocess.check_call([sys.executable, "-m", "ensurepip"])
exe = [sys.executable]
exe_cmd = exe.extend(command)
if dest_path:
subprocess.check_call(exe_cmd.extend(["-t", dest_path]))
sys.append(dest_path)
os.environ["PYTHONPATH"] = dest_path + (";" + os.environ["PYTHONPATH"] if "PYTHONPATH" in os.environ else "")
else:
subprocess.check_call(exe_cmd)
except subprocess.CalledProcessError(e):
print(e.output)
def getLTLRepresentation(self, mark_players=True, use_next=False, include_inputs=True, include_outputs=True, swap_players=False, exclude=[]):
""" Returns an LTL formula representing this state.
If `mark_players` is True, input propositions are prepended with
"e.", and output propositions are prepended with "s.". (If `swap_players`
is True, these labels will be reversed [this feature is used by Mopsy])
If `use_next` is True, all propositions will be modified by a single
"next()" operator. `include_env`, which defaults to True,
determines whether to include input propositions in addition to
output propositions. """
# Make a helpful little closure for adding operators to bare props
def decorate_prop(prop, polarity):
#### TEMPORARY HACK: REMOVE ME AFTER OTHER COMPONENTS ARE UPDATED!!!
# Rewrite proposition names to make the old bitvector system work
# with the new one
prop = re.sub(r'^([se]\.)region_b(\d+)$', r'\1bit\2', prop)
prop = re.sub(r'^([se]\.)regionCompleted_b(\d+)$', r'\1sbit\2', prop)
#################################################################
if use_next:
prop = "next({})".format(prop)
if polarity is False:
prop = "!"+prop
return prop
if swap_players:
env_label, sys_label = "s.", "e."
else:
env_label, sys_label = "e.", "s."
if include_outputs:
sys = []
for p, v in self.getOutputs(expand_domains=True).iteritems():
if p not in exclude:
sys.append(decorate_prop(sys_label+p, v))
sys_state = ' & '.join(sys)
if include_inputs:
env_state = " & ".join((decorate_prop(env_label+p, v) for p, v in \
self.getInputs(expand_domains=True).iteritems()))
if include_outputs and not include_inputs:
return sys_state
elif not include_outputs and include_inputs:
return env_state
elif include_outputs and include_inputs:
return " & ".join([env_state, sys_state])
else:
print "please specified either outputs or inputs to print"
def _format(self, n):
'''Helper function for _makeMoreChannels()'''
n = [i for i in n.split(';')]
sys = []
dev = []
for elem in n:
if ':' in elem:
sys.append(elem.split(':')[0])
dev.append(elem.split(':')[1])
else:
sys.append(elem)
dev.append('None')
return sys, dev
def get_systematics(file, overrides={}, rename=lambda u: u, samples=False):
"""Reads `file` and returns a list of (uncertainty, type, {sample:
value}).
The parameter `overrides` allows to specify a dict of form
{uncertainty: value}, and values of "x" n the systematics file are
replaced by the one specified in the dict.
A function passed as `rename` allows to alter the uncertainty name,
_after_ all other processing has happened.
The parameter `samples` can be set to `True` to obtain the available
sample names defined in the systematics file.
"""
reader = csv.DictReader(open(file))
reader.fieldnames = map(str.strip, reader.fieldnames)
sys_samples = reader.fieldnames[2:]
if samples:
return sys_samples
sys = []
# create a list whose elements are the tuples
# (uncertainty, type, {sample:value})
# row is a list of the items in the row
for row in reader:
# comment character
# if the line is not empty
if len(row) >0:
# print row
# if the row starts with comment #
if re.match("^#", row["Uncertainty"]):
continue
# end if re.match
# end if len
unc = row.pop("Uncertainty").strip()
type = row.pop("Type").strip()
# `row` is a dictionary with sample names as keys. Strip spaces
# from the actual value
row = dict(map(lambda (k,v): (k, v.strip()), row.items()))
if unc in overrides:
row = dict(
map(
lambda (k,v): (k, overrides[unc] if v == "x" else v),
row.items()))
sys.append((rename(unc), type, row))
return sys
def get_systematics(file, overrides={}, rename=lambda u: u, samples=False):
"""Reads `file` and returns a list of (uncertainty, type, {sample:
value}).
The parameter `overrides` allows to specify a dict of form
{uncertainty: value}, and values of "x" n the systematics file are
replaced by the one specified in the dict.
A function passed as `rename` allows to alter the uncertainty name,
_after_ all other processing has happened.
The parameter `samples` can be set to `True` to obtain the available
sample names defined in the systematics file.
"""
reader = csv.DictReader(open(file))
reader.fieldnames = map(str.strip, reader.fieldnames)
sys_samples = reader.fieldnames[2:]
if samples:
return sys_samples
sys = []
# create a list whose elements are the tuples
# (uncertainty, type, {sample:value})
# row is a list of the items in the row
for row in reader:
# comment character
# if the line is not empty
if len(row) >0:
# print row
# if the row starts with comment #
if re.match("^#", row["Uncertainty"]):
continue
# end if re.match
# end if len
unc = row.pop("Uncertainty").strip()
type = row.pop("Type").strip()
# `row` is a dictionary with sample names as keys. Strip spaces
# from the actual value
row = dict(map(lambda (k,v): (k, v.strip()), row.items()))
if unc in overrides:
row = dict(
map(
lambda (k,v): (k, overrides[unc] if v == "x" else v),
row.items()))
sys.append((rename(unc), type, row))
return sys
def split_features(data):
# print("CRAFTING FEATURES...")
# print()
dia = []
eda = []
sys = []
res = []
for i in range(len(data)):
if i % 4 == 0:
dia.append(data[i])
elif i % 4 == 1:
eda.append(data[i])
elif i % 4 == 2:
sys.append(data[i])
elif i % 4 == 3:
res.append(data[i])
return dia, eda, sys, res
def AppendPythonPath():
import sys
import Tkinter, Tkconstants, tkFileDialog
root = Tkinter.Tk()
root.withdraw()
options = {}
options['initialdir'] = '/'
options['mustexist'] = False
options['parent'] = root
options['title'] = 'Choose directory to add to PATH'
newdir = tkFileDialog.askdirectory(**options)
sys.append(newdir)
print '\nDirectory add to PATH: ' + newdir + '\n'
def AppendPythonPath():
import sys
import Tkinter,Tkconstants,tkFileDialog
root = Tkinter.Tk()
root.withdraw()
options = {}
options['initialdir'] = '/'
options['mustexist'] = False
options['parent'] = root
options['title'] = 'Choose directory to add to PATH'
newdir = tkFileDialog.askdirectory(**options)
sys.append(newdir)
print '\nDirectory add to PATH: ' + newdir + '\n'
def plan_traj():
path_points = [do_trim(vt=100, gamma_deg=90, m_fuel=0.8)]
path_points.append(do_trim(vt=100, gamma_deg= 45, m_fuel = 0.4))
path_points.append(do_trim(vt=100, gamma_deg = 0,m_fuel = 0))
lin = linearize()
sys = []
ABCDs = []
gam_ref = [90,45,0]
h_ref = [0,]
for i,p in enumerate(path_points):
x0 = p[0]
u0 = p[1]
p0 = p[2]
A,B,C,D = lin(x0,u0,p0)
ABCDs.append([A,B,C,D])
sys.append(control.ss(A,B,C,D))
return sys
def calc_word_sim(model, eval_file):
df = pd.read_csv(eval_file, sep=',', header=0) # eval dataset
col1, col2, score = df.columns.values
model_vocab = model.vocab.keys()
ground = []
sys = []
for idx, row in df.iterrows():
if row[col1] in model_vocab and row[col2] in model_vocab:
ground.append(float(row[score]))
sys.append(model.similarity(row[col1], row[col2]))
# compute Spearman's rank correlation coefficient (https://en.wikipedia.org/wiki/Spearman%27s_rank_correlation_coefficient)
print sys
# import pdb;pdb.set_trace()
corr, p_val = stats.spearmanr(sys, ground)
logger.info("# of pairs found: %s / %s" % (len(ground), len(df)))
logger.info("correlation: %s" % corr)
return corr, p_val
def _get_app_info(self):
"""Get information about the app.
"""
info = dict()
info['core_data'] = core_data = _get_core_data()
info['extensions'] = extensions = self._get_extensions(core_data)
page_config = self._read_page_config()
info['disabled'] = page_config.get('disabledExtensions', [])
info['local_extensions'] = self._get_local_extensions()
info['linked_packages'] = self._get_linked_packages()
info['app_extensions'] = app = []
info['sys_extensions'] = sys = []
for (name, data) in extensions.items():
data['is_local'] = name in info['local_extensions']
if data['location'] == 'app':
app.append(name)
else:
sys.append(name)
info['uninstalled_core'] = self._get_uninstalled_core_extensions()
info['static_data'] = _get_static_data(self.app_dir)
app_data = info['static_data'] or core_data
info['version'] = app_data['jupyterlab']['version']
info['publicUrl'] = app_data['jupyterlab'].get('publicUrl', '')
info['sys_dir'] = self.sys_dir
info['app_dir'] = self.app_dir
info['core_extensions'] = core_extensions = _get_core_extensions()
disabled_core = []
for key in core_extensions:
if key in info['disabled']:
disabled_core.append(key)
info['disabled_core'] = disabled_core
return info
import sys
import json
import numpy as np
import progressbar
from tensorflow.keras.models import load_model
from tensorflow.keras.preprocessing.image import ImageDataGenerator
sys.append("../")
from pyimagesearch.utils.ranked import rank5_accuracy
from dog_vs_cat.configs import dog_vs_cat_configs as configs
from pyimagesearch.preprocessing.croppreprocessor import CropPreprocessor
from pyimagesearch.preprocessing.meanpreprocessor import MeanPreprocessor
from pyimagesearch.preprocessing.simplepreprocessor import SimplePreprocessor
from pyimagesearch.preprocessing.imagetoarraypreprocessor import ImageToArrayPreprocessor
# load RGB mean values
means = json.loads(open(configs.DATASET_MEAN).read())
# load preprocessors
ip = ImageToArrayPreprocessor()
cp = CropPreprocessor(width=227, height=227)
sp = SimplePreprocessor(width=227, height=227)
mp = MeanPreprocessor(rMean=means["R"], gMean=means["G"], bMean=means["B"])
# custom preprocessor class which utilizes custom preprocessors
class CustomPreprocessing:
def __init__(self, preprocessors=[]):
self.preprocessors = preprocessors
def preprocess(self, image):
#!/usr/bin/env python
'''
NPR 2015-12-06
http://www.npr.org/2015/12/06/458661972/transform-words-with-an-additional-letter-in-this-weeks-puzzle
Name a state capital. Drop one of its letters.
The remaining letters can be rearranged to name of another major city
in the United States. What is it?
There are two different answers, and you should find both of them.
'''
import sys
sys.append('..')
from nprcommontools import sort_string
from nltk.corpus import wordnet as wn, gazetteers
import re
# U.S. States
states = set(gazetteers.words('usstates.txt'))
# capitals and major cities
cities = set(); capitals = set()
for synset in wn.all_synsets():
d = synset.definition()
for state in states:
if state in d and 'city' in d:
for l in synset.lemma_names():
if l[0] == l[0].upper():
cities.add(l)
#!/annoroad/data1/bioinfo/PMO/yangmengcheng/SoftWare/Anaconda3-5.3.1/bin/python
import sys
sys.append('../lib')
import bam.bam
from read.Read import *
import tempfile
import sys
sys.append("../Py2D")
sys.append("./Py2D")
calc.set(isif=2)
secban('Elastic tensor by internal routine')
# Elastic tensor by internal routine
Cij, Bij=cryst.get_elastic_tensor(n=5,d=0.33)
print("Cij (GPa):", Cij/GPa)
calc.clean()
secban('C11 and C12 by hand')
# Now let us do it (only c11 and c12) by hand
sys=[]
for d in linspace(-0.5,0.5,6):
sys.append(cryst.get_cart_deformed_cell(axis=0,size=d))
r=ParCalculate(sys,cryst.calc)
ss=[]
for s in r:
ss.append([s.get_strain(cryst), s.get_stress()])
# Plot strain-stress relation
figure(3)
ss=[]
for p in r:
ss.append([p.get_strain(cryst),p.get_stress()])
ss=array(ss)
lo=min(ss[:,0,0])
hi=max(ss[:,0,0])
mi=(lo+hi)/2
wi=(hi-lo)/2
def plot_core(self):
f = open(self.path + "cores.txt", "r")
lines = f.readlines()
usr = []
sys = []
softirq = []
iowait = []
idle = []
new_usr = []
new_sys = []
new_softirq = []
new_iowait = []
new_idle = []
for i in range(5):
usr.append([])
sys.append([])
softirq.append([])
iowait.append([])
idle.append([])
for i in range(5):
new_usr.append([])
new_sys.append([])
new_softirq.append([])
new_iowait.append([])
new_idle.append([])
for i in lines:
k = i.split()
if(len(k) > 1 and k[2] != 'CPU'):
if(k[2] == 'all'):
new_usr[4].append(float(k[3]))
new_sys[4].append(float(k[5]))
new_softirq[4].append(float(k[6]))
new_iowait[4].append(float(k[6]))
new_idle[4].append(float(k[12]))
else:
new_usr[int(k[2])].append(float(k[3]))
new_sys[int(k[2])].append(float(k[5]))
new_softirq[int(k[2])].append(float(k[6]))
new_iowait[int(k[2])].append(float(k[6]))
new_idle[int(k[2])].append(float(k[12]))
for j in range(5):
usr[j].append(new_usr[j][0])
sys[j].append(new_sys[j][0])
softirq[j].append(new_softirq[j][0])
iowait[j].append(new_iowait[j][0])
idle[j].append(new_idle[j][0])
for i in range(1, len(new_usr[j])):
x = self.nextCur(new_usr[j][i-1], new_usr[j][i], i)
usr[j].append(x)
x = self.nextCur(new_sys[j][i-1], new_sys[j][i], i)
sys[j].append(x)
x = self.nextCur(new_softirq[j][i-1], new_softirq[j][i], i)
softirq[j].append(x)
x = self.nextCur(new_iowait[j][i-1], new_iowait[j][i], i)
iowait[j].append(x)
x = self.nextCur(new_idle[j][i-1], new_idle[j][i], i)
idle[j].append(x)
if(self.d['core_choice'] == 'both'):
plt.title('softirq ' + self.exp)
plt.plot(range(len(softirq[0])), softirq[0], 'r.')
plt.plot(range(len(softirq[1])), softirq[1], 'g.')
plt.plot(range(len(softirq[2])), softirq[2], 'b.')
plt.plot(range(len(softirq[3])), softirq[3], 'y.')
#plt.plot(range(len(softirq[4])), softirq[4], 'c.')
plt.axis([0, len(usr[0]), 0, 100])
plt.show()
for i in range(4):
plt.xlabel('seconds')
#plt.ylabel('Load on core 3')
#plt.title('CPU ' + str(i) + ' ' + self.exp)
plt.plot(range(len(iowait[i])), iowait[i], 'r+', label = 'iowait')
#plt.plot(range(len(iowait[i])), iowait[i], 'b.')
plt.plot(range(len(idle[i])), idle[i], 'g*', label = 'Idle')
plt.legend(bbox_to_anchor=(0., 1.02, 1., .102), loc=3, ncol=2, mode="expand", borderaxespad=0.)
plt.axis([0, len(usr[i]), 0, 100])
plt.savefig('pictures/plot_' + str(i) + str(self.exp))
plt.show()
plt.close()
elif(self.d['core_choice'] == 'cpu'):
for i in range(5):
plt.title('CPU ' + str(i) + ' ' + self.exp)
plt.plot(range(len(usr[i])), usr[i], 'ro')
plt.plot(range(len(sys[i])), sys[i], 'b+')
plt.plot(range(len(softirq[i])), softirq[i], 'k.')
plt.plot(range(len(iowait[i])), iowait[i], 'rs')
plt.plot(range(len(idle[i])), idle[i], 'go')
plt.axis([0, len(usr[i]), 0, 100])
plt.show()
else:
plt.title('usr ' + self.exp)
plt.plot(range(len(usr[0])), usr[0], 'r+')
plt.plot(range(len(usr[1])), usr[1], 'g+')
plt.plot(range(len(usr[2])), usr[2], 'b+')
plt.plot(range(len(usr[3])), usr[3], 'y+')
plt.plot(range(len(usr[4])), usr[4], 'c+')
plt.axis([0, len(usr[0]), 0, 100])
plt.show()
plt.title('sys ' + self.exp)
plt.plot(range(len(sys[0])), sys[0], 'r+')
plt.plot(range(len(sys[1])), sys[1], 'g+')
plt.plot(range(len(sys[2])), sys[2], 'b+')
plt.plot(range(len(sys[3])), sys[3], 'y+')
plt.plot(range(len(sys[4])), sys[4], 'c+')
plt.axis([0, len(usr[0]), 0, 100])
plt.show()
plt.title('softirq ' + self.exp)
plt.plot(range(len(softirq[0])), softirq[0], 'r+')
plt.plot(range(len(softirq[1])), softirq[1], 'g+')
plt.plot(range(len(softirq[2])), softirq[2], 'b+')
plt.plot(range(len(softirq[3])), softirq[3], 'y+')
plt.plot(range(len(softirq[4])), softirq[4], 'c+')
plt.axis([0, len(usr[0]), 0, 100])
plt.show()
plt.title('iowait ' + self.exp)
plt.plot(range(len(iowait[0])), iowait[0], 'r')
plt.plot(range(len(iowait[1])), iowait[1], 'g')
plt.plot(range(len(iowait[2])), iowait[2], 'b')
plt.plot(range(len(iowait[3])), iowait[3], 'y')
plt.plot(range(len(iowait[4])), iowait[4], 'c')
plt.axis([0, len(usr[0]), 0, 100])
plt.show()
plt.title('idle ' + self.exp)
plt.plot(range(len(idle[0])), idle[0], 'r+')
plt.plot(range(len(idle[1])), idle[1], 'g+')
plt.plot(range(len(idle[2])), idle[2], 'b+')
plt.plot(range(len(idle[3])), idle[3], 'y+')
plt.plot(range(len(idle[4])), idle[4], 'c+')
plt.axis([0, len(usr[0]), 0, 100])
plt.show()
# Scan over deformations
# Switch to IDOF optimizer
calc.set(isif=2)
# Elastic tensor by internal routine
Cij, Bij = cryst.get_elastic_tensor(n=5, d=0.33)
print("Cij (GPa):", Cij / units.GPa)
calc.clean()
# Now let us do it (only c11 and c12) by hand
sys = []
for d in linspace(-0.5, 0.5, 6):
sys.append(cryst.get_cart_deformed_cell(axis=0, size=d))
r = ParCalculate(sys, cryst.get_calculator())
ss = []
for s in r:
ss.append([s.get_strain(cryst), s.get_stress()])
# Plot strain-stress relation
figure(3)
ss = []
for p in r:
ss.append([p.get_strain(cryst), p.get_stress()])
ss = array(ss)
lo = min(ss[:, 0, 0])
hi = max(ss[:, 0, 0])
mi = (lo + hi) / 2
wi = (hi - lo) / 2
import os
import sys
try:
from gitcrawler import collect_details as detail
except:
sys.append('/media/laxmena/Bazinga/Crawler/GIT-beta')
from gitcrawler import collect_details as detail
count = 0
crawl_list = []
#Get initial Username from the User
username = detail.get_username()
crawl_list.append(username)
if not os.path.exists('/home/laxmena/gitcrawler'):
os.mkdir('/home/laxmena/gitcrawler')
for i in crawl_list:
try:
file_name = '/home/laxmena/gitcrawler/' + i + '.txt'
f = open(file_name,'w')
f.write('Personal Details:\n')
f.write('-'*50 + '\n')
print ('Scraping Details of %s' % i)
for itr in detail.personal_details(i):
f.write(itr)
f.write('\n')
f.write('\n\nAll Repositories:\n')
f.write('-'*50 + '\n')
f.write('Repository Name\n')
for pep in nt_all:
if item == pep[i]:
pass
elif item not in codon:
pass
elif pep[i] not in codon:
pass
elif codon[item] == codon[pep[i]]:
countsys += 1
elif codon[item] != codon[pep[i]]:
countnonsys += 1
else :
pass
print(x)
x = x + 1
sys.append(countsys)
nonsys.append(countnonsys)
diff = countnonsys - countsys
dif.append(diff)
rat = countnonsys - countsys
ratio.append(rat)
countsys = 0
countnonsys = 0
print(dif)
deviation = np.std(dif)
print(deviation)
zscore = dif/deviation
print(zscore)
zscore = []
for di in dif:
zscor = di/deviation
import sys
sys.append('~/Development/uvadev/nlp2/project1')
from flask import Flask, render_template, request, jsonify
from flask_socketio import SocketIO, emit
from flask_cors import CORS, cross_origin
from models.make_vae import make_vae
from app_config import config
model_paths = {
'vae_vanilla': 'vae_best_mu0_wd1_fb-1.pt',
'vae_high_freebits': 'vae_best_mu5_wd1_fb8.pt',
'vae_md_freebits': 'vae_best_mu5_wd1_fv4.pt'
}
loaded_models = {
key: make_vae(config, True, val)
for key, val in model_paths.items()
}
app = Flask(__name__)
app.config['SECRET_KEY'] = 'secret!'
CORS(app)
@app.route('', methods=['GET'])
def init():
return loaded_models.keys()
@app.route('/predict', methods=['POST'])
def predict():
import numpy as np
import pdb
import numpy as np
from skimage.measure import label
from utils import segmentation_metrics
import torch
import SimpleITK as sitk
import sys
sys.append("/home/mahaoran/lei_nao/seg_thor")
def get_metrics(segmentation, mask, n_class=4):
results = np.zeros((n_class, 5))
overlap_measures_filter = sitk.LabelOverlapMeasuresImageFilter()
hausdorff_distance_filter = sitk.HausdorffDistanceImageFilter()
for i in range(n_class):
cur_mask = (mask == i+1).astype(np.int16)
cur_segmentation = (segmentation == i+1).astype(np.int16)
segmentation_itk = sitk.GetImageFromArray(cur_segmentation)
mask_itk = sitk.GetImageFromArray(cur_mask)
overlap_measures_filter.Execute(segmentation_itk, mask_itk)
hausdorff_distance_filter.Execute(segmentation_itk, mask_itk)
results[i, 0] = overlap_measures_filter.GetJaccardCoefficient()
results[i, 1] = overlap_measures_filter.GetDiceCoefficient()
results[i, 2] = hausdorff_distance_filter.GetHausdorffDistance()
results[i, 3] = overlap_measures_filter.GetFalseNegativeError()
results[i, 4] = overlap_measures_filter.GetFalsePositiveError()
return np.mean(results, 0)
def multi_scale(images, if_zoom=True, if_flip=True):
total_images = []
total_flip_flag = []
total_zoom_flag = []
def load_test_data(
vref_file_name: str,
src_file_name: str,
pred_file_name: str,
ref_pattern: str,
output_file_name: str,
ref_projects: Set[str],
config: Config,
books: Set[int],
by_book: bool,
) -> Tuple[Dict[str, Tuple[List[str], List[List[str]]]], Dict[str, dict]]:
dataset: Dict[str, Tuple[List[str], List[List[str]]]] = {}
src_file_path = config.exp_dir / src_file_name
pred_file_path = config.exp_dir / pred_file_name
with src_file_path.open("r",
encoding="utf-8") as src_file, pred_file_path.open(
"r", encoding="utf-8") as pred_file, (
config.exp_dir / output_file_name).open(
"w", encoding="utf-8") as out_file:
ref_file_paths = list(config.exp_dir.glob(ref_pattern))
select_rand_ref_line = False
if len(ref_file_paths) > 1:
if len(ref_projects) == 0:
# no refs specified, so randomly select verses from all available train refs to build one ref
select_rand_ref_line = True
ref_file_paths = [
p for p in ref_file_paths if config.is_train_project(p)
]
else:
# use specified refs only
ref_file_paths = [
p for p in ref_file_paths
if config.is_ref_project(ref_projects, p)
]
ref_files: List[IO] = []
vref_file: Optional[IO] = None
vref_file_path = config.exp_dir / vref_file_name
if len(books) > 0 and vref_file_path.is_file():
vref_file = vref_file_path.open("r", encoding="utf-8")
try:
for ref_file_path in ref_file_paths:
ref_files.append(ref_file_path.open("r", encoding="utf-8"))
default_trg_iso = config.default_trg_iso
for lines in zip(src_file, pred_file, *ref_files):
if vref_file is not None:
vref_line = vref_file.readline().strip()
if vref_line != "":
vref = VerseRef.from_string(vref_line,
ORIGINAL_VERSIFICATION)
if vref.book_num not in books:
continue
src_line = lines[0].strip()
pred_line = lines[1].strip()
detok_pred_line = decode_sp(pred_line)
iso = default_trg_iso
if src_line.startswith("<2"):
index = src_line.index(">")
val = src_line[2:index]
if val != "qaa":
iso = val
if iso not in dataset:
dataset[iso] = ([], [])
sys, refs = dataset[iso]
sys.append(detok_pred_line)
if select_rand_ref_line:
ref_lines: List[str] = [
l for l in map(lambda l: l.strip(), lines[2:])
if len(l) > 0
]
ref_index = random.randint(0, len(ref_lines) - 1)
ref_line = ref_lines[ref_index]
if len(refs) == 0:
refs.append([])
refs[0].append(ref_line)
else:
for ref_index in range(len(ref_files)):
ref_line = lines[ref_index + 2].strip()
if len(refs) == ref_index:
refs.append([])
refs[ref_index].append(ref_line)
out_file.write(detok_pred_line + "\n")
book_dict: Dict[str, dict] = {}
if by_book:
book_dict = process_individual_books(
src_file_path,
pred_file_path,
ref_file_paths,
vref_file_path,
default_trg_iso,
select_rand_ref_line,
books,
)
finally:
if vref_file is not None:
vref_file.close()
for ref_file in ref_files:
ref_file.close()
return dataset, book_dict
#-*- coding: utf-8 -*-
# 此程式用來檢查 OrderQuote.dat 中的時間是否順序正確
import os
import collections
import sys
from subprocess import call
import unittest
import subprocess
import re
import time
import shlex
import shutil
from datetime import datetime
if(len(sys.argv)<2):
sys.append('/home/newemg/data/OrderQuote.dat')
arg_names = ['command', 'file']
args = dict(zip(arg_names, sys.argv))
Arg_list = collections.namedtuple('Arg_list', arg_names)
args = Arg_list(*(args.get(arg, None) for arg in arg_names))
class CheckQrderQuoteTimeSeq(unittest.TestCase):
def setUp(self):
pass
def tearDown(self):
pass
def getLineInfo(self, line):
ret=''
if(line[41:133]==' '):
#!/usr/bin/env python
#-*-coding: utf-8-*-
## File name: ub_model/mr/mr_fac.py
import os
import sys
import logging
sys.append('../../common')
from mr import Mr
from utils import Utils
class MrFac:
def __init__(self):
self.mr = None
def getmr(self, mrname, productline):
abspath = self.getmr_abspath(mrname)
self.mr = Utils.getinstanceffile(abspath, Mr, productline)
return self.mr
def getmr_abspath(self, mrname):
if mrname != None and not mrname.endswith('.py'):
mrname = '%s.py' %(mrname)
abspath = ''
files = os.listdir('.')
for f in files:
if f == mrname:
abspath = os.path.abspath('./%s' %(mrname))
#!/usr/bin/env python3
# coding: utf-8
"""
Script to run the DeepSphere experiment with SHREC17 dataset.
"""
import os
import shutil
import sys
sys.append('../..')
os.environ[
"CUDA_VISIBLE_DEVICES"] = "0" # change to chosen GPU to use, nothing if work on CPU
import numpy as np
from deepsphere import models
from . import hyperparameters
from load_shrec import Shrec17DatasetCache, Shrec17DatasetTF, fix_dataset
Nside = 32
experiment_type = 'CNN'
ename = '_' + experiment_type
datapath = '../../data/shrec17/' # localisation of the .obj files
if len(sys.argv) > 4:
Nside = int(sys.argv[1])
augmentation = int(sys.argv[2])
experiment = sys.argv[3]
nfeat = int(sys.argv[4])
def txt2json(txtfile):
# create base dictionary:
SET_SLOTS = False
ont = dict.fromkeys(['type','requestable','discourseAct','system_requestable','method','informable'])
ont['discourseAct'] = [
"ack",
"hello",
"none",
"repeat",
"silence",
"thankyou"
]
ont['method'] = [
"none",
"byconstraints",
"byname",
"finished",
"byalternatives",
"restart"
]
# step through txt rules
with open(txtfile+'.txt','r') as txtFILE:
f = txtFILE.readlines()
for i in range(len(f)):
line = f[i]
if line[0] == '#':
continue
if 'task' in line:
continue
if 'entity' in line:
# assume entity comes before type:
req = re.findall(r"[\w']+", line)
continue
if 'type' in line:
req += re.findall(r"[\w']+", line)
for x in remove_from_req:
while x in req:
req.remove(x) # this should remove all occurences.
print 'requestable slots are (ie all slots)'
req_final = copy.deepcopy(req)
ont['requestable'] = req_final
print ont['requestable']
ont['informable'] = dict.fromkeys(req)
# also set the breakup of informable and requestable slots via inform_req_lines -
# do this MANUALLY - easier! but gives some confidence/checks:
sys = []
for slot in req:
ans = raw_input('is slot: '+slot+' SYSTEM REQUESTABLE?')
if ans == 'y':
sys.append(slot)
print 'system requestable slots are:'
print sys
ont['system_requestable'] = sys
SET_SLOTS = True
continue
if 'method' in line:
continue
if 'discourseAct' in line:
continue
if SET_SLOTS:
#for slot in ont['requestable']:
for slot in req:
#print slot
#print line
#raw_input()
if slot in line and ('"' not in line):
count = 0
while ');' not in f[i+count]:
count += 1
values = f[i+1:i+count]
#raw_input('-- print values now:')
#print values
#raw_input('check')
vals = []
for v in values:
x = v.split('"')
vals.append(x[1])
print vals
print '^^ are for slot: ', slot
raw_input('check values parsed')
ont['informable'][slot] = vals
req.remove(slot)
break
writeto = open(txtfile+'.json','w')
json.dump(ont,writeto)
writeto.close()
def list_extensions(app_dir=None, logger=None):
"""List the extensions.
"""
logger = logger or logging
app_dir = get_app_dir(app_dir)
extensions = _get_extensions(app_dir)
disabled = _get_disabled(app_dir)
linked = _get_linked_packages(app_dir, logger=logger)
app = []
sys = []
linked = []
errors = dict()
core_data = _get_core_data()
# We want to organize by dir.
sys_path = pjoin(get_app_dir(), 'extensions')
for (key, value) in extensions.items():
deps = extensions[key].get('dependencies', dict())
errors[key] = _validate_compatibility(key, deps, core_data)
if key in linked:
linked.append(key)
if value['path'] == sys_path and sys_path != app_dir:
sys.append(key)
continue
app.append(key)
logger.info('JupyterLab v%s' % __version__)
logger.info('Known labextensions:')
if app:
logger.info(' app dir: %s' % app_dir)
for item in sorted(app):
extra = ''
if item in disabled:
extra += ' %s' % RED_DISABLED
else:
extra += ' %s' % GREEN_ENABLED
if errors[item]:
extra += ' %s' % RED_X
else:
extra += ' %s' % GREEN_OK
if item in linked:
extra += '*'
logger.info(' %s%s' % (item, extra))
version = extensions[item]['version']
if errors[item]:
msg = _format_compatibility_errors(item, version, errors[item])
logger.warn(msg + '\n')
if sys:
logger.info(' sys dir: %s' % sys_path)
for item in sorted(sys):
extra = ''
if item in disabled:
extra += ' %s' % RED_DISABLED
else:
extra += ' %s' % GREEN_ENABLED
logger.info(' %s%s' % (item, extra))
if errors[item]:
extra += ' %s' % RED_X
else:
extra += ' %s' % GREEN_OK
if item in linked:
extra += '*'
logger.info(' %s%s' % (item, extra))
version = extensions[item]['version']
if errors[item]:
msg = _format_compatibility_errors(item, version, errors[item])
logger.warn(msg + '\n')
if linked:
logger.info(
'* Denotes linked extensions. Use `jupyter labextension listlinked` to see details'
)
# Handle uninstalled and disabled core packages
uninstalled_core = _get_uinstalled_core_extensions(app_dir)
if uninstalled_core:
logger.info('\nUninstalled core extensions:')
[logger.info(' %s' % item) for item in sorted(uninstalled_core)]
core_extensions = _get_core_extensions()
disabled_core = []
for key in core_extensions:
if key in disabled:
disabled_core.append(key)
if disabled_core:
logger.info('\nDisabled core extensions:')
[logger.info(' %s' % item) for item in sorted(disabled_core)]
def concurrency_breakdown(logdir, cfg, df_mpstat, df_cpu, df_gpu, df_nvsmi, df_bandwidth, features):
if cfg.verbose:
print_title('Concurrency Breakdown Analysis')
total_elapsed_time = {'usr':0, 'sys':0, 'gpu':0, 'iow':0, 'idl':0}
elapsed_time_ratio = {'usr':0, 'sys':0, 'gpu':0, 'iow':0, 'idl':0}
total_interval_vector = []
total_performace_vector = []
if len(df_mpstat) == 0:
print_warning(cfg, 'no mpstat and perf traces!')
return features
t_begin = df_mpstat.iloc[0]['timestamp']
t_end = df_mpstat.iloc[-1]['timestamp']
t = t_begin
sample_time = (1 / float(cfg.sys_mon_rate))
while t < t_end:
t = t + sample_time
if cfg.roi_end > 0 and (t < cfg.roi_begin or t > cfg.roi_end):
continue
window_begin = t - sample_time
window_end = t
if len(df_cpu) > 0:
if df_cpu.iloc[0].timestamp > window_end:
continue
cond1 = (df_cpu['timestamp'] > window_begin)
cond2 = (df_cpu['timestamp'] <= window_end)
df_cpu_interval = df_cpu[ cond1 & cond2 ]
num_gpus = len(list(set(df_nvsmi['deviceId'])))
cond1 = (df_nvsmi['timestamp'] > window_begin)
cond2 = (df_nvsmi['timestamp'] <= window_end)
sm = df_nvsmi['event'] == int(0)
df_nvsmi_interval = df_nvsmi[ cond1 & cond2 & sm ]
cond1 = (df_mpstat['timestamp'] > window_begin)
cond2 = (df_mpstat['timestamp'] <= window_end)
df_mpstat_interval = df_mpstat[ cond1 & cond2 ]
cond1 = (df_bandwidth['timestamp'] > window_begin)
cond2 = (df_bandwidth['timestamp'] <= window_end)
tx = df_bandwidth['event'] == float(0)
rx = df_bandwidth['event'] == float(1)
df_tx_interval = df_bandwidth[ cond1 & cond2 & tx ]
df_rx_interval = df_bandwidth[ cond1 & cond2 & rx ]
mp_usr = []
mp_sys = []
mp_idl = []
mp_iow = []
usr = []
sys = []
irq = []
cpu_max = 0
cpu_min = 100
for i in range(len(df_mpstat_interval)):
ratios = df_mpstat_interval.iloc[i]['name'].split(':')[1].split('|')
#print(ratios)
mp_usr.append(sample_time*int(ratios[1])/100.0)
mp_sys.append(sample_time*int(ratios[2])/100.0)
mp_idl.append(sample_time*int(ratios[3])/100.0)
mp_iow.append(sample_time*int(ratios[4])/100.0)
usr.append(int(ratios[1]))
sys.append(int(ratios[2]))
irq.append(int(ratios[5]))
cpu_tmp = int(ratios[1]) + int(ratios[2]) + int(ratios[5])
if cpu_tmp > cpu_max:
cpu_max = cpu_tmp
if cpu_tmp < cpu_min:
cpu_min = cpu_tmp
mp_usr = np.asarray(mp_usr)
mp_sys = np.asarray(mp_sys)
mp_idl = np.asarray(mp_idl)
mp_iow = np.asarray(mp_iow)
usr = np.asarray(usr)
sys = np.asarray(sys)
irq = np.asarray(irq)
elapsed_time = {'usr':0, 'sys':0, 'gpu':0, 'iow':0, 'idl':0}
if len(df_mpstat_interval) > 0:
elapsed_time['usr'] = mp_usr.max()
elapsed_time['sys'] = mp_sys.max()
elapsed_time['gpu'] = df_nvsmi_interval['duration'].max() * 0.01 * sample_time
elapsed_time['iow'] = mp_iow.max()
#print('gput,usrt = ', elapsed_time['gpu'], elapsed_time['usr'])
dominator = max(elapsed_time, key=elapsed_time.get)
#if elapsed_time['gpu'] > 0.1 :
# dominator = 'gpu'
if elapsed_time[dominator] > sample_time * int(cfg.is_idle_threshold)/100:
total_elapsed_time[dominator] = total_elapsed_time[dominator] + sample_time
else:
total_elapsed_time['idl'] += sample_time
if num_gpus > 0:
time_gpu_avg = df_nvsmi_interval['duration'].sum() * 0.01 * sample_time / num_gpus
else:
time_gpu_avg = 0
interval_vector = [mp_usr.max(),
mp_sys.max(),
mp_iow.max(),
mp_idl.max(),
time_gpu_avg,
df_tx_interval['bandwidth'].sum(),
df_rx_interval['bandwidth'].sum()]
total_interval_vector.append(tuple(interval_vector))
if num_gpus > 0:
sm_avg = df_nvsmi_interval['duration'].sum() / int(len(list(set(df_nvsmi_interval['deviceId']))))
else:
sm_avg = 0
performace_vector = [window_end,
df_nvsmi_interval['duration'].max(),
sm_avg,
df_nvsmi_interval['duration'].min(),
round((usr.mean() + sys.mean() + irq.mean()), 0),
cpu_max,
cpu_min]
total_performace_vector.append(tuple(performace_vector))
total_all_elapsed_time = sum(total_elapsed_time.values())
if total_all_elapsed_time > 0 :
elapsed_time_ratio['usr'] = 100 * total_elapsed_time['usr'] / total_all_elapsed_time
elapsed_time_ratio['sys'] = 100 * total_elapsed_time['sys'] / total_all_elapsed_time
elapsed_time_ratio['gpu'] = 100 * total_elapsed_time['gpu'] / total_all_elapsed_time
elapsed_time_ratio['idl'] = 100 * total_elapsed_time['idl'] / total_all_elapsed_time
elapsed_time_ratio['iow'] = 100 * total_elapsed_time['iow'] / total_all_elapsed_time
if cfg.verbose:
print('Elapsed Time = %.1lf ' % total_all_elapsed_time)
print('USR = %.1lf %%' % elapsed_time_ratio['usr'])
print('SYS = %.1lf %%' % elapsed_time_ratio['sys'])
if num_gpus > 0:
print('GPU = %.1lf %%' % elapsed_time_ratio['gpu'])
print('IDL = %.1lf %%' % elapsed_time_ratio['idl'])
print('IOW = %.1lf %%' % elapsed_time_ratio['iow'])
if cfg.spotlight_gpu:
elapsed_hotspot_time = cfg.roi_end - cfg.roi_begin
else:
elapsed_hotspot_time = 0
df = pd.DataFrame({ 'name':['elapsed_usr_time_ratio', 'elapsed_sys_time_ratio', 'elapsed_gpu_time_ratio',
'elapsed_iow_time_ratio', 'elapsed_hotspot_time'],
'value':[elapsed_time_ratio['usr'], elapsed_time_ratio['sys'], elapsed_time_ratio['gpu'],
elapsed_time_ratio['iow'], elapsed_hotspot_time ] },
columns=['name','value'])
features = pd.concat([features, df])
if len(total_performace_vector) > 0:
performance_table = pd.DataFrame(total_performace_vector, columns = ['time', 'max_gpu_util', 'avg_gpu_util', 'min_gpu_util', 'cpu_util', 'cpu_max', 'cpu_min'])
performance_table.to_csv('%s/performance.csv' % logdir)
vector_table = pd.DataFrame(total_interval_vector, columns = ['usr' , 'sys', 'iow', 'idl','gpu', 'net_tx', 'net_rx'])
pearson = vector_table.corr(method ='pearson').round(2)
if cfg.verbose:
print('Correlation Table :')
print(pearson)
df = pd.DataFrame({ 'name':['corr_gpu_usr', 'corr_gpu_sys', 'corr_gpu_iow', 'corr_gpu_ntx', 'corr_gpu_nrx'], 'value':[pearson['gpu'].usr, pearson['gpu'].sys, pearson['gpu'].iow, pearson['gpu'].net_tx, pearson['gpu'].net_rx]}, columns=['name','value'])
features = pd.concat([features, df])
return features
def xml(f,extra_tag=None,p_=10):
'''This takes a list of directories and creates a PROPhet xml file'''
root = ET.Element("PROPhet")
nsystms = ET.Element('nsystem')
root.append(nsystms)
systems = ET.Element("systems")
for i in range(200): shuffle(f)
N_train = int(0.80*len(f))
N_val = int(0.90*len(f))
sys = []
cnt = 1
for c,i in enumerate(f):
if c%p_ == 0 : print(c)
if c < N_train: t_flag = "train"
elif N_train < c < N_val: t_flag = "val"
else: t_flag = 'test'
x = QE.Struct()
try:
x.XML_Process(i)
except:
continue
system = ET.Element("system",id=str(c + 1))
train = ET.Element('train')
train.text = t_flag
system.append(train)
lattice = ET.Element('lattice',units='angstrom')
for j in x.lattice:
l = ET.Element(j)
l.text = ' '.join([str(zz) for zz in x.lattice[j]])
lattice.append(l)
system.append(lattice)
atoms = ET.Element('atoms',units='angstrom')
atm,cell = x.return_params()
natoms = ET.Element('natoms')
natoms.text = str(len(x.atoms))
species = ET.Element('species')
ntype = len(set([zz.split()[0] for zz in atm.split('\n')[:-1]]))
species.text = str(ntype)
atoms.append(natoms)
atoms.append(species)
for j in atm.split('\n')[:-1]:
atom = ET.Element("atom",specie=j.split()[0])
atom.text = ' '.join(j.split()[1:4])
atoms.append(atom)
system.append(atoms)
target = ET.Element('target')
target.text = str(x.energy)
system.append(target)
if extra_tag is not None:
tag = extra_tag[c]['tag']
val = extra_tag[c]['val']
if 'other_tags' in list(extra_tag[c].keys()):
_ = ET.Element(tag,**extra_tag[c]['other_tags'])
else:
_ = ET.Element(tag)
_.text = val
system.append(_)
sys.append(system)
cnt += 1
del x
for i in sys:
systems.append(i)
nsystms.text = str(cnt)
root.append(systems)
str_ = ET.tostring(root,pretty_print=True).decode('utf-8')
return str_
# ----------------------------------------
# VARIABLE DECLARATION
ref = sys.argv[1] # full protein reference structure...
traj_loc = sys.argv[2] # pointer to the directories of the systems...
out = sys.argv[3] # output file name w/ extension
selection = 'protein'
alignment = 'protein and name CA and (resid 20:25 or resid 50:55 or resid 73:75 or resid 90:94 or resid 112:116 or resid 142:147 or resid 165:169 or resid 190:194 or resid 214:218 or resid 236:240 or resid 253:258 or resid 303:307)'
grab_frame = 50 #grab a frame every 50 frames (100 ps);
flush = sys.stdout.flush
sys = []
sys.append(['AMBER_apo', 21, 150]) #
#sys.append(['AMBER_atp', 51, 100]) #
#sys.append(['AMBER_ssrna', 51, 100]) #
#sys.append(['AMBER_ssrna_atp', 51, 100]) #
#sys.append(['AMBER_ssrna_adp_pi', 51, 100]) #
#sys.append(['AMBER_ssrna_adp', 51, 100]) #
#sys.append(['AMBER_ssrna_pi', 51, 100]) #
# ----------------------------------------
# SUBROUTINES:
def ffprint(string):
print '%s' %(string)
flush()
# ----------------------------------------
def gpt_sample(args_dict):
print("\n=============== Argument ===============")
for key in args_dict:
print("{}: {}".format(key, args_dict[key]))
print("========================================")
np.random.seed(1)
random.seed(1)
refs = []
sys = []
MEGATRON_OUTPUT_FILENAME = ".megatron_output.json"
VOCAB_FILEPATH = "./models/gpt2-vocab.json"
MERGE_FILEPATH = "./models/gpt2-merges.txt"
if os.path.exists(MEGATRON_OUTPUT_FILENAME) == False:
"""Megatron program."""
os.system(" python Megatron-LM/tools/generate_samples_gpt.py \
--num-layers {} \
--hidden-size {} \
--num-attention-heads {} \
--seq-length 1024 \
--max-position-embeddings 1024 \
--micro-batch-size 4 \
--global-batch-size 8 \
--vocab-file {} \
--merge-file {} \
--load ./models/megatron-models/345m \
--out-seq-length {} \
--temperature 1.0 \
--genfile {} \
--num-samples {} \
--top_k {} \
--top_p {} \
--recompute ".format(
args_dict['num_layer'],
args_dict['head_number'] * args_dict['size_per_head'],
args_dict['head_number'], VOCAB_FILEPATH, MERGE_FILEPATH,
args_dict['request_input_len'] + args_dict['request_output_len'],
MEGATRON_OUTPUT_FILENAME, args_dict['request_batch_size'],
args_dict['sampling_topk'], args_dict['sampling_topp']))
with open(MEGATRON_OUTPUT_FILENAME, 'r') as megatron_file:
for i, line in enumerate(megatron_file.readlines()):
line_j = json.loads(line)
refs.append(line_j['text'])
i += 1
if i == args_dict['request_batch_size']:
break
""" megatron finish """
enc = encoder.get_encoder(VOCAB_FILEPATH, MERGE_FILEPATH)
with open("../sample/cpp/start_ids.csv", "w") as f:
for tokens in refs:
id_list = enc.encode(tokens)
id_str = "{}\n".format(id_list[:args_dict['request_input_len']])
id_str = id_str.replace("[", "").replace("]", "")
f.write(id_str)
generate_gpt_config(args_dict)
os.system("rm out")
os.system(
"mpirun -n {} --allow-run-as-root ./bin/gpt_sample .tmp.config.ini".
format(args_dict['gpu_num']))
tokens_batch = np.loadtxt("out", dtype=np.int32).T
for tokens in tokens_batch:
sys.append(enc.decode(tokens))
bleu = sacrebleu.corpus_bleu(sys, [refs])
print("[INFO] bleu score: {}".format(bleu.score))
def list_extensions(app_dir=None, logger=None):
"""List the extensions.
"""
logger = logger or logging
app_dir = get_app_dir(app_dir)
extensions = _get_extensions(app_dir)
disabled = _get_disabled(app_dir)
all_linked = _get_linked_packages(app_dir, logger=logger)
app = []
sys = []
linked = []
errors = dict()
core_data = _get_core_data()
# We want to organize by dir.
sys_path = pjoin(get_app_dir(), 'extensions')
for (key, value) in extensions.items():
deps = extensions[key].get('dependencies', dict())
errors[key] = _validate_compatibility(key, deps, core_data)
if key in all_linked:
linked.append(key)
if value['path'] == sys_path and sys_path != app_dir:
sys.append(key)
continue
app.append(key)
logger.info('JupyterLab v%s' % __version__)
logger.info('Known labextensions:')
if app:
logger.info(' app dir: %s' % app_dir)
for item in sorted(app):
version = extensions[item]['version']
extra = ''
if item in disabled:
extra += ' %s' % RED_DISABLED
else:
extra += ' %s' % GREEN_ENABLED
if errors[item]:
extra += ' %s' % RED_X
else:
extra += ' %s' % GREEN_OK
logger.info(' %s@%s%s' % (item, version, extra))
if errors[item]:
msg = _format_compatibility_errors(item, version, errors[item])
logger.warn(msg + '\n')
if sys:
logger.info(' sys dir: %s' % sys_path)
for item in sorted(sys):
version = extensions[item]['version']
extra = ''
if item in disabled:
extra += ' %s' % RED_DISABLED
else:
extra += ' %s' % GREEN_ENABLED
logger.info(' %s%s' % (item, extra))
if errors[item]:
extra += ' %s' % RED_X
else:
extra += ' %s' % GREEN_OK
if item in linked:
extra += '*'
logger.info(' %s@%s%s' % (item, version, extra))
if errors[item]:
msg = _format_compatibility_errors(item, version, errors[item])
logger.warn(msg + '\n')
if linked:
logger.info(' linked extensions:')
for item in sorted(linked):
logger.info(' %s: %s' % (item, all_linked[item]))
if len(all_linked) > len(linked):
logger.info(' linked packages:')
for key in sorted(all_linked.keys()):
if (key in linked):
continue
logger.info(' %s: %s' % (key, all_linked[key]))
# Handle uninstalled and disabled core packages
uninstalled_core = _get_uinstalled_core_extensions(app_dir)
if uninstalled_core:
logger.info('\nUninstalled core extensions:')
[logger.info(' %s' % item) for item in sorted(uninstalled_core)]
core_extensions = _get_core_extensions()
disabled_core = []
for key in core_extensions:
if key in disabled:
disabled_core.append(key)
if disabled_core:
logger.info('\nDisabled core extensions:')
[logger.info(' %s' % item) for item in sorted(disabled_core)]
import sys
sys.append('../')
from 125_valid_palindrome import Solution
import unittest
class TestSolution(unittest.TestCase):
def setUp(self):
self.solution = Solution()
def test_cases(self):
pass
if __name__ == '__main__':
unittest.main()
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
"""
Created on Thu Dec 28 17:06:19 2017
@author: wq
"""
import tensorflow as tf
import sys
sys.append('../function/')
from preprocess import *
from multiTask import *
#%%
import sys import os import matplotlib.pyplot as plt from matplotlib.ticker import NullFormatter from plotting_functions import * from sel_list import * stdev = np.std sqrt = np.sqrt nullfmt = NullFormatter() file1 = sys.argv[1] time_offset = int(sys.argv[2]) # units of ns sys = [] sys.append(['Apo','steelblue',',']) sys.append(['ATP','cadetblue',',']) sys.append(['ssRNA','turquoise',',']) sys.append(['ssRNA+ATP','forestgreen',',']) sys.append(['ssRNA+ADP+Pi','limegreen',',']) sys.append(['ssRNA+ADP','orangered',',']) sys.append(['ssRNA+Pi','crimson',',']) nSys = len(sys) nSel = len(sel) # ---------------------------------------- # MAIN PROGRAM: datalist1 = np.loadtxt(file1) nSteps = len(datalist1)/nSys
sys.path.insert(0, 'python')
from get_modis import *
fh = fhead.split('20')[0]
files = glob.glob('%s*B01.jp2' % fh)
dates = []
ds = []
de = []
sys = []
eys = []
for i in files:
date = datetime.datetime.strptime(
(i.split('%s' % fh)[1]).split('0B01.jp2')[0], "%Y%m%d")
dates.append(date)
doy = date.timetuple().tm_yday
if doy - 8 < 0:
sys.append(date.year - 1)
days = (datetime.date(date.year, 1, 1) -
datetime.date(date.year - 1, 1, 1)).days
ds.append(doy - 8 + days)
else:
sys.append(date.year)
ds.append(doy - 8)
if doy + 8 > 366:
eys.append(date.year + 1)
days = (datetime.date(date.year + 1, 1, 1) -
datetime.date(date.year, 1, 1)).days
ds.append(doy + 8 - days)
else:
eys.append(date.year)
de.append(doy + 8)
# -*- coding: utf-8 -*-
"""
Created on Tue Dec 4 14:47:15 2018
@author: theod
"""
import sys
sys.append(r'C:\Users\theod\OneDrive\Documents\python army of functions2\bond_price_project\risky_bond_and_CDS')
from first_to_default_swap import price_FtD_swap1
from last_to_default_swap import price_LtD_swap1
from CDS_price import price_CDS
#%%
def test_FtD_swap_price():
FV1,FV2,c,T,rate,lbd1,lbd2,R1,R2,freq = 100,100,0.02,5,0.05,0.3,0.4,0.4,0.4,1
print(price_FtD_swap1(FV1,FV2,c,T,rate,lbd1,lbd2,R1,R2,freq))
print(price_LtD_swap1(FV1,FV2,c,T,rate,lbd1,lbd2,R1,R2,freq))
print(price_CDS(FV1,c,T,rate,lbd1,R1,freq))
print(price_CDS(FV2,c,T,rate,lbd2,R2,freq))
test_FtD_swap_price()
#%%
def test_FtD_LtD_CDS_prices():
FV1,FV2,c,T,rate,lbd1,lbd2,R1,R2,freq = 100,100,0.02,5,0.05,0.3,0.4,0.4,0.4,1
intensities1 = ([0.5],[0.3,0.3])
intensities2 = ([0.5],[0.4,0.4])
from first_to_default_swap import price_FtD_swap2
from last_to_default_swap import price_LtD_swap2
from CDS_price2 import price_CDS2
x1 = price_FtD_swap2(FV1,FV2,c,T,rate,lbd1,lbd2,R1,R2,freq)
x2 = price_LtD_swap2(FV1,FV2,c,T,rate,lbd1,lbd2,R1,R2,freq)
x3 = price_CDS2(FV1,c,T,rate,lbd1,R1,freq,option = "clean")
x4 = price_CDS2(FV2,c,T,rate,lbd2,R2,freq,option = "clean")
from find_peaks4 import plot_pks
plot_pks( img, nsigs=4, filt=False, thresh=50, sig_G=1.1, make_sparse=True)
pk,_ = pk_pos( img, nsigs=4, filt=False, thresh=50, sig_G=1.1, make_sparse=True)
pk,_ = pk_pos( img, nsigs=4 thresh=50, sig_G=1.1, make_sparse=True)
pk,_ = pk_pos( img, nsigs=4 ,thresh=50, sig_G=1.1, make_sparse=True)
pk
y,x = list(map(array, list(zip(*pk))))
y
x
for j,i in zip(y,x):
img[j-3:j+3, i-3:i+3] = 0
cla()
imshow( img, vmax=199)
import sys
sys.append("../.asu_tools/lib/python")
sys.path.append("../.asu_tools/lib/python")
from loki.RingData import RingFit
rf = RingFit(img)
#xi,yi = (
img.shape
xi,yi = (1440,1440)
get_ipython().run_line_magic('pinfo', 'rf.fit_circle_fast')
#rf.fit_circle_fast( (xi,yi, )
xi-1137
ri = 303
rf.fit_circle_fast( (xi,yi,ri ), num_fitting_pts=5000, num_high_pix=100, ring_width=100)
x,y,r = array([ 1450.10619788, 1430.22695615, 316.51128542])
from loki.RingData import RadialProfile
rp = RadialProfile( (xi,yi), img.shape)
figure(2);plot( rp.calculate(img))