def main(_):
hps = param()
path_list = [hps.save_path, hps.img_save_path, hps.log_path]
keys = ['run_name', 'epoch', 'batch_size', 'z_dim', 'lr']
for k in keys:
v = FLAGS[k].value
if v is not None:
print('{} value will be changed to; {}'.format(k, v))
setattr(hps, k, v)
if k is 'run_name':
path_list.append(os.path.join(hps.log_path, v))
path_list.append(os.path.join(hps.save_path, v))
path_list.append(os.path.join(hps.img_save_path, v))
make_path(path_list)
train_data, train_size, _, _, test_data, test_labels = mnist_data.prepare_MNIST_data(
)
train_img = train_data[:, :-mnist_data.NUM_LABELS]
train_label = train_data[:, -mnist_data.NUM_LABELS:]
print("INFO: Loaded MNIST data, shape: {}".format(train_data.shape))
with tf.Session() as sess:
model = AdversarialAutoEncoder((train_img, train_label), train_size,
hps, sess)
tf.logging.info("Start Training")
trainer = Trainer((train_img, train_label), train_size, hps, sess,
model)
trainer.learn()
def crossPGA(parentA,parentB,children=2):
#Creating Child Param
childParam=param.param()
#Locking abundance ratios
if lockTiCr:
childParam.comp.lockTiCr=True
if lockScTi:
childParam.comp.lockScTi=True
if lockVCr:
childParam.comp.lockVCr=True
#Initialising mutation counter
childParam.mutations=0
selParameters=selElements+['lum','vph']
selParamLen=len(selParameters)
#Checking crossOverProbability
crossOverPoint=random.uniform(1,selParamLen-1)
paramChoice=random.permutation(selParameters)
#Crossover Selecting from both parents
for paramName in paramChoice[:crossOverPoint]:
childParam[paramName]=parentA[paramName]
for paramName in paramChoice[crossOverPoint:]:
childParam[paramName]=parentB[paramName]
childParam=mutateUniform(childParam)
childParam.comp.resetOxygen()
if childParam['O']<0: raise dalekExceptions.geneticException('Crossover: Child has negative oxygen')
return childParam
def read_hp_values(file_location):
# read folder_name
f = open(constants.INFO_FOLDER + file_location)
hp_values = param.param()
folder_name = f.readline().strip()
for line in f.readlines():
s = line.strip().split(',')
if s[0] == 'hp':
to_add = []
the_type = s[2]
the_name = s[1]
for i in range(3,len(s)):
if the_type == 'f':
to_add.append(float(s[i]))
elif the_type == 'i':
to_add.append(int(s[i]))
elif the_type == 's':
to_add.append(s[i])
hp_values.set_param(the_name, to_add)
return hp_values
def getFicaModel(conn, modelID, origSpecID=None):
curs = conn.cursor()
#retrieving origSpec:
if origSpecID != None:
origSpec = curs.execute('select spectrum from sn_spectra where id=%s' % origSpecID)
#Retrieving the Model
(machineName, execTime, wFactor, errorString,
abundanceID, dicaID,
lumVphID, spectrumID) = curs.execute('select MACHINE, TIME, W, ERROR, '
'ABUNDANCE_ID, DICA_ID, LUMVPH_ID, SPECTRUM_ID '
'from FICA_MODEL where FICA_MODEL.ID=%s' % modelID).fetchall()[0]
#getting dica params
colNames = zip(*curs.execute('PRAGMA table_info(fica_dica)').fetchall())[1]
colNames = map(str, colNames)
colValues = curs.execute('select * from fica_dica where id=%s' % dicaID).fetchall()[0]
dicaDict = dict(zip([convertFields2Dica[item] for item in colNames[1:]], colValues[1:]))
lum, vph = curs.execute('select LUM, VPH from FICA_LUMVPH where FICA_LUMVPH.ID=%s' % lumVphID).fetchall()[0]
dicaDict['log_lbol'] = lum
dicaDict['v_ph'] = vph
dica = param.dica(initDica=dicaDict, mode='fromDict')
return dica
#getting abundances
colNames = zip(*curs.execute('PRAGMA table_info(fica_abundance)').fetchall())[1]
colNames = map(str, colNames)
colValues = curs.execute('select * from fica_abundance where id=%s' % abundanceID).fetchall()[0]
compDict = dict(zip(colNames[1:], colValues[1:]))
comp = param.comp(initComp=compDict, t=dica['t'])
comp._setNiDecay()
curParam = param.param(initDica=dica, initComp=comp)
def read_param(file_location):
# read folder_name
f = open(constants.INFO_FOLDER + file_location)
the_params = param.param({})
hp_values = param.param()
folder_name = f.readline().strip()
global_stuff.RESULTS_FOLDER = global_stuff.RESULTS_BASE_FOLDER + folder_name + '/'
for line in f.readlines():
print line
if line[0] != '#':
s = line.strip().split(',')
if s[0] != 'hp':
the_name = s[0]
if the_name == 'n':
node_features = []
for i in range(1, len(s)):
node_features.append(constants.get_master_node_feature_list()[int(s[i])])
the_params.set_param('n', node_features)
if the_name == 'e':
edge_features = []
for i in range(1, len(s)):
edge_features.append(constants.get_master_edge_feature_list()[int(s[i])])
the_params.set_param('e', edge_features)
try:
the_type = s[1]
if the_type == 'f':
the_params.set_param(the_name, float(s[2]))
elif the_type == 'i':
the_params.set_param(the_name, int(s[2]))
elif the_type == 's':
the_params.set_param(the_name, s[2])
except:
pass
# hp values file happens to be the same as info file, so set that
the_params.set_param('hpvf', file_location)
if len(the_params.get_param('e')) != 0:
assert the_params.get_param('wif') != 2
return folder_name, the_params
def __init__(self, ctr):
super().__init__(ctr)
self.bspread = 20
self.aspread = 20
self.eblean = 0
self.ealean = 0
self.olean = 0 # used in b,a for option spot calculation. OptionSpot = (b+a)/2+olean
self.par = param.param('spread.DAS', self.on_spread)
def createOptions():
option.pvol = param.param('option.vol', option.on_vol)
for i, j in ledx.market.contract.contracts.items():
try:
if 'option' in j.msg['derivative_type'] and j.msg['active']:
x = option(j.msg, j)
except Exception as e:
logging.warning(e)
logging.info('options created ' + str(len(option.options)))
def crossArith(parentA,parentB,mutationRate=0.2):
childParam=param.param()
rChoice=random.permutation(selElements)
for element in rChoice:
childParam[element]=np.mean([parentA[element],parentB[element]])
if childParam['O']<0: raise Exception('Crossover: Child has negative oxygen')
if any(np.array(childParam.comp.data.values())<0):
raise dalekExceptions.geneticException('Negative values: %s'%childParam.comp.data.values())
childParam['lum']=np.mean([parentA['lum'],parentB['lum']])
childParam['vph']=np.mean([parentA['vph'],parentB['vph']])
return childParam
def set_params(options, param_file):
## default ##
options['params']['unit'] = 'second'
options['params']['dt'] = 162
options['params']['hotstart'] = 2
options['params']['rnday'] = 59
options['params']['output dt'] = 486
options['params']['file length'] = 44712 #12.42 hours in seconds
options['params']['hotstart dt'] = 44712 # in seconds
p = param()
p.pass_values(options['params'])
p.write(fileout=param_file)
def get_param():
import param
p = param.param({'ev':.05, 'uniprot_id':'REVERSE', 'avg_deg':1, 'n_cutoff':0, 'f_cutoff':15, 'which_msa':0, 'which_weight':1, 'which_dist':3, 'pseudo_c':0.1, 'which_blast':2, 'blmax':999999, 'which_impute':0, 'filter_co':0.35, 'psicov_sep':6, 'psicov_gap':0.5, 'psicov_r':.001, 'psiblast_iter':1, 'hhblits_iter':2, 'co':5.0, 'which_dataset':'hemo_stone', 'which_neighbors':1, 'protein_list_file':'rascalled_completed', 'to_leon':0, 'to_cluster':1, 'to_rascal':1, 'to_normd':0, 'norm_co':9.0, 'mut_freq':15})
return p
def crossSingle(parentA,parentB):
#Creating Child Param
childParam=param.param()
#Locking abundance ratios
if config.GAConfDict['lockTiCr']:
childParam.comp.lockTiCr=True
if config.GAConfDict['lockScTi']:
childParam.comp.lockScTi=True
if config.GAConfDict['lockVCr']:
childParam.comp.lockVCr=True
#Initialising mutation counter
childParam.mutations=0
#selParameters=selElements+['lum','vph']
selParameters=config.GAConfDict['selParameters']
#closedGAParameters = list(set(config.GAConfDict['openGAParametersDefault'])
# - set(config.GAConfDict['openGAParameters']))
closedGAParameters = []
selParamLen = len(selParameters)
#Checking crossOverProbability
if random.random()<config.GAConfDict['crossOverProbability']:
crossOverPoint=random.uniform(1,selParamLen-1)
paramChoice=random.permutation(selParameters)
#Crossover Selecting from both parents
for paramName in paramChoice[:crossOverPoint]:
childParam[paramName]=parentA[paramName]
for paramName in paramChoice[crossOverPoint:]:
childParam[paramName]=parentB[paramName]
else:
#No crossover, selecting parameters from ParentA
for paramName in selParameters:
childParam[paramName]=parentA[paramName]
if closedGAParameters != []:
for paramName in selParameters:
childParam[paramName] = parentA[paramName]
childParam=mutateUniform(childParam)
childParam.comp.resetOxygen()
if childParam['O']<0: raise dalekExceptions.geneticException('Crossover: Child has negative oxygen')
return childParam
def fromPath(cls, basePath=".", machineName=None, param=None, origSpec=None, fitFunc=None, t=None, execTime=None):
if param == None:
dicaData = fileio.dicafile(os.path.join(basePath, "dica.dat")).read_data()
compData = fileio.compfile(os.path.join(basePath, "comp.ind")).read_data()
dica = paramMod.dica(dicaData, mode="fromPath", t=t)
comp = paramMod.comp(compData, t=dica["t"])
param = paramMod.param(initDica=dica, initComp=comp)
aSpecPath = os.path.join(basePath, "spct.dat")
try:
aSpec = spectrum(aSpecPath, usecols=(0, 2))
sbib = fileio.sbibfile(os.path.join(basePath, "sbib.dat")).read_data()
llist = sbib["llist"]
wParams = fileio.ststfile(os.path.join(basePath, "stst.dat")).getWParams()
specFlag = 0
except:
print "Creating fake Spectrum @%s" % basePath
aSpec = spectrum(zip(np.linspace(2000, 20000, 20), range(1, 21)))
sbib = {"llist": []}
llist = sbib["llist"]
wParams = []
specFlag = -1
log = list(file(os.path.join(basePath, "fica.log")))
# error=list(file(os.path.join(basePath,'error.log')))
if wParams != []:
w = wParams[-1][0][-1]
else:
w = -1
return cls(
aSpec,
param,
w,
machineName=None,
execTime=execTime,
wParam=wParams,
error=None,
ficaLog=log,
llist=llist,
origSpec=origSpec,
specFlag=specFlag,
fitFunc=fitFunc,
)
def initTriCycle(IGEElement,doPickle=True,samples=10):
fitHist=param.fitHistory()
lumInterval=runLumCycle(maxIter=5)
curParam=param.param()
curParam['lum']=lumInterval['suggestValue']
intervals={'luminterval':lumInterval['interval'],
'vphinterval':initialize.getVphBounds(),
#make sure that no other metal really shoots up
'igeinterval':initialize.getElementBounds(IGEElement,curParam.comp)}
#pdb.set_trace()
lumRange=np.linspace(intervals['luminterval'][0],intervals['luminterval'][1],num=samples)
vphRange=np.linspace(intervals['vphinterval'][0],intervals['vphinterval'][1],num=samples)
IGERange=np.linspace(intervals['igeinterval'][0],intervals['igeinterval'][1],num=samples)
lumMG,vphMG,IGEMG,curParamMG=launcherSteps.launchTriCycle(lumRange,vphRange,IGERange,IGEElement,initParam=curParam)
if doPickle:
pickle.dump(lumMG,file('lumMG0.pkl','w'))
pickle.dump(vphMG,file('vphMG0.pkl','w'))
pickle.dump(IGEMG,file('igeMG0.pkl','w'))
evalTriCycle(lumMG,vphMG,IGEMG,curParamMG,curParam,intervals,fitHist,IGEElement,mode='init')
return fitHist,curParam,intervals
def createRandomParam(randomParamFunc=None):
#creating new paramObject
lumLimits = config.GAConfDict['lumLimits']
vphLimits = config.GAConfDict['vphLimits']
randomParam=param.param()
if config.GAConfDict['lockTiCr']:
randomParam.comp.lockTiCr=True
if config.GAConfDict['lockScTi']:
randomParam.comp.lockScTi=True
if config.GAConfDict['lockVCr']:
randomParam.comp.lockVCr=True
if randomParamFunc==createRandomLogNormalValueBestFit:
fname=glob('*.bf.pkl')[0]
bestFitParam=cPickle.load(file(fname))
#Limiting luminosity and photospheric velocity near best fit value, commented out atm
#randomParam['lum']=random.uniform(bestFitParam['lum']-0.1,bestFitParam['lum']+0.1)
#no limit for lum parameter
#randomParam['lum']=bestFitParam['lum']
randomParam['lum']=random.uniform(*lumLimits)
else:
randomParam['lum']=random.uniform(*lumLimits)
randomParam['vph']=random.uniform(*vphLimits)
rChoice=random.permutation(config.GAConfDict['selElements'])
for element in rChoice:
bounds=initialize.getElementBounds(element,randomParam.comp)
curAbundance=randomParam[element]
#newAbundance=random.uniform(bounds[0],bounds[1])
newAbundance=randomParamFunc(curAbundance,element,bounds)
if any(np.array(bounds)<0): raise Exception('Negative Bounds')
randomParam[element]=newAbundance
randomParam.comp.resetOxygen()
if randomParam['O']<0: pdb.set_trace()
if randomParam[element]<0: pdb.set_trace()
if randomParam.comp.data.has_key('element'): raise Exception()
#randomParam['Ca']=0.01
#randomParam['vph']=11700
return randomParam
def human_classify(self, record):
import wc
import param
p = param.param({'pid':record.pid, 'rec_idx':record.idx})
stored_qa = wc.get_stuff(side_effect_human_input_report_labels, p)
import quesions
the_q = questions.urinary_incontinence
try:
ans = stored_qa[the_q]
except KeyError:
raise my_exceptions.NoFxnValueException
else:
if ans == 0:
raise my_exceptions.NoFxnValueException
else:
if ans in [1,2]:
return 1
elif ans in [3,4]:
return 0
else:
pdb.set_trace()
raise
def __init__(self, maker, params=param({})):
# pdb.set_trace()
maker, params = self.before_init(maker, params)
self.other_init(maker, params)
self.basic_init(maker, params)
import global_stuff
import wc
import param
import objects
import sys
which_job = int(sys.argv[1])
total_jobs = int(sys.argv[2])
which_object = objects.pairwise_dist
f = open(global_stuff.protein_list_file, "r")
i = 0
for line in f:
if i % total_jobs == which_job:
protein_name = line.strip()
wc.get_stuff(which_obj, param.param({"uniprot_id": protein_name}), True, True, False)
from glob import glob
import os
import random
import cv2
import imageio
from tensorflow.keras import backend as K
# from keras.applications.vgg16 import VGG16, preprocess_input, decode_predictions
from tensorflow.keras.preprocessing import image
from tensorflow.keras.models import load_model
from matplotlib import pyplot as plt
import numpy as np
import param
p = param.param()
rand = random.Random(42)
assert K.image_data_format() == 'channels_last'
def preprocess_input(imgs):
batch = []
for img in imgs:
img = np.array(img, dtype=float)
img -= np.amin(img)
img /= np.amax(img)
batch.append(img)
batch = np.array(batch)
return batch
Exps = collections.defaultdict(list)
Labels = {}
Ids = {}
for i, j in contracts.items():
if j['derivative_type'] == 'options_contract':
Ids[j['label']] = i
Labels[i] = j['label']
exp = dateutil.parser.parse(
j['date_expires']).replace(tzinfo=None).date()
Exps[exp].append(j)
NamesS = set(Ids.keys())
ExpS = set([i.isoformat() for i in Exps.keys()])
p = param.param('option.vol')
rex1 = re.compile('(\d+[\.]?\d*)')
rex2 = re.compile('([+-]?\d+[\.]?\d*),([+-]?\d+[\.]?\d*)')
rex3 = re.compile('(\d+),(\d+)')
rex1 = re.compile('(\d+[\.]?\d*)')
rex1n = re.compile('([+-]?\d+[\.]?\d*)')
rexb = re.compile('True|False')
rexday = re.compile('(BTC|ETH)-Day$')
rexdayK = re.compile('(BTC|ETH)-Day-(Call|Put)-\$([0-9,]*)$')
def getSize(x):
name = input("What's your " + x + " bsize/asize? ")
res = rex3.match(name)
if res:
import param
import math
import functools
#Puntos
P = [(-3, 0), (-1, 4), (2, 3), (4, 1)]
n = 4
param.points(*zip(*P))
# Calcular polinomio
def a(i, t):
# Productoria
factors = ((t - k) / (i - k) for k in range(n) if k != i)
return functools.reduce(lambda x, y: x * y, factors)
def L(t):
X, Y = zip(*P)
return \
sum(X[i]*a(i,t) for i in range(n)), \
sum(Y[i]*a(i,t) for i in range(n))
param.param(L, 0, n - 1, 100)
for line in f:
name = line.strip()
folder = global_stuff.base_folder + name + '/'
files = os.listdir(folder)
has_easy = False
has_dist = False
enough_rows = False
for a_file in files:
if 'easy' in a_file:
has_easy = True
subprocess.call(['cp', folder+a_file, folder+'msa'])
if 'pairwise' in a_file:
has_dist = True
subprocess.call(['cp', folder+a_file, folder+'dists'])
# copy to better file_name
msa = wc.get_stuff(objects.agW, param.param({'uniprot_id':name, 'ev':evalue}), False, False, False)
if len(msa) > 50:
enough_rows = True
if has_easy and has_dist and enough_rows:
completed.append(name)
g = open(global_stuff.completed_list_file, 'w')
for name in completed:
g.write(name + '\n')
f.close
g.close()
pdb_folders = os.listdir(home)
f = open(pdb_list_file, 'w')
new_folders = []
for folder in pdb_folders:
s = folder.strip().split('_')
pdb_name = s[0]
params = param.param({'p':pdb_name})
while 1:
try:
g = wc.get_stuff(objects.fW, params, False, False, False)
except Exception, err:
print err
import time
time.sleep(20)
else:
break
structure = Bio.PDB.PDBParser().get_structure(params.get_param('p'), g)
if s[1] == '':
letter = structure[0].child_dict.keys()[0]
else:
`plot.show()`
'''
# __MATH MODULES__________________________
import numpy as np
import pandas as pd
import matplotlib.pyplot as plt
from scipy import stats
import seaborn as sns
# __USER MODULES__________________________
import read_table as rt
import param
param = param.param()
path = param['in']
freq_start = param['freq_start']
freq_stop = param['freq_stop']
freq_num = param['number_of_rows']
freq_index = np.linspace(freq_start, freq_stop, freq_num) # 周波数範囲
# __DATA__________________________
df = rt.dataframe(path, regex='20160201_00') # regexが空のときはdataglob()によって入力が施される
def plt_setting(plot_element):
'''
引数:
plot_element:プロットする要素数(value)
import param
import math
#Puntos
P = [(-1, 0), (1, 4), (3, -2), (4, 3), (6, 1)]
n = 5
k = 3
param.points(*zip(*P))
# Algoritmo de De Boore
def S(t):
d_x, d_y = zip(*(P + [(0, 0)]))
a = int(t)
for j in range(1, k + 1):
temp_x, temp_y = [0] * (n + 1), [0] * (n + 1)
for i in range(a - 3 + j, a + 1):
a_ir = (t - i) / (k - j + 1)
temp_x[i] = (1 - a_ir) * d_x[i - 1] + a_ir * d_x[i]
temp_y[i] = (1 - a_ir) * d_y[i - 1] + a_ir * d_y[i]
d_x, d_y = temp_x, temp_y
return d_x[a], d_y[a]
param.param(S, 3., 5., 100)
import param
#Puntos
P = [(-3, 0), (-1, 4), (2, 3), (4, 1)]
n = 4
param.points(*zip(*P))
# Polinomio hallado en el examen
def B(t):
return \
-3 + 6*t + 3*t**2 - 2*t**3, \
12*t - 15*t**2 + 4*t**3
param.param(B, 0., 1., 100)
def get_param():
import param
p = param.param({'ev':1e-10, 'protein_list_file':'mf_done', 'uniprot_id':'Q8WXA2', 'avg_deg':3, 'n_cutoff':0, 'f_cutoff':15, 'which_msa':1, 'which_weight':1, 'which_dist':1, 'pseudo_c':1})
return p
def __init__(self, maker, params = param({})):
# pdb.set_trace()
maker, params = self.before_init(maker, params)
self.base_folder = global_stuff.base_folder
self.other_init(maker, params)
self.basic_init(maker, params)
import random
random.seed(111)
EPS = 1e-6
nVariables = 10
nCassures = 60
xMin = -10*np.arange(nVariables)-10
xMax = +10*np.arange(nVariables)+10
ITERATIONS = []
nIterations = len(ITERATIONS)
CUT_RHS = np.empty(len(ITERATIONS))
CUT_COEFF = np.empty((nVariables, nIterations), dtype = object)
CUT_POINT = np.empty((nVariables, nIterations), dtype = object)
parametres = param(EPS, nVariables, nCassures, nIterations, xMin, xMax, ITERATIONS, CUT_RHS, CUT_COEFF, CUT_POINT)
X = X_generator(parametres)
r = Modele(parametres).resultats()
m = Modele
final_result = cutting_plane(parametres, m, X)
#Print solution
print("x* = %s " %final_result['x'])
#Check : final_result['pb'].status : optimal = 1
from __future__ import division
import scipy.misc
import tensorflow as tf
from param import param
import numpy as np
import os
hps = param()
def load_dataset(data, label=None):
try:
_, _ = data.shape
except:
raise ValueError("Data type should be ndarray")
if label is None:
label = np.zeros_like(data)
dataset = tf.data.Dataset.from_tensor_slices((data, label))
dataset = dataset.map(parse_img)
dataset = dataset.shuffle(100000).repeat()
dataset = dataset.batch(hps.batch_size)
return dataset
def parse_img(img, label):
img = tf.cast(img, tf.float32)
class twosided(object):
Out = {}
market = None
lastb = None
lasta = None
last_spot = None
orders = {}
pstatus = param.param('quoting.status', order.on_status)
def __init__(self, ctr):
self.contract = ctr
self.bspread = 500.
self.aspread = 500.
self.espread = 0.
self.bsize = 2
self.asize = 2
self.lastac = None
self.lastbc = None
self.lastao = order(ctr)
self.lastbo = order(ctr)
self.lastao.quoting = True
self.lastbo.quoting = True
self.ok = True
self.option = None
twosided.Out[ctr] = self
twosided.orders[ctr.id] = {
True: self.lastao,
False: self.lastbo
} # 'is_ask': True is an offer
@staticmethod
async def cancel():
for i, j in twosided.Out.items():
await j.lastao.cancel()
await j.lastbo.cancel()
j.lastac = None
j.lastbc = None
async def canceltwo(self):
await self.lastao.cancel()
await self.lastbo.cancel()
self.lastac = None
self.lastbc = None
def on_fill(self, msg):
self.lastac = None
self.lastbc = None
if self.option is not None:
self.option.on_fill(msg)
async def on_spot(self, prb, pra=None):
if pra is None:
if prb is None: return
pra = prb
twosided.lastb = prb
twosided.lasta = pra
twosided.last_spot = (prb + pra) / 2.
async def on_quote(self, prb, pra):
self.ok = False
prbc = order.cents(prb)
prac = order.cents(pra + 0.25)
if prbc != self.lastbc and prac != self.lastac:
bf = prbc < self.lastbc if self.lastbc is not None else True
self.lastbc = prbc
self.lastac = prac
if bf:
res = await self.lastbo.send(self.bsize, prb)
res = await self.lastao.send(-self.asize, pra)
else:
res = await self.lastao.send(-self.asize, pra)
res = await self.lastbo.send(self.bsize, prb)
self.ok = True
return
if prbc != self.lastbc:
self.lastbc = prbc
res = await self.lastbo.send(self.bsize, prb)
elif prac != self.lastac:
self.lastac = prac
res = await self.lastao.send(-self.asize, pra)
self.ok = True
async def on_spread(self, cmd):
logging.info('spread update ' + str(cmd))
if 'bspread' in cmd: self.bspread = float(cmd['bspread'])
if 'bsize' in cmd: self.bsize = int(cmd['bsize'])
if 'aspread' in cmd: self.aspread = float(cmd['aspread'])
if 'asize' in cmd: self.asize = int(cmd['asize'])
self.espread = 0
import f as features
import new_new_objects as objects
import param
# import try_svm
# [features.xW, features.akW]
# the_dict = {'data_list_file':'q.pl', 'edge_feature_list':[features.xW, features.akW], 'node_feature_list':[features.ayW, features.xW, features.vW, features.uW, features.wW, features.zW], 'dist_cut_off':5, 'pdb_name':'1b6b', 'chain_letter':'B', 'reg':10, 'mfmi':100, 'wif':0, 'wfld':0, 'nfld':2, 'ns':2, 'wob':0, 'evalue':1e-10, 'pos1':1, 'pos2':2, 'wreg':1, 'trun':99, 'wclf':objects.pW, 'svmC':10}
# the_dict = {'hp':param.param(), 'd':'cw.pl', 'e':[features.xW, features.akW], 'n':[features.beW, features.bbW, features.ayW, features.xW, features.vW, features.uW, features.wW, features.zW], 'co':5, 'pdb_name':'12as', 'chain_letter':'A', 'reg':100, 'mfmi':20, 'wif':0, 'wfld':0, 'nfld':2, 'ns':2, "wob":0, 'wob2':2, 'evalue':1e-10, 'pos1':1, 'pos2':2, 'wreg':1, 'trun':99, 'wclf':objects.pW, 'svmC':10, 'lgn':9, 'lgc':5, 'pos':45, 'nwc':-1.0, 'micut':5, 'wtpr':0, 'posw':150, 'sfc':1, 'self':False, 'mx':50, 'ok':3, 'ik':2, 'md':1, 'tj':1, 'wj':0, 'hpvf':'test_hp'}
the_dict = {
"hp": param.param(),
"d": "cw.pl",
"e": [],
"n": [features.beW, features.bbW, features.ayW, features.xW, features.vW, features.uW, features.wW, features.zW],
"co": 5,
"pdb_name": "12as",
"chain_letter": "A",
"reg": 100,
"mfmi": 20,
"wif": 2,
"wfld": 0,
"nfld": 2,
"ns": 2,
"wob": 0,
"wob2": 2,
"evalue": 1e-10,
"pos1": 1,
"pos2": 2,
def fromDB(cls, conn, modelID, GARunID=None):
curs = conn.cursor()
# retrieving origSpec:
if GARunID != None:
origSpec = curs.execute("select SN_SPECTRUM from GA_RUN where id=%s" % GARunID).fetchall()[0][0]
else:
origSpec = None
# Retrieving the Model
(
machineName,
execTime,
wFactor,
errorString,
ficaLog,
abundanceID,
dicaID,
lumVphID,
spectrumID,
) = curs.execute(
"select MACHINE, TIME, W, ERROR, FICA_LOG, "
"ABUNDANCE_ID, DICA_ID, LUMVPH_ID, SPECTRUM_ID "
"from FICA_MODEL where FICA_MODEL.ID=%s" % modelID
).fetchall()[
0
]
if spectrumID == "None":
specFlag = -1
else:
specFlag = 0
# getting dica params
colNames = zip(*curs.execute("PRAGMA table_info(fica_dica)").fetchall())[1]
colNames = map(str, colNames)
colValues = curs.execute("select * from fica_dica where id=%s" % dicaID).fetchall()[0]
dicaDict = dict(zip([dalekDB.convertFields2Dica[item] for item in colNames[1:]], colValues[1:]))
lum, vph = curs.execute("select LUM, VPH from FICA_LUMVPH where FICA_LUMVPH.ID=%s" % lumVphID).fetchall()[0]
dicaDict["log_lbol"] = lum
dicaDict["v_ph"] = vph
dica = paramMod.dica(initDica=dicaDict, mode="fromDict")
# getting abundances
colNames = zip(*curs.execute("PRAGMA table_info(fica_abundance)").fetchall())[1]
colNames = map(str, colNames)
colValues = curs.execute("select * from fica_abundance where id=%s" % abundanceID).fetchall()[0]
compDict = dict(zip(colNames[1:], colValues[1:]))
comp = paramMod.comp(initComp=compDict, t=dica["t"])
comp._setNiDecay()
# getting aSpec
if specFlag == 0:
wl = dalekDB.createWLGrid(dicaDict["wl"] * 1e4, dicaDict["grid"] * 1e4, dicaDict["mu"])
intens = curs.execute("select spectrum from fica_spectrum where id=%s" % abundanceID).fetchall()[0][0]
aSpec = spectrum(wl, intens)
elif specFlag == -1:
aSpec = spectrum(zip(np.linspace(2000, 20000, 20), range(1, 21)))
sbib = {"llist": []}
llist = sbib["llist"]
wParam = []
# getting llist
colValues = curs.execute(
"select eqw, shift, rest, atom, ion, param1, param2, param3 " "from FICA_LLIST where model_id=%d" % modelID
).fetchall()
# checking if llist exists for current model
if colValues == []:
llist = None
else:
colNames = zip(*curs.execute("PRAGMA table_info(fica_llist)").fetchall())[1]
colNames = [
(str(item.lower()), "|S2") if item == "ATOM" else (str(item.lower()), float) for item in colNames[2:]
]
llist = np.array(colValues, dtype=colNames)
""" Commented out until wParams becomes important, W is safed none the less
#getting wParams
colValues = curs.execute('select XS, VS, LOGRH, TE, TR, W '
'from FICA_WPARAM where FICA_WPARAM.model_id=%d' % model_id).fetchall()
#checking if WParams exists for current model
if colValues == []: llist = None
else:
colNames = zip(*curs.execute('PRAGMA table_info(fica_WPARAM)').fetchall())[1]
colNames = [(item.lower(), '|S2') if item=='ATOM' else (item.lower(), float)
for item in colNames[2:]]
llist = np.array(colValues, dtype=colNames)
"""
wParam = None
curParam = paramMod.param(initDica=dica, initComp=comp)
return cls(
aSpec,
curParam,
wFactor,
machineName=machineName,
execTime=execTime,
wParam=wParam,
error=errorString,
ficaLog=ficaLog,
llist=None,
origSpec=origSpec,
specFlag=specFlag,
)
from wrapper_decorator import dec
import wrapper
import param
import pdb
# will contain registry of wrappers. if it is a wrapper, in constructor will obtain current constructor's number. the constructor returns wrappers. make it a wrapper even though not taking advantage of pickling, still need caching (wrappers string to idx doesn't store actual wrappers). if you want to create a wrapper with parameters, would pass that in as a parameter in params
class wrapper_catalog(wrapper.obj_wrapper, wrapper.indexing_wrapper):
# since there is no maker, hackishly set it to self
def __init__(self, maker, params):
#pdb.set_trace()
maker = self
self.basic_init(maker, params)
self.maker.set_param(params, "source_instance", self)
self.cache = caches.object_cache_for_wrapper(maker, params)
def is_indexed(self):
return False
# params contains which_wrapper, and if which_wrapper is a generic_dumper_wrapper, contains
@dec
def constructor(self, params, recalculate = False, to_pickle = False, to_filelize = False):
wrapper_instance = self.get_param(params, "which_wrapper_class")(self, params)
return wrapper_instance
#pdb.set_trace()
wc = wrapper_catalog(None, param.param({}))
import wc
import objects
import param
import pdb
p = param.param()
A = set(wc.get_stuff(objects.PID_with_SS_info, p))
B = set(wc.get_stuff(objects.PID_with_shared_MRN, p))
C = set(wc.get_stuff(objects.PID_with_several_tumors, p))
PID_to_use = A - B - C
PID_to_MRN = wc.get_stuff(objects.PID_to_MRN_dict,p)
i = 0
lengths = []
for PID in PID_to_use:
p.set_param('pid',PID)
texts = wc.get_stuff(objects.raw_medical_text,p)
lengths.append(len(texts))
print i, PID, len(texts)
i += 1
pdb.set_trace()
def uhgs(minSol, maxSol, omega, muelite, itDiv):
minSol = int(minSol)
maxSol = int(maxSol)
instance = "X-n101-k25.dat"
itMax = 2000
prep = 0.5
near = 0.2
muclose = 0.8
resultfile = instance + "_results.txt"
try:
p = param("./instances/" + instance, minSol, maxSol, omega,
muelite, prep, itMax, itDiv, near, muclose)
possol = []
while(len(possol) == 0):
possol, negsol = mc.initializepop(p)
if len(possol) == 0:
p.omega += 10
mc.recomputesimilarity(negsol, p)
mc.recomputefitness(negsol, p)
mc.recomputesimilarity(possol, p)
mc.recomputefitness(possol, p)
start = time.time()
it = 0
itDivCount = 0
best = copy.deepcopy(min(possol, key=utils.takecost))
besttime = 0
while it < p.itMax and (time.time() - start)/60 < 30:
args = []
for _ in range(10):
args.append([possol, negsol, p])
with ProcessPoolExecutor() as executor:
result = executor.map(mc.crossandedu, args)
solutions = list(result)
solutions = [item for sublist in solutions for item in sublist]
for sol in solutions:
if sol.feas:
possol.append(sol)
else:
negsol.append(sol)
it += int(10)
itDivCount += int(10)
if min(possol, key=utils.takecost).costo < best.costo:
it = 0
itDivCount = 0
best = copy.deepcopy(min(possol, key=utils.takecost))
besttime = time.time() - start
if len(possol) > p.maxSol:
mc.recomputesimilarity(possol, p)
mc.recomputefitness(possol, p)
del possol[p.minSol:]
if best.costo < min(possol, key=utils.takecost).costo:
possol.append(best)
if len(negsol) > p.maxSol:
mc.recomputesimilarity(negsol, p)
mc.recomputefitness(negsol, p)
del negsol[p.minSol:]
if itDivCount > p.itDiv*p.itMax:
possol.sort(key=utils.takefitness, reverse=True)
negsol.sort(key=utils.takefitness, reverse=True)
del possol[int(p.minSol/3):]
del negsol[int(p.minSol/3):]
possol, negsol = mc.fillpop(possol, negsol, p)
mc.recomputesimilarity(possol, p)
mc.recomputefitness(possol, p)
mc.recomputesimilarity(negsol, p)
mc.recomputefitness(negsol, p)
itDivCount = 0
p.printonfile(resultfile)
best.printonfile(resultfile)
file = open(resultfile, 'a')
file.write("\nBest founded after ")
file.write(str(besttime/60))
file.write(" min\nProgram ended in: ")
file.write(str((time.time() - start)/60))
file.write(" min\n\n\n\n")
file.close()
return -best.costo
except Exception:
print("error")
traceback.print_exc()
return -999999999
import re, param
import gnureadline
gnureadline.parse_and_bind('tab: complete')
gnureadline.parse_and_bind('set editing-mode vi')
p = param.param('spread.DAS')
rex2 = re.compile('(\d+)@([+-]?\d+[\.]?\d*),(\d+)@([+-]?\d+[\.]?\d*)')
rex3 = re.compile('(\d+)@([+-]?\d+[\.]?\d*),(\d+)@([+-]?\d+[\.]?\d*),([+-]?\d+[\.]?\d*)')
rex1 = re.compile('(\d+)@([+-]?\d+[\.]?\d*)')
rexf = re.compile('(\d+[\.]?\d*)')
x = p.get()
if x is not None:
olean = x['olean'] if 'olean' in x else 0
while True:
x = p.get()
print(x)
if x is not None:
olean = x['olean'] if 'olean' in x else 0
else:
olean = 0
name = input("What's your spread? ")
res = rex3.match(name)
if res:
bsz = int(res.groups()[0])
bspr = float(res.groups()[1])
asz = int(res.groups()[2])
def PID_to_MRN(pid):
import wc, objects
m = wc.get_stuff(objects.PID_to_MRN_dict, param.param())
return m[pid]
import wrapper
#import f as features
import param
import pdb
import objects
import global_stuff
import my_exceptions
#pdb.set_trace()
useless = wrapper.famished_wrapper()
wc = wrapper.wrapper_catalog(useless, param.param({}))
def get_stuff(wrapper_class, params, recalculate=False, to_pickle=False, to_filelize=False, always_recalculate = False):
params.set_param('which_wrapper_class', wrapper_class)
wc_used_keys, wc_all_keys, wrapper_instance, all_keys_key_key_set = wc.constructor(params, True, False, False)
try:
stuff_used_keys, stuff_all_keys, stuff, stuff_all_keys_key_key_set = wrapper_instance.constructor(params, recalculate, to_pickle, to_filelize, always_recalculate = always_recalculate)
except Exception, err:
print 'ERROR when calling get_stuff with this error', err
import traceback, sys
for frame in traceback.extract_tb(sys.exc_info()[2]):
fname, lineno,fn,text = frame
print "Error in %s on line %d" % (fname, lineno)
print sys.exc_traceback.tb_lineno
raise my_exceptions.WCFailException
else:
from keras.preprocessing.image import ImageDataGenerator
from models import models
from param import param
p = param()
vgg = models().vgg_net_v2()
vgg.summary()
train_data_generator = ImageDataGenerator(
rescale=1./255,
shear_range=.2,
zoom_range=.2,
horizontal_flip=True
)
train_generator = train_data_generator.flow_from_directory(
p.train_fold,
target_size=(150, 150),
batch_size=p.batch_size,
class_mode='binary'
)
test_generator = ImageDataGenerator(rescale=1./255).flow_from_directory(
p.test_fold,
target_size=(150, 150),
batch_size=p.batch_size,
class_mode='binary'
)
def testParam(self): p1 = param(self.api, ht.COLUMN1) self.assertEqual(p1, 'one') p2 = param(self.api, ht.COLUMN1, row_num=2) self.assertEqual(p2, 'two')
def testParam(self):
p1 = param(self.api, ht.COLUMN1)
self.assertEqual(p1, 'one')
p2 = param(self.api, ht.COLUMN1, row_num=2)
self.assertEqual(p2, 'two')
import wc
import param
import objects
p = param.param({'ev':1e-10, 'protein_list_file':'hum_var_msa_dist_completed', 'uniprot_id':'P80075', 'avg_deg':20, 'n_cutoff':0, 'f_cutoff':15})
m = wc.get_stuff(objects.pairwise_dist, p, False, False, False)
def get_wrapper_instance(wrapper):
import param
temp = param.param()
temp.set_param('which_wrapper_class', wrapper)
a,b,c,d = wc.constructor(temp, True, False, False)
return c
import wc
import param
import objects
import global_stuff
import helper
import wrapper
import sys
name = sys.argv[1]
which_msa = int(sys.argv[2])
try:
itera = int(sys.argv[3])
except:
pass
p = param.param({'pdb':'1JOS', 'chain':'A', 'which_dataset':'CBS', 'uniprot_id':name, 'co':7.0, 'which_blast':0, 'which_msa':which_msa, 'ev':.05, 'blmax':999999,'hhblits_iter':itera, 'which_neighbors':1, 'protein_list_file':'rascalled_completed', 'to_leon':0, 'to_cluster':1, 'to_rascal':0, 'to_normd':0, 'norm_co':9.0, 'psiblast_iter':itera})
wc.get_stuff(wrapper.my_msa_obj_wrapper, p)
p.set_param('to_rascal', 1)
wc.get_stuff(wrapper.my_msa_obj_wrapper, p)
p.set_param('to_normd', 1)
wc.get_stuff(wrapper.my_msa_obj_wrapper, p)
import param
p = param.param('quoting.status')
p.send({'status': False})
import f as features
import new_new_objects as objects
import param
the_dict = {'data_list_file':'e.pl', 'edge_feature_list':[features.xW, features.akW], 'node_feature_list':[features.beW, features.bbW, features.ayW, features.xW, features.vW, features.uW, features.wW, features.zW], 'dist_cut_off':5, 'pdb_name':'2jcw', 'chain_letter':'A', 'reg':100, 'mfmi':100, 'wif':0, 'wfld':0, 'nfld':2, 'ns':2, "wob":0, 'wob2':2, 'evalue':1e-10, 'pos1':1, 'pos2':2, 'wreg':1, 'trun':99, 'wclf':objects.pW, 'svmC':10, 'lgn':9, 'lgc':5, 'pos':45, 'nwc':-1.0, 'micut':5, 'wtpr':0, 'posw':150, 'sfc':1, 'self':False}
the_params = param.param(the_dict)
