def bankrisk(innercode, checkdate):
innercodeCalc, result = ca.reshape_innercode(innercode=innercode, checkdate=checkdate, cache=ca.bankRiskCache)
#innercodeCalc=innercode
result = df(result,columns=('innercode', 'es'))
if len(innercodeCalc) != 0:
query="""SELECT
financedata.bank_fin_prd.INNER_CODE,
financeprd.bank_risk.VAR
FROM
financedata.bank_fin_prd,
financeprd.bank_risk
WHERE
financedata.bank_fin_prd.INNER_CODE IN ( %s )
AND
financeprd.bank_risk.BANK_ID = financedata.bank_fin_prd.BANK_ID """ % ','.join(innercodeCalc)
result_new = GetDataFromDB(config, query)
result_new.columns = ['innercode', 'es']
innercode_empty=df(columns=['innercode', 'es'])
innercode_empty['innercode']=list(set(innercodeCalc)-set(result_new['innercode'].astype(str)))
innercode_empty['es']=''
innercode_empty.columns=['innercode','es']
result_new=result_new.append(innercode_empty,ignore_index=1)
#save cache for new data
ca.set_cache(result_new=result_new, checkdate=checkdate,cache=ca.bankRiskCache)
result=result.append(result_new,ignore_index=1)
result['checkdate'] = checkdate
else:
result['checkdate'] = checkdate
return (result.to_json(orient='index'))
def __init__(self, niimg, xy=None, alpha=.5, ch_user=None, fit=True,
cmap='magma'):
from nilearn import _utils
if isinstance(niimg, str):
niimg = _utils(niimg)
# Store params
self.fit = fit
self.alpha = alpha
self.xy = xy
# Read MRI data
data = niimg.get_data()
affine = niimg.affine
# Setup MRI viewer
self.axes = list()
# ---- Horizontally stack the three views
widths = np.array(np.abs([affine[1, -1], affine[0, -1],
affine[0, -1]]), int)
cum_width = 0
for ii, width in enumerate(widths):
ax = plt.subplot2grid((1, sum(widths)), (0, cum_width),
colspan=width)
self.axes.append(ax)
cum_width += width
plt.subplots_adjust(hspace=0, wspace=0, left=0, right=1.0, top=1.,
bottom=0.1)
self.viewer = OrthoSlicer3D(data, affine=affine, cmap=cmap,
axes=self.axes)
# ---- Each view has a particular x, y, depth order
self.ax_xyd = ([1, 2, 0], [0, 2, 1], [0, 1, 2])
# Interactive components
ax.get_figure().canvas.mpl_connect('key_press_event', self._press)
# channel locations
columns = (['handle_%i' % ii for ii in range(3)] +
['x', 'y', 'z', 'x_idx', 'y_idx', 'z_idx'])
self.ch_user = df(columns=columns) if ch_user is None else ch_user
self.ch_pred = df(columns=columns)
# Scatter plot handles
plt.gcf().canvas.mpl_connect('motion_notify_event', self._draw)
self._last_refresh = time() # XXX to refresh every 100 ms max
# Grid GUI
self.grid = GridGUI(ax=plt.axes([0.1, 0., 0.1, 0.1]), xy=xy)
# Setup surface fitting
self.model = ModelSurface(alpha=alpha, verbose=None)
self._init_add()
plt.show()
def process_lock(args,junction):
global table
name = args.replace("/","_")
dir = "pickle/" + name + "/"
path = "C:/Users/IBM_ADMIN/Documents/Disseration/Figures/"
data = df().from_csv(dir + "data.csv")
result = db.peak_weekday.find({"_id":args}).sort("_id", -1)
hour = [0,0]
global weatherstore
loc = df()
data["IDUBLINC2_dailyrainMM"] = weatherstore["IDUBLINC2"]["dailyrainMM"]
data["IDUBLINC2_TemperatureC"] = weatherstore["IDUBLINC2"]["TemperatureC"]
point = wd.stations_coordinates("IDUBLINC2")
loc["IDUBLINC2_distance"] = jh.distance_between_junction(junction, point)
data["ILEINSTE8_dailyrainMM"] = weatherstore["ILEINSTE8"]["dailyrainMM"]
data["ILEINSTE8_TemperatureC"] = weatherstore["ILEINSTE8"]["TemperatureC"]
point = wd.stations_coordinates("ILEINSTE8")
loc["ILEINSTE8_distance"] = jh.distance_between_junction(junction, point)
data["ICODUBLI2_dailyrainMM"] = weatherstore["ICODUBLI2"]["dailyrainMM"]
data["ICODUBLI2_TemperatureC"] = weatherstore["ICODUBLI2"]["TemperatureC"]
point = wd.stations_coordinates("ICODUBLI2")
loc["ICODUBLI2_distance"] = jh.distance_between_junction(junction, point)
data = data.dropna()
for res in result:
h = res["item"][0]["hour"]
hour[0] = str(h) + ":00"
hour[1] = str((h)) + ":59"
try:
data = data.between_time(hour[0],hour[1]).resample('B').dropna()
except Exception:
data = data.resample('B').dropna()
ts1 = pd.Series(data["STT"].values.squeeze())
ts_rain = {}
#ts_temp = {}
ts_rain["IDUBLINC2_dailyrainMM"] = pd.Series(data["IDUBLINC2_dailyrainMM"].values.squeeze())
ts_rain["IDUBLINC2_TemperatureC"] = pd.Series(data["IDUBLINC2_TemperatureC"].values.squeeze())
ts_rain["ILEINSTE8_dailyrainMM"] = pd.Series(data["ILEINSTE8_dailyrainMM"].values.squeeze())
ts_rain["ILEINSTE8_TemperatureC"] = pd.Series(data["ILEINSTE8_TemperatureC"].values.squeeze())
ts_rain["ICODUBLI2_dailyrainMM"] = pd.Series(data["ICODUBLI2_dailyrainMM"].values.squeeze())
ts_rain["ICODUBLI2_TemperatureC"] = pd.Series(data["ICODUBLI2_TemperatureC"].values.squeeze())
global columns
#result = autocorrelation_plot(ts1)
row = [np.corrcoef(ts1.values,ts_rain[a].values)[0,1]
for a in ts_rain.keys()]
table.append(row);
columns=ts_rain.keys()
records.append(args.replace("/","_"))
def extract_linear_regression_data(filepath):
# read csv into pandas DF
# insert a column of ones into x
# take furthest right column asd y
# initialize theta to 0's
data = pd.read_csv(filepath, header=None)
x= df(data[list(data.columns)[:-1]]).astype('float')
x.insert(0,None,1)
x.columns = range(len(x.columns))
y= df(data[data.shape[1]-1]).astype('float')
y.columns = [0]
theta = df(0,index=range(len(x.columns)),columns=range(1)).astype('float')
return x,y,theta
def unstack_me(fid, cols, dcols, outfile):
"""Unstacks data and writes to file"""
data = pd.read_excel(fid)
unstacked = df()
leaders = df(data, columns=cols)
for dc in dcols:
temp = df(leaders)
temp['Analyte'] = dc
temp['Result'] = data[dc]
# temp['Result'] = temp.Result.apply(fixred)
unstacked = unstacked.append(temp, ignore_index=True)
excelwriter(outfile, unstacked)
def unstack_frame(frame, cols, dcols):
"""Unstacks dataframe and returns unstacked df
cols: columns that will be repeated with sample info
dcols: data columns for unstacking that will be individually appended to cols
"""
data = frame
unstacked = df()
leaders = df(data, columns=cols)
for dc in dcols:
temp = df(leaders)
temp['Analyte'] = dc
temp['Result'] = data[dc]
# temp['Result'] = temp.Result.apply(fixred)
unstacked = unstacked.append(temp, ignore_index=True)
return unstacked
def calc_probabilities(self, data):
"""
The method returns the selection probability associated with the
the different choices.
Inputs:
data - DataArray object
"""
[shape_param] = [1, ] * genlogistic.numargs
observed_utility = self.calc_observed_utilities(data)
num_choices = self.specification.number_choices
probabilities = df(columns=self.choices, index=data.index)
lower_bin = 0
for i in range(num_choices - 1):
value = self.thresholds[i] - observed_utility
if self.distribution == 'logit':
upper_bin = genlogistic.cdf(value, shape_param)
else:
upper_bin = norm.cdf(value)
choice = self.choices[i]
probabilities.loc[:, choice] = upper_bin - lower_bin
lower_bin = upper_bin
choice = self.choices[i+1] #Last ordered choice
probabilities.loc[:, choice] = 1 - upper_bin
return probabilities
def run():
cursor = db.junctions.find({"_id":"30/7/1"})
json_str =json_util.dumps(cursor)
junctions =json_util.loads(json_str)
junctions = sorted(junctions, key=lambda k: k['route'])
d1 = None
for junction in junctions:
d1 = process(junction["_id"])
cursor = db.junctions.find({"_id":"13/2/1"})
json_str =json_util.dumps(cursor)
junctions =json_util.loads(json_str)
junctions = sorted(junctions, key=lambda k: k['route'])
d2 = None
for junction in junctions:
d2 = process(junction["_id"])
cursor = db.junctions.find({"_id":"17/6/1"})
json_str =json_util.dumps(cursor)
junctions =json_util.loads(json_str)
junctions = sorted(junctions, key=lambda k: k['route'])
d3 = None
for junction in junctions:
d3 = process(junction["_id"])
#d3.plot()
d = df({
"Low - 30/7/1": [d1["STT"].quantile(i/100) for i in range(1,99,10)],
"Medium - 13/2/1":[d2["STT"].quantile(i/100) for i in range(1,99,10)],
"High - 17/6/1":[d3["STT"].quantile(i/100) for i in range(1,99,10)]
})
d.plot(ylim=[0,600])
plt.show()
def main():
#create the training & test sets, skipping the header row with [1:]
dataset = genfromtxt('D:/train.csv', delimiter=',', dtype=np.str_)[1:]
print ('loaded train')
target = [x[1] for x in dataset]
train = [x[2:5].tolist() + x[14:].tolist() for x in dataset]
#Clear the variable to release the memory.
dataset = None
dataset = genfromtxt('D:/test.csv', delimiter=',', dtype=np.str_)[1:]
test_id = [x[0] for x in dataset]
test = [x[1:4].tolist() + x[13:].tolist() for x in dataset]
print ('loaded test')
#create and train the random forest
rf = RandomForestClassifier(n_estimators=100, n_jobs=16)
rf.fit(train, target)
print ("done fitting")
columns_obj = ["id", "click"]
list_obj = list(zip(test_id,rf.predict(test).tolist()))
df_obj = df(list_obj, columns=columns_obj)
savetxt('D:/submission.csv', df_obj, delimiter=',', fmt='%s')
print ("prediction complete")
def process_lock(args):
cursor = db.junctions.find({"_id":args})
rain = getseriesweather('dailyrainMM',"mean","IDUBLINC2")
wind = getseriesweather('WindSpeedGustKMH',"mean","IDUBLINC2")
temperature = getseriesweather('TemperatureC',"mean","IDUBLINC2")
#json_str =json_util.dumps(cursor)
#junctions =json_util.loads(json_str)
#neighbours1 = list(db.junctions.find({"junction2.point":junctions[0]["junction1"]["point"]}))
#neighbours2 = list(db.junctions.find({"junction1.point":junctions[0]["junction2"]["point"]}))
series = []
neighbours = []
#neighbours.extend(neighbours1)
#neighbours.extend(neighbours2)
#print("1",neighbours1)
#print("2",neighbours2)
arg = args.split("/")
series1 = {"route":arg[0],"link":arg[1],"direction":arg[2]}
selected_series = getseries(series1)
#for n in neighbours:
#if not n["direction"] == series1["direction"]:
#if not (n["route"] + "/" + n["link"]) == (series1["route"] + "/" + series1["link"]):
#series.append(getseries({"route": n["route"],"link": n["link"],"direction": n["direction"]}))
shift = 10*6*24
ds = {"STT":selected_series}
dframe = df(ds)
def getseriesweather(location):
global data
print(data)
if data is None:
data = db.weather.find({"location":location}).sort("_id", -1)
#json_str =json_util.dumps(data)
#data =json_util.loads(json_str)
dates = []
dailyrainMM = []
windSpeedGustKMH = []
Humidity = []
HourlyPrecipMM = []
TemperatureC = []
for res in (data):
for res2 in (res['item']):
dailyrainMM.append(float(res2["dailyrainMM"]))
windSpeedGustKMH.append(float(res2["WindSpeedGustKMH"]))
Humidity.append(float(res2["Humidity"]))
HourlyPrecipMM.append(float(res2["HourlyPrecipMM"]))
TemperatureC.append(float(res2["TemperatureC"]))
dates.append(datetime.strptime(res2['Time'],'%Y-%m-%d %H:%M:%S'))
dframe = df({"dailyrainMM":TimeSeries(dailyrainMM,dates),
"WindSpeedGustKMH":TimeSeries(windSpeedGustKMH,dates),
"Humidity":TimeSeries(Humidity,dates),
"HourlyPrecipMM":TimeSeries(HourlyPrecipMM,dates),
"TemperatureC":TimeSeries(TemperatureC,dates)})
dframe.to_csv("c:/result.csv")
return dframe
def create_submission(events,yw,yb):
print "Preparing submission file...."
submission = df()
submission["Event"] = events
submission["WhiteElo"] = yw
submission["BlackElo"] = yb
submission.to_csv("submission.csv",index=False)
def get_grid(self, astype='table'):
from pandas import DataFrame as df
geoms = self.geometries().keys()
phases = [p.name for p in self.phases().values() if not hasattr(p, 'mixture')]
grid = df(index=geoms, columns=phases)
for r in grid.index:
for c in grid.columns:
phys = self.find_physics(phase=self[c], geometry=self[r])
if phys is not None:
grid.loc[r][c] = phys.name
else:
grid.loc[r][c] = '---'
if astype == 'pandas':
pass
elif astype == 'dict':
grid = grid.to_dict()
elif astype == 'table':
from terminaltables import SingleTable
headings = [self.network.name] + list(grid.keys())
g = [headings]
for row in list(grid.index):
g.append([row] + list(grid.loc[row]))
grid = SingleTable(g)
grid.title = 'Project: ' + self.name
grid.padding_left = 3
grid.padding_right = 3
grid.justify_columns = {col: 'center' for col in range(len(headings))}
elif astype == 'grid':
grid = ProjectGrid()
return grid
def recursive_add_consumers(consumer_id, seen = set([])):
if consumer_id is None:
return
seen.add(consumer_id)
consumer_key = sample[sample.Consumer == consumer_id]
IP = df.drop_duplicates(df(consumer_key.IP))
n = np.array(np.arange(len(IP)))
IP_Map = set([])
for i in n:
value = sample[sample.IP.isin([IP.iloc[i,0]])]
IP_Map.add(value)
#print IP_Map
print consumer_id
print seen
consumer_list = []
#list of unique consumers that are linked to this one
[consumer_list.extend(y.Consumer.iloc[l].tolist()) for l in [range(len(y.Consumer)) for y in IP_Map]]
#print consumer_list
#print [x for x in set(consumer_list).difference([consumer_id])]
#unique_consumer_list = []
#print [ x for x in set([y.Consumer.iloc[0] for y in IP_Map])]
#tuples of ips and unique consumers attached to them
print [(y.IP.iloc[0],set(y.Consumer.iloc[l].tolist())) for l in [range(len(y.Consumer)) for y in IP_Map]]
def data_result(args):
name = args.replace("/","_")
dir = "pickle/" + name + "/"
path = "C:/Users/IBM_ADMIN/Documents/Disseration/Figures/"
data = df().from_csv(dir + "data.csv")
data = data.resample('B').dropna()
return data
def to_dataframe(data_array):
dataframe = df(data_array)
dataframe.columns = ['timestamp', 'open', 'high', 'low', 'close', 'volume']
dataframe['datetime'] = dataframe.timestamp.apply(
lambda x: pandas.to_datetime(datetime.fromtimestamp(x / 1000).strftime('%c')))
dataframe.set_index('datetime', inplace=True, drop=True)
dataframe.drop('timestamp', axis=1, inplace=True)
return dataframe
def prepare_for_pawn(source_df, cols_to_include):
to_handle = source_df.copy(deep=True)
to_handle = to_handle[to_handle["ActionType_Pawn"].notnull()]
cols_to_merge = ["Matter_Tablet", "Matter_Phone"]
join_cols(to_handle, cols_to_merge)
cols_to_merge = ["Matter_Other", "Matter_TV"]
join_cols(to_handle, cols_to_merge)
return df(to_handle, columns=cols_to_include)
def IP_Weight_Calc(consumer_id):
if consumer_id == None:
return
consumer_key = sample[sample.Consumer == consumer_id]
IP = df.drop_duplicates(df(consumer_key.IP))
n = np.array(np.arange(len(IP)))
IP_Weight_List = []
for i in n:
value = sample[sample.IP.isin([IP.iloc[i,0]])]
value2 = len(df.drop_duplicates(df(value.Consumer)))
value3 = (1/(value2**2))
IP_Weight_List.append(value3)
return sum(IP_Weight_List)
def get_beta(self):
# doing johanson test and return
data = df()
for i in range(len(self.__instrumentList)) :
data[self.__instrumentList[i]] = np.asarray(self.__ds[self.__instrumentList[i]][-1*self.__windowSize:])
jres = johansen.coint_johansen(data[self.__instrumentList], 0, 1)
result = dict()
for i in range(len(self.__instrumentList)) :
result[self.__instrumentList[i]] = jres.evec[i,0]
return result
def process_lock(args):
cursor = db.junctions.find({"_id":args})
rain = getseriesweather('dailyrainMM',"mean","IDUBLINC2")
wind = getseriesweather('WindSpeedGustKMH',"mean","IDUBLINC2")
temperature = getseriesweather('TemperatureC',"mean","IDUBLINC2")
#json_str =json_util.dumps(cursor)
#junctions =json_util.loads(json_str)
#neighbours1 = list(db.junctions.find({"junction2.point":junctions[0]["junction1"]["point"]}))
#neighbours2 = list(db.junctions.find({"junction1.point":junctions[0]["junction2"]["point"]}))
series = []
neighbours = []
#neighbours.extend(neighbours1)
#neighbours.extend(neighbours2)
#print("1",neighbours1)
#print("2",neighbours2)
arg = args.split("/")
series1 = {"route":arg[0],"link":arg[1],"direction":arg[2]}
selected_series = getseries(series1)
#for n in neighbours:
#if not n["direction"] == series1["direction"]:
#if not (n["route"] + "/" + n["link"]) == (series1["route"] + "/" + series1["link"]):
#series.append(getseries({"route": n["route"],"link": n["link"],"direction": n["direction"]}))
shift = 10*6*24
ds = {"STT":selected_series,
"Wind":wind,
"Rain":rain,
"Temperature":temperature,
"STT1":ewma(selected_series.shift(shift), span=1+shift),
"STT2":ewma(selected_series.shift(shift), span=2+shift),
"STT3":ewma(selected_series.shift(shift), span=3+shift),
"Wind1":ewma(wind.shift(shift), span=3+shift),
"Temperature1":ewma(temperature.shift(shift), span=3+shift),
"Rain1":ewma(rain.shift(shift), span=3+shift)
}
dframe = df(ds)
t_list = list(['STT1','STT2','STT3','Rain','Wind','Temperature','Rain1','Wind1','Temperature1'])
for i,s in enumerate(dframe.columns.values):
dframe[s].fillna(method="pad", inplace=True)
train_df = dframe["2013-01-01":"2014-04-17"].resample('H', how="max",convention='end',fill_method='pad').copy()
test_df = train_df.copy()["2013-09-01":"2014-02-15"]
train_df = train_df.copy()["2013-02-16":"2014-04-17"]
train_df.to_csv("pickle/" + args.replace("/","_") + "/" + "training_data.csv")
test_df.to_csv("pickle/" + args.replace("/","_") + "/" + "testing_data.csv")
def append_data(self, df_obj):
"""Appends dataframe obj to ScrapeData data
Should be a setter, need to refactor"""
try:
df_obj = self.__setup_data(df_obj)
cols = self.data.columns
for_import = df(df_obj, columns=cols)
return self.data.append(for_import, ignore_index = True)
except KeyError:
print 'Something is non-standard, prep data manually'
def resolve_consistency(self, data, seed, numberProcesses):
pschedulesGrouped = data.data.groupby(level=[0,1], sort=False)
verts = df(columns=self.colNames)
verts[self.hidName] = pschedulesGrouped[self.hidName].min()
verts[self.pidName] = pschedulesGrouped[self.pidName].min()
verts[self.starttimeName] = pschedulesGrouped[self.starttimeName].min()
verts[self.endtimeName] = pschedulesGrouped[self.endtimeName].max()
return DataArray(verts.values, self.colNames,
indexCols=[self.hidName, self.pidName])
"""
def run():
cursor = db.junctions.find()
json_str =json_util.dumps(cursor)
junctions =json_util.loads(json_str)
junctions = sorted(junctions, key=lambda k: k['route'])
route = [int(j["route"]) for j in junctions]
link = [int(j["link"]) for j in junctions]
direction = [int(j["direction"]) for j in junctions]
d = df({"route":route,
"link":link,
"direction":direction})
print(d.describe())
def process(args):
#['ICODUBLI2','ILEINSTE8','IDUBLINC2']
dframe1 = getseriesweather("ICODUBLI2")["2014-01-24":"2014-01-29"].resample("H", how="mean",convention='end',fill_method="pad")
dframe2 = getseriesweather("ILEINSTE8")["2014-01-24":"2014-01-29"].resample("H", how="mean",convention='end',fill_method="pad")
dframe3 = getseriesweather("IDUBLINC2")["2014-01-24":"2014-01-29"].resample("H", how="mean",convention='end',fill_method="pad")
dframe = df({"ICODUBLI2":dframe1,"ILEINSTE8":dframe2,"IDUBLINC2":dframe3})
dframe.plot()
print(dframe.corr())
plt.show()
def __init__(self, data=None, varnames=None, index=None, indexCols=None):
# TODO:index
if varnames is not None:
for varname in varnames:
self.check_varname(varname)
else:
varnames = []
try:
self.data = df(data, columns=varnames, index=index)
except Exception, e:
raise DataError, ("""Error creating the data frame object
with the dataset:%s""" % e)
def run(self, flatten=True):
if not self.quiet:
print("running with collection: %s, query: %s, project: %s" % (str(self.col), self.query, self.project))
c = self.col.find(self.query, self.project)
self.res = []
for item in c:
if flatten:
self.res.append(flatten_dict(item))
else:
self.res.append(item)
self.res = df(self.res)
self.__cleanup()
def get_neighbour(self,id):
if self.matrix is "":
cursor = self.db.junctions.find()
json_str =json_util.dumps(cursor)
junctions =json_util.loads(json_str)
junctions = sorted(junctions, key=lambda k: k['route'])
matrix = []
headers = [y['_id'] for y in junctions]
for x in junctions:
matrix.append([int(jh.is_neighbour(x, y)) for y in junctions])
matrix = df(matrix,columns=headers,index=headers)
return matrix[id]
def run():
cursor = db.junctions.find()
json_str =json_util.dumps(cursor)
junctions =json_util.loads(json_str)
#os.remove(r'weather_correlation_lagged.csv')
junctions = sorted(junctions, key=lambda k: k['route'])
for junction in junctions[:4]:
process(junction["_id"],junction)
data = df(table,columns=columns)
data["_index"] = records
data.dropna().to_csv("spatial_correlation_lagged.csv")
def process_lock(args):
print(args)
dir = args.split("/")
pickle_dir = "pickle/" + args.replace("/","_")
if not os.path.exists(pickle_dir):
os.makedirs(pickle_dir)
series1 = {"route":dir[0],"link":dir[1],"direction":dir[2]}
selected_series = getseries(series1)
ds = {"STT":selected_series}
dframe = df(ds)
dframe.to_csv(pickle_dir + "/" + "data.csv")
def prepare_df(X, Y, output_mode="binary", pred_hours=[8], min_ob_window = 4):
X_out, y_out, hours_left = cut_data(X, output_mode = output_mode, pred_hours = pred_hours, min_ob_window= min_ob_window)
print(len(X_out), len(hours_left), len(y_out))
out_df = df({'X': X_out,
'hours_pass': [ h.shape[0] for h in X_out ],
# 'ylos': Y,
'hours_left': hours_left,
'y': y_out}) # .sort_values(by ='hours')
return out_df
tail = True
head = True
# 가격 리스트 채우기
for link in bsObject.find_all("span", {"class": "text-muted small"}):
value = int(link.text.strip().replace('(',
"").replace(',', "").replace(
'원)', ""))
# 총 가격 구하기
if i == 1:
value = value * 2
elif i == 2:
value = value * 3
if value % 10 == 1:
value = value - 1
elif value % 10 == 9:
value = value + 1
elif i == 3:
value = value * 4
elif i == 4:
value = value * 5
price_list.append(value)
# 데이터프레임 생성
db = df(data={'Product': product_list, 'Sale': sale_list, 'Price': price_list})
# csv 변환
db.to_csv(csv_name + ".csv",
mode="w",
header=False,
index=False,
encoding='utf-7')
'''
data = {
'id': ['a1', 'a2', 'a3', 'a4', 'a5'],
'x1': [1, 2, 3, 4, 5],
'x2': [3.0, 4.5, 3.2, 4.0, 3.5]
}
#df=DataFrame(data)
#print(df)
#df=DataFrame(data)
#df.index=df['id']
#df.pop('id')
#print(df)
df_1 = df(data=np.arange(12).reshape(3, 4),
index=['r0', 'r1', 'r2'],
dtype='int',
columns=['c0', 'c1', 'c2', 'c3'])
df_2 = df(
{
'class_1': ['a', 'a', 'b', 'b', 'c'],
'var_1': np.arange(5),
'var_2': np.random.randn(5)
},
index=['r0', 'r1', 'r2', 'r3', 'r4'])
#print(df_2)
#print(df_2.columns)
#print(df_2[['class_1', 'var_2']])
idx = ['r0', 'r1', 'r2', 'r3', 'r4']
df_1 = df({
# Format = [
# ['H','F','F'etc.], (listes_genre)
# [0, 1, 2, etc.] (femmes_counter_array)
# [0.0, 0.5, 0.67, etc.] (proportion_counter)
# ]
for parti_liste in listes_genre:
femmes_counter_array = []
proportion_counter = []
femmes_counter = 0
for i in range(len(parti_liste)):
if parti_liste[i] == 'F':
femmes_counter += 1
femmes_counter_array.append(femmes_counter)
proportion_counter.append(femmes_counter / (i+1))
listes_genre_et_counter.append((parti_liste, femmes_counter_array,proportion_counter))
partis_dfs = []
for i in range(len(listes_genre_et_counter)):
parti_tableau = {}
parti_grosses_listes = listes_genre_et_counter[i]
for j in range(len(parti_grosses_listes)):
categorie_liste = parti_grosses_listes[j]
nom_colonne = (' '.join([categories[j],headers[i]]))
parti_tableau[nom_colonne] = categorie_liste
partis_dfs.append(df(parti_tableau))
import pandas as pd
t = pd.concat(partis_dfs, axis=1)
t['Classement des circonscriptions'] = range(1, len(t) + 1)
t.set_index('Classement des circonscriptions').to_csv('../gt.csv')
def make_beam(self,
xi_distr,
r_distr,
pz_distr,
ang_distr,
Ipeak_kA,
q_m=1.0,
partic_in_layer=200,
saveto='./',
name='beamfile.bin'):
"""make_beam(xi_shape, r_shape, pz_shape, ang_shape, Ipeak_kA, N_partic=10000, q_m=1.0, partic_in_layer = 200, saveto='./')"""
if q_m == 1 and Ipeak_kA > 0:
print('Electrons must have negative current.')
return
if xi_distr.med > 0:
print('Beam center is in xi>0.')
try:
partic_in_layer = self.beam_partic_in_layer
except:
print('Variable partic_in_layer is not found. Default value: 200.')
try:
xi_step = self.xi_step
r_size = self.r_size
except:
xi_step = 0.01
r_size = 10
print(
'Variable xi_step or r_size is not found. Default values: xi_step = %.3f, r_size = %3f'
% (xi_step, r_size))
if saveto and 'beamfile.bin' in os.listdir(saveto):
print(
'Another beamfile.bin is found. You may delete it using the following command: "!rm %s".'
% os.path.join(saveto, name))
return
I0 = 17 # kA
q = 2. * Ipeak_kA / I0 / partic_in_layer
stub_particle = np.array([[-100000., 0., 0., 0., 0., 1.0, 0., 0.]])
gamma = pz_distr.med
N = 10000
while True:
xi = xi_distr(N)
print('Trying', N, 'particles')
xi = xi[(-self.xi_size <= xi)] # & (xi <= 0)]
if np.sum((xi_distr.med - xi_step / 2 < xi)
& (xi < xi_distr.med + xi_step / 2)) < partic_in_layer:
print(
N, 'is not enough:',
np.sum((xi_distr.med - xi_step < xi)
& (xi < xi_distr.med)))
N *= 10
continue
until_middle_layer_filled = [
np.cumsum((xi_distr.med - xi_step < xi) & (xi < xi_distr.med))
<= partic_in_layer
]
xi = xi[until_middle_layer_filled]
K = xi.shape[0]
print(K, 'is enough')
xi = np.sort(xi)[::-1]
r = np.abs(r_distr(K))
pz = pz_distr(K)
pr = gamma * ang_distr(K)
M = gamma * ang_distr(K) * r
particles = np.array([
xi, r, pz, pr, M, q_m * np.ones(K), q * np.ones(K),
np.arange(K)
])
beam = np.vstack([particles.T, stub_particle])
break
beam = df(beam, columns=['xi', 'r', 'pz', 'pr', 'M', 'q_m', 'q', 'N'])
head = beam[beam.eval('xi>0')]
beam = beam[beam.eval('xi<=0')]
#beam.sort_values('xi', inplace=True, ascending=False)
if saveto:
beam.values.tofile(os.path.join(saveto, name))
head.values.tofile(os.path.join(saveto, 'head-' + name))
return beam
# The tfidfvector trained on the person's corpus contains terms by index
p_vector = persons_vocab[person]['tfidfvec']
# The sparse term matrix resulting from vector training contains term weights by index
# Sparse term matrices are defined by an array where row and column coordinates of only those cells with values are known.
# array[k] = [row[k], col[k]] = data[k]
# In the case of a sparse matrix generated by a tfidfvector from a corpus:
# Each row is a document
# Each column is a term
# Each cell is a term weight.
p_term_matrix = persons_vocab[person]['term_matrix']
# Now to just extract the terms and weights and add them to the persons_weighted_terms dictionary
for doc in persons_vocab['term_matrix']:
# Finally, add to the list of weighted terms.
## vocabs_df = pd.DataFrame([{},])
## vocabs_df = vocabs_df.set_index('')
#cols = word_counts.keys()
vocabs_df = pd.df()
# Standardize the data
# Perform dimensionality reduction by PCA
# Export the resulting dataframe
def create_df():
return df(columns=('ID', 'element_type', 'time', 'x_f', 'y_f', 'z_f', 'x_s', 'y_s', 'z_s', 'distance',
'ceiling_lvl', 'profile', 'u_x', 'u_y', 'u_z', 'HRRPUA', 'alpha'))
} for i in table_columns_post],
data=table_data,
row_selectable='multi',
fixed_rows={'headers': True},
selected_rows=[0],
sort_action='native',
style_cell={
'textAlign': 'left',
'width': '40px'
},
style_table={
'height': '300px',
'overflowY': 'auto'
},
style_data_conditional=discrete_background_color_bins(
df(data=table_data), columns=table_columns_quintiles) +
discrete_background_color_bins(df(data=table_data),
columns=table_columns_places,
dark_color='Greens') +
[
{
'if': {
'filter_query':
'{Index} < 0', # matching rows of a hidden column with the id, `id`
'column_id': 'Entry'
},
'backgroundColor': 'rgb(255,248,220)'
},
{
'if': {
'column_id': 'Entry'
from bs4 import BeautifulSoup
from urllib.request import urlopen
from pandas import DataFrame as df
response = urlopen(
'http://cu.bgfretail.com/product/productAjax.do?pageIndex=1&searchMainCategory=10&searchSubCategory=3&listType=0&searchCondition=setA&searchUseYn=N&gdIdx=0&codeParent=10&user_id=&search2=&searchKeyword='
)
soup = BeautifulSoup(response, 'html.parser')
a = []
b = []
c = []
for price in soup.select('p.prodPrice'):
a.append(price.get_text())
#print(price.get_text())
for name in soup.select('p.prodName'):
b.append(name.get_text())
#print(name.get_text())
for img_url in soup.select('img[src*=".jpg"]'):
c.append(img_url.get('src', '/'))
#print(img_url.get('src', '/'))
df1 = df({"prodName": list(b), "prodPirce": list(a), "img_url": list(c)})
df1.to_csv('CU_ham.csv', index=False)
listSuptNameVal.append(pcfSuptName)
listSuptUciVal.append(pcfSuptUci)
listSuptMtlVal.append(pcfSuptMtlList)
pcfSuptName = ""
pcfSuptUci = ""
pcfSuptMtlList = ""
iB = 0
else:
iB = 0
if iA == 0:
print('레퍼런스 ID가 없는 {} 파일이 존재합니다.'.format(tagerFile))
break
except Exception:
print('{} 파일에서 에러가 났어요.'.format(tagerFile))
data = {
'SUPPORT NAME': listSuptNameVal, #input excel coulumn name
'SUPPORT UCI': listSuptUciVal, #input excel coulumn name
'SUPPORT MATERIAL LIST': listSuptMtlVal, #input excel coulumn name
'WBS ISO': listRefVal, #input excel coulumn name
'ATTRIBUTE30': listAtt30Val, #input excel coulumn name
'ATTRIBUTE34': listAtt34Val
} #input excel coulumn name
pcfDF = df(data)
writer = ExcelWriter('PCF_output.xlsx')
pcfDF.to_excel(writer, 'PCF', index=False)
writer.save()
print("완료")
#
# # 根据训练样本中异常样本比例，得到阈值，用于绘图
# data_1 = pd.concat([data, scores_pred_df], axis=1, join_axes=[data.index])
# print(data_1.head(3))
# print('')
#
# data_2 = data_1[data_1['scores_pred'] > threshold]
# print("IsolationForest删除之后数据量： ", data_2.shape[0])
# print('')
# data_final = data_2.drop(["scores_pred"], axis=1)
# print(data_final.head(3))
# print('')
# data_final.to_csv('pag_with_dummy_if1.txt', index = False)
#
# print(data_final.head())
pag_with_dummy_if1 = df(pd.read_csv('pag_with_dummy_if1.txt'))
data_final = pag_with_dummy_if1.drop(["device_id"], axis=1)
#StandardScaler crude data
ss = StandardScaler()
data_final_=ss.fit_transform(data_final)
data_final_regular = pd.DataFrame(data_final_)
# find out k
SSE = []
for k in range(1, 10):
estimator = KMeans(n_clusters=k) # 构造聚类器
estimator.fit(data_final_regular)
SSE.append(estimator.inertia_) # estimator.inertia_获取聚类准则的总和
print("k = ", k, " SSE = ",estimator.inertia_)
# print(SSE)
# print(X.shape())
def prepareInputs(daydata, season, UsedInputs):
nbrInputs = 0
previousHours = UsedInputs[0]
previousDay = UsedInputs[1]
previousWeek = UsedInputs[2]
temp = UsedInputs[3]
tempMax = UsedInputs[4]
tempMin = UsedInputs[5]
dayIndicator = UsedInputs[6]
if previousHours == True: nbrInputs = nbrInputs + 1
if previousDay == True: nbrInputs = nbrInputs + 1
if previousWeek == True: nbrInputs = nbrInputs + 1
if temp == True: nbrInputs = nbrInputs + 1
if tempMax == True: nbrInputs = nbrInputs + 1
if tempMin == True: nbrInputs = nbrInputs + 1
if dayIndicator == True: nbrInputs = nbrInputs + 7
hourclusters = np.empty([(daydata.index.size * 24), 1])
hourdataindex = pd.DataFrame(
index=pd.date_range('2014-1-8 00:00:00', periods=(365) * 24, freq='H'))
for x in range(0, daydata.index.size):
for y in range(0, 24):
hourclusters[(x * 24) + y, 0] = daydata.iloc[x, 24]
hourclusters.size
tempAlgiers = pd.read_csv('../data/tempAlgiers.csv')
tempA = tempAlgiers.loc[:, 'Hour_1':'Hour_24']
tempnp = np.array(tempA)
tempnp = tempnp.reshape(-1, 1)
tempdata = pd.DataFrame(tempnp)
tempmax = tempAlgiers.loc[:, 'Tmax']
tempmin = tempAlgiers.loc[:, 'Tmin']
tempmx = np.random.random([tempmax.size * 24, 1])
tempmn = np.random.random([tempmin.size * 24, 1])
for x in range(0, tempmax.size):
for y in range(0, 24):
tempmx[(x * 24) + y, 0] = tempmax.iloc[x]
for x in range(0, tempmin.size):
for y in range(0, 24):
tempmn[(x * 24) + y, 0] = tempmin.iloc[x]
samples = daydata.index.size * 24
daydata2 = daydata.copy()
del (daydata2['cluster'])
data = pd.DataFrame(np.array(daydata2).reshape(-1, 1))
maxcons = data.values.max()
mincons = data.values.min()
maxtemp = np.max(tempdata.values)
mintemp = tempdata.values.min()
maxtempmax = np.max(tempmx)
mintempmax = np.min(tempmx)
maxtempmin = np.max(tempmn)
mintempmin = np.min(tempmn)
sigxx = np.empty((samples - 168, nbrInputs))
sigyy = np.empty((samples - 168, 1))
i = 0
for x in list(range(168, samples)):
i = 0
if previousHours == True:
sigxx[x - 168, i] = (data.iloc[x - 1, 0]) / (2 * maxcons)
i = i + 1
if previousDay == True:
sigxx[x - 168, i] = (data.iloc[x - 24, 0]) / (2 * maxcons)
i = i + 1
if previousWeek == True:
sigxx[x - 168, i] = (data.iloc[x - 168, 0]) / (2 * maxcons)
i = i + 1
if temp == True:
sigxx[x - 168, i] = (tempdata.iloc[x]) / (2 * maxtemp)
i = i + 1
if tempMax == True:
sigxx[x - 168, i] = (tempmx[x]) / (2 * maxtempmax)
i = i + 1
if tempMin == True:
sigxx[x - 168, i] = (tempmn[x]) / (2 * maxtempmin)
i = i + 1
if dayIndicator == True:
ind = 0
for y in range(0, 7):
sigxx[x - 168, i + ind] = 0
ind = ind + 1
sigxx[x - 168, i + pd.datetime.weekday(hourdataindex.index[x])] = 1
for x in list(range(168, samples)):
sigyy[x - 168, 0] = (data.iloc[x, 0]) / (2 * maxcons)
sigmoidxx = df(sigxx.copy())
sigmoidyy = df(sigyy.copy())
sigmoidxx.index = pd.date_range('2014-1-8 00:00:00',
periods=(365 - 7) * 24,
freq='H')
sigmoidyy.index = pd.date_range('2014-1-8 00:00:00',
periods=(365 - 7) * 24,
freq='H')
sigmoidxx['cluster'] = hourclusters[168:]
sigmoidyy['cluster'] = hourclusters[168:]
dfhourclusters = df(hourclusters)
temp1 = sigmoidyy[sigmoidyy.cluster == 0]
temp2 = sigmoidyy[sigmoidyy.cluster == 1]
temp3 = sigmoidyy[sigmoidyy.cluster == 2]
if season == 'summer':
if temp1.index[0] == pd.datetime(2014, 4, 9, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 0].copy()
elif temp2.index[0] == pd.datetime(2014, 4, 9, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 1].copy()
elif temp3.index[0] == pd.datetime(2014, 4, 9, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 2].copy()
elif season == 'winter':
if temp1.index[0] == pd.datetime(2014, 1, 8, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 0].copy()
elif temp2.index[0] == pd.datetime(2014, 1, 8, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 1].copy()
elif temp3.index[0] == pd.datetime(2014, 1, 8, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 2].copy()
elif season == 'spring and autumn':
if temp1.index[0] == pd.datetime(2014, 3, 18, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 0].copy()
elif temp2.index[0] == pd.datetime(2014, 3, 18, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 1].copy()
elif temp3.index[0] == pd.datetime(2014, 3, 18, 0, 0, 0):
SigmoidInputs = sigmoidxx[sigmoidxx.cluster == 2].copy()
SigmoidOutputs = sigmoidyy[sigmoidyy.cluster == SigmoidInputs.loc[
SigmoidInputs.index[0], 'cluster']]
del (SigmoidInputs['cluster'], SigmoidOutputs['cluster'])
learningoutputs = pd.DataFrame(
SigmoidOutputs.iloc[:int(SigmoidOutputs.size - 168)].values.copy(),
index=SigmoidOutputs.iloc[:int(SigmoidOutputs.size - 168)].index)
testoutputs = pd.DataFrame(
SigmoidOutputs.iloc[int(SigmoidOutputs.size - 168):].values.copy(),
index=SigmoidOutputs.iloc[int(SigmoidOutputs.size - 168):].index)
learninginputs = pd.DataFrame(
SigmoidInputs.iloc[:int(SigmoidOutputs.size - 168)].values.copy(),
index=SigmoidOutputs.iloc[:int(SigmoidOutputs.size - 168)].index)
testinputs = pd.DataFrame(
SigmoidInputs.iloc[int(SigmoidOutputs.size - 168):].values.copy(),
index=SigmoidOutputs.iloc[int(SigmoidOutputs.size - 168):].index)
print('-------Input preparation process complet-------')
return learninginputs, learningoutputs, testinputs, testoutputs, nbrInputs
from sklearn import tree
import graphviz
from sklearn.discriminant_analysis import LinearDiscriminantAnalysis
from sklearn.model_selection import KFold
from sklearn.model_selection import cross_val_score
dataset = read_csv('realdata3.csv')
modifiedData = dataset.fillna(np.NaN)
print(modifiedData.head(5))
d = modifiedData
d1 = fancyimpute.MICE().complete(d)
newd=df(data = d1, index = d.index, columns= list(d.columns))
newd.to_csv('test2.csv')
values = newd.values
outcome_var = 'BAD'
model = tree.DecisionTreeClassifier(criterion = "entropy", max_depth = 7, min_samples_split=500, min_samples_leaf=500)
predictor_var = ['LOAN', 'MORTDUE','REASON' , 'VALUE','DELINQ', 'DEROG' ,'CLAGE','Other','DELINQ', 'Office' ,'Sales', 'ProfExe']
X = values[: , range(18)[1:]]
Y = values[:,0]
model = LogisticRegression()
rfe = RFE(model, 6)
fit = rfe.fit(X, Y)
print("Num Features: %d" % fit.n_features_)
print("Selected Features: %s" % fit.support_)
print("Feature Ranking: %s" % fit.ranking_)
for tr in trList_1:
if 'View=' + managed_entity_view_name in tr[1].text:
exportID_1 = tr[2].text
url_me_1 = url_managed_entity_1 + exportID_1
r_me_1 = requests.get(url_me_1)
tree_me_1 = etree.fromstring(r_me_1.content, parser=parser)
trList_me_1 = tree_me_1.xpath('//tr')
me_app_mapping = []
for tr in trList_me_1:
if len(tr.getchildren()) == 9:
if len(tr.getchildren()[2].getchildren()) == 1:
if tr.getchildren()[2].getchildren()[0].text != None:
attr_str = tr.getchildren()[8].getchildren()[0].text
if key_attribute + '=' in attr_str:
for attr in attr_str.split(','):
if key_attribute + '=' in attr:
app_name = attr.split('=')[1].strip()
else:
app_name = None
mapping = {
'managedEntity': tr.getchildren()[2].getchildren()[0].text,
'AppName': app_name
}
me_app_mapping.append(mapping)
dfMapping = df(me_app_mapping)
dfMapping.head()
confirmed_names = []
deaths_names = []
def names_column(frame, lst): #Makes a new column called Name
for i in range(len(frame)):
if type(frame['Province/State'][i]) is str:
lst.append(frame['Province/State'][i])
else:
lst.append(frame['Country/Region'][i])
frame['Name'] = df(lst)
names_column(confirmed, confirmed_names)
names_column(deaths, deaths_names)
# confirmed['Name'] = df(confirmed_names)
# deaths['Name'] = df(deaths_names)
confirmed['confirmed_size'] = df(confirmed_size)
deaths['death_size'] = df(death_size)
map_confirmed = go.Scattermapbox(
customdata = confirmed[yesterdays_date
],
name='Confirmed Cases',
lon=confirmed['Long'],
lat=confirmed['Lat'],
text=confirmed['Name'],
hovertemplate=
"<b>%{text}</b><br>" +
"Confirmed Cases: %{customdata}<br>" +
"<extra></extra>",
mode='markers',
showlegend=True,
# if last batch in laset subset and smaller than batch size, ignore
if len(imlist) < config_inference.BATCH_SIZE:
print("Batch is smaller than batch size (last batch?), won't do inference on it")
continue
# Detect objects in this batch of images
r = model.detect(imlist, verbose=0)
# Init df to save coords for this batch
Annots_DF = df(columns= [
"unique_nucleus_id",
"slide_name",
"nucleus_label",
"nucleus_label_confidence",
"fov_offset_xmin_ymin",
"roi_offset_xmin_ymin",
"center_relative_to_slide_x_y",
"bounding_box_relative_to_slide_xmin_ymin_xmax_ymax",
"boundary_relative_to_slide_x_coords",
"boundary_relative_to_slide_y_coords",
])
# ==================================================================
# Save coords for all instances in each image in batch
for imidx in range(len(r)):
# Extract image info
iminfo = dataset.image_info[idx_start:idx_end][imidx]
# convert to three channels
'과학': 70
}, {
'국어': 63,
'영어': 60,
'수학': 31,
'과학': None
}, {
'국어': 23,
'영어': 48,
'수학': None,
'과학': 69
}]
# 딕셔너리의 키값이 컬럼의 이름으로 지정됨
# 리스트를 원소로 갖는 딕셔너리를 사용하면, 인덱스만 따로 지정함
data = df(grade_dic, index=['철수', '영희', '민철', '수현', '호영'])
print(data)
print('-' * 40)
# 1. 단일 조건
# => 기본적인 비교식을 사용한다
# 국어점수 > 80 인 학생 조회
result = data.query('국어 > 80')
print(result)
print('-' * 40)
# 2. and 조건 사용
# 국어점수가 80점을 넘고, 수학점수도 80점 넘는 학생
result = data.query('국어 > 80 and 수학> 80')
print(result)
print('-' * 40)
import MySQLdb as my
from sqlalchemy import create_engine as ce
from pandas import DataFrame as df
ef1 = pd.read_csv('/home/ai21/Desktop/common/Python_Exercises/emp.csv',
header=None,
names='name empno desig salary deptcode'.split())
ef1['deptcode'] = [121, 122, 123, 121, 121, 123, 122, 121, 121, 124]
print ef1
ce1 = ce("mysql://*****:*****@127.0.0.1/ai")
#ef1.to_sql("ai_21_emp", ce1)
dic1={ 'dept_no':[121,122,123,124],\
'dept_name':['CSE','ECE','MECH','IT'],\
'dept_location':['B2F0','B3F2','B1F1','B3F1'] }
df1 = df(dic1, columns=['dept_no', 'dept_name', 'dept_location'])
#df1.to_sql("ai_21_dep", ce1)
con = my.connect('127.0.0.1', 'ai', 'ai', 'ai')
ef2 = pd.read_sql("select * from ai_21_emp", con)
df2 = pd.read_sql("select * from ai_21_dep", con)
df3 = ef2.merge(df2, left_on='deptcode',
right_on='dept_no')[['empno', 'name', 'dept_name',
'salary']].sort_values(['salary'])
print df3
#df3.to_sql("ai_21_emp_dep", ce1)
def ret_all_courses(str_input):
# initializes the file object with a text file that maps each career to a major
f = open(os.path.join("", "app", "all_text_files", "list_careers.txt"), "r", encoding="utf-8")
all_text = f.read()
f.close()
list_lines = all_text.split("\n")
jobs = []
majors = []
# initializing a list of jobs and list of majors
for each in list_lines:
parts = each.split("*")
if len(parts) == 2:
job = parts[0].strip()
jobs.append(job)
major = parts[1].strip()
majors.append(major)
# checks if the string entered is present in job list
if str_input in jobs:
course = []
desc = []
list_desc = []
fuzzy = []
# finds the index for the given job
index = jobs.index(str_input)
# finds the corresponding major
major = majors[index]
# string manipulation for the file name
if ":" in major:
parts = major.split(":")
major = parts[0] + parts[1]
f = open(os.path.join("majors", major.lower() + ".html"), encoding="utf-8")
h_text = f.read()
f.close()
# using a soup object to search for list of courses from the website of the major
soup = BeautifulSoup(h_text, "html.parser")
all_a = soup.find_all("a", {'class': "bubblelink code"})
for each in all_a:
course_text = clean_up_text(each.get_text()).replace("\u200b", "")
desc_text = get_desc_text(course_text)
if desc_text is None:
print(course_text, "None!")
continue
if course_text[-3:].isnumeric():
if course_text[:2] == "or":
course.append(course_text[2:-3] + " " + course_text[-3:])
else:
course.append(course_text[:-3] + " " + course_text[-3:])
desc.append(desc_text)
# using fuzzy to assign the ratio of the match which is used to sort the amount overlap
fuzzy.append(fuzz.token_sort_ratio(str_input, desc_text))
# finding a more detailed description in all_data.csv
for i in range(len(desc)):
flag = 1
for j in range(len(csv_data)):
if cell(j, "Name").lower() in desc[i].lower():
flag = 0
list_desc.append(cell(j, "Description"))
break
if flag == 1:
list_desc.append("no desc found")
# constructing the dataframe
dict_vals = {"course": course, "name": desc, "description": list_desc, "fuzz": fuzzy}
df_courses = df(dict_vals)
# sorting by the amount of match
df_courses = df_courses.sort_values(by=["fuzz"], ascending=[False])
df_courses = df_courses.reset_index(drop=True)
df_courses = df_courses.drop_duplicates(subset=["course"], keep="first")
df_courses = df_courses.reset_index(drop=True)
# returning those rows where the amount of match is greater than 30
return df_courses[df_courses["fuzz"] > 30]
else:
print("job not in jobs list")
# Count of patent: 927223
dict_subcls_list = json.load(
open(WORK_DIR + '/data_json/subclass_list_ini.json'))
print(dict_subcls_list.keys())
print_count_subcls_list(dict_subcls_list)
tmp = data[data['subclass'].isin(
dict_subcls_list['subclass_Svc.'])]['patent_no'].values
pat_no_list = list(set(tmp))
data_pat_Svc = data[data['patent_no'].isin(pat_no_list)]
data_pat_Svc.head()
tmp = data_pat_Svc.groupby('subclass').count()
print("Count of subclass: {}".format(len(tmp)))
df_gby_cls = df({'subclass': tmp.index.values})
df_gby_cls['count_pat'] = tmp[tmp.columns[-1]].values
df_gby_cls.head()
df_gby_cls.describe()
""" count_pat
count 727.000000
mean 1052.097662
std 13667.482842
min 1.000000
25% 2.500000
50% 18.000000
75% 104.000000
max 357936.000000
"""
df_gby_cls.plot.hist(bins=100, log=True)
def generateline(stocknumber, Type, startdate, enddate, interval):
startdata = startdate.encode("ascii").replace("/", "-").replace(
"\n", "") #convert to tushare readable date
enddata = enddate.encode("ascii").replace("/", "-").replace("\n", "")
array = df()
#print startdata
#print enddata
current_time = time.strftime("%Y/%m/%d")
if Type == "分笔".decode("utf-8"):
if startdate != current_time:
array = ts.get_tick_data(stocknumber, date=startdata) #分笔
if array is None:
return
array = array.sort_values("time")
date = array["time"].tolist()
amount = array["amount"].tolist()
atype = array["type"].tolist()
price = array["price"].tolist()
flag = ["bar" for i in date]
for idx, val in enumerate(atype): #if卖盘，交易变成负数
if val == "卖盘":
amount[idx] = -amount[idx]
if val == "中性盘": #if中性盘，则忽略. Might have a problem with this part??
amount[idx] = 0
returnarray = zip(date, amount, flag, price)
return returnarray
else:
array = ts.get_today_ticks(stocknumber) #Tushare里今日分笔和历史分笔需要分别对待
if array is None:
return
array = array.sort_values("time")
date = array["time"].tolist()
amount = array["amount"].tolist()
atype = array["type"].tolist()
flag = ["bar" for i in date]
for idx, val in enumerate(atype):
if val == "卖盘".decode("utf-8"):
amount[idx] = -amount[idx]
if val == "中性盘".decode("utf-8"):
amount[idx] = 0
returnarray = zip(date, amount, flag)
return returnarray
if interval != "qfq" and interval != "hfq": #正常历史k线
if Type != "Kline":
array = ts.get_k_data(stocknumber,
start=startdata,
end=enddata,
ktype=interval)
if array is None:
return
Type1 = firstletter(Type).encode("ascii")
target = array[Type1].tolist()
date = array["date"].tolist()
returnarray = zip(date, target)
return returnarray
else:
array = ts.get_k_data(stocknumber,
start=startdata,
end=enddata,
ktype=interval)
if array is None:
return
Date = array["date"].tolist()
Open = array["open"].tolist()
Close = array["close"].tolist()
High = array["high"].tolist()
Low = array["low"].tolist()
Candlestick = zip(*[Date, Open, Close, Low, High])
return Candlestick
else:
if Type != "Kline": # 复权
array = ts.get_h_data(stocknumber,
start=startdata,
end=enddata,
autype=interval)
if array is None:
return
Type1 = firstletter(Type).encode("ascii")
array = array.sort_index()
target = array[Type1].tolist()
date = array.index.format()
returnarray = zip(date, target)
return returnarray
else:
array = ts.get_h_data(stocknumber,
start=startdata,
end=enddata,
autype=interval)
if array is None:
return
array = array.sort_index()
Date = array.index.format()
Open = array["open"].tolist()
Close = array["close"].tolist()
High = array["high"].tolist()
Low = array["low"].tolist()
Candlestick = zip(*[Date, Open, Close, Low, High])
return Candlestick
def process_features(my_df, type, params):
try:
if not os.path.isdir(params.cache_dir):
os.makedirs(params.cache_dir)
if type == "train":
dict = hkl.load(
open(str(os.path.join(params.cache_dir, "train_features.hkl")),
"r"))
return dict["X"], dict["y_white"], dict["y_black"]
elif type == "test":
dict = hkl.load(
open(str(os.path.join(params.cache_dir, "test_features.hkl")),
"r"))
return dict["X"]
except:
X = df()
#Global
X["MaxMoveScore"] = my_df["MoveScores"].apply(np.max)
X["MinMoveScore"] = my_df["MoveScores"].apply(np.min)
X["RangeMoveScore"] = X["MaxMoveScore"] - X["MinMoveScore"]
X["IQRMoveScore"] = my_df["MoveScores"].apply(safe_iqr)
X["MedianMoveScore"] = my_df["MoveScores"].apply(np.median)
X["STDMoveScore"] = my_df["MoveScores"].apply(np.std)
X["GameLen"] = my_df["MoveScores"].apply(len)
X["MeanMoveScore"] = my_df["MoveScores"].apply(np.mean)
X["ModeMoveScore"] = my_df["MoveScores"].apply(
mode, axis=0).apply(lambda x: x[0][0])
# X["ModeRound10MoveScore"] = my_df["MoveScores"].apply(lambda x:np.round(x,-1)).apply(mode,axis=0).apply(lambda x:x[0][0])
X["SumMoveScore"] = my_df["MoveScores"].apply(np.sum)
X["BlunderCount"] = my_df["MoveScores"].apply(catch_blunders)
X["Results"] = my_df["Results"]
# White Scores
X["WhiteMaxMoveScore"] = my_df["WhiteMoveScores"].apply(np.max)
X["WhiteMinMoveScore"] = my_df["WhiteMoveScores"].apply(np.min)
X["WhiteRangeMoveScore"] = X["WhiteMaxMoveScore"] - X[
"WhiteMinMoveScore"]
X["WhiteIQRMoveScore"] = my_df["WhiteMoveScores"].apply(safe_iqr)
X["WhiteMedianMoveScore"] = my_df["WhiteMoveScores"].apply(safe_median)
X["WhiteSTDMoveScore"] = my_df["WhiteMoveScores"].apply(safe_std)
X["WhiteMeanMoveScore"] = my_df["WhiteMoveScores"].apply(safe_mean)
X["WhiteModeMoveScore"] = my_df["WhiteMoveScores"].apply(
safe_mode).apply(lambda x: x[0][0])
X["WhiteSumMoveScore"] = my_df["WhiteMoveScores"].apply(np.sum)
X["WhiteBlunderCount"] = my_df["WhiteMoveScores"].apply(catch_blunders)
# Black Scores
X["BlackMaxMoveScore"] = my_df["BlackMoveScores"].apply(np.max)
X["BlackMinMoveScore"] = my_df["BlackMoveScores"].apply(np.min)
X["BlackRangeMoveScore"] = X["BlackMaxMoveScore"] - X[
"BlackMinMoveScore"]
X["BlackIQRMoveScore"] = my_df["BlackMoveScores"].apply(safe_iqr)
X["BlackMedianMoveScore"] = my_df["BlackMoveScores"].apply(safe_median)
X["BlackSTDMoveScore"] = my_df["BlackMoveScores"].apply(safe_std)
X["BlackMeanMoveScore"] = my_df["BlackMoveScores"].apply(safe_mean)
X["BlackModeMoveScore"] = my_df["BlackMoveScores"].apply(
safe_mode).apply(lambda x: x[0][0])
X["BlackSumMoveScore"] = my_df["BlackMoveScores"].apply(np.sum)
X["BlackBlunderCount"] = my_df["BlackMoveScores"].apply(catch_blunders)
#White Advantage
#X["WhiteAdvantageMaxMoveScore"] = my_df["MoveScores"].apply(lambda x:filter(lambda elem:elem >= 0,x)).apply(safe_max) #Useless
X["WhiteAdvantageMinMoveScore"] = my_df[
"WhiteAdvantageMoveScores"].apply(safe_min)
X["WhiteAdvantageRangeMoveScore"] = X["MaxMoveScore"] - X[
"WhiteAdvantageMinMoveScore"]
X["WhiteAdvantageIQRMoveScore"] = my_df[
"WhiteAdvantageMoveScores"].apply(safe_iqr)
X["WhiteAdvantageMedianMoveScore"] = my_df[
"WhiteAdvantageMoveScores"].apply(safe_median)
X["WhiteAdvantageSTDMoveScore"] = my_df[
"WhiteAdvantageMoveScores"].apply(safe_std)
X["WhiteAdvantageCount"] = my_df["WhiteAdvantageMoveScores"].apply(len)
X["WhiteAdvantageMeanMoveScore"] = my_df[
"WhiteAdvantageMoveScores"].apply(safe_mean)
X["WhiteAdvantageModeMoveScore"] = my_df[
"WhiteAdvantageMoveScores"].apply(safe_mode).apply(
lambda x: x[0][0])
# X["WhiteAdvantageModeRound10MoveScore"] = my_df["MoveMoveScores"].apply(lambda x:filter(lambda elem:elem >= 0,x)).apply(lambda x:np.round(x,-1)).apply(safe_mode).apply(lambda x:x[0][0])
#Black Advantage
X["BlackAdvantageMaxMoveScore"] = my_df[
"BlackAdvantageMoveScores"].apply(safe_max)
#X["BlackAdvantageMinMoveScore"] = my_df["MoveMoveScores"].apply(lambda x:filter(lambda elem:elem < 0,x)).apply(safe_min) #Useless
X["BlackAdvantageRangeMoveScore"] = X[
"BlackAdvantageMaxMoveScore"] - X["MinMoveScore"]
X["BlackAdvantageIQRMoveScore"] = my_df[
"BlackAdvantageMoveScores"].apply(safe_iqr)
X["BlackAdvantageMedianMoveScore"] = my_df[
"BlackAdvantageMoveScores"].apply(safe_median)
X["BlackAdvantageSTDMoveScore"] = my_df[
"BlackAdvantageMoveScores"].apply(safe_std)
X["BlackAdvantageCount"] = my_df["BlackAdvantageMoveScores"].apply(len)
X["BlackAdvantageMeanMoveScore"] = my_df[
"BlackAdvantageMoveScores"].apply(safe_mean)
X["BlackAdvantageModeMoveScore"] = my_df[
"BlackAdvantageMoveScores"].apply(safe_mode).apply(
lambda x: x[0][0])
# X["BlackAdvantageModeRound10MoveScore"] = my_df["BlackAdvantageScores"].apply(lambda x:np.round(x,-1)).apply(safe_mode).apply(lambda x:x[0][0])
#Partitioning
## All moves
X["AllMoveScoresPartitionLen"] = my_df["Partition0MoveScores"].apply(
len)
for pt in range(params.partitions):
X["Partition%dMaxMoveScore" % pt] = my_df["Partition%dMoveScores" %
pt].apply(safe_max)
X["Partition%dMinMoveScore" % pt] = my_df["Partition%dMoveScores" %
pt].apply(safe_min)
X["Partition%dRangeMoveScore" %
pt] = X["Partition%dMaxMoveScore" %
pt] - X["Partition%dMinMoveScore" % pt]
X["Partition%dIQRMoveScore" % pt] = my_df["Partition%dMoveScores" %
pt].apply(safe_iqr)
X["Partition%dMedianMoveScore" %
pt] = my_df["Partition%dMoveScores" % pt].apply(safe_median)
X["Partition%dSTDMoveScore" % pt] = my_df["Partition%dMoveScores" %
pt].apply(safe_std)
X["Partition%dMeanMoveScore" %
pt] = my_df["Partition%dMoveScores" % pt].apply(safe_mean)
X["Partition%dModeMoveScore" %
pt] = my_df["Partition%dMoveScores" %
pt].apply(safe_mode).apply(lambda x: x[0][0])
X["Partition%dSumMoveScore" % pt] = my_df["Partition%dMoveScores" %
pt].apply(np.sum)
X["Partition%dBlunderCount" % pt] = my_df["Partition%dMoveScores" %
pt].apply(catch_blunders)
## White moves
X["WhiteMoveScoresPartitionLen"] = my_df[
"Partition0WhiteMoveScores"].apply(len)
for pt in range(params.partitions):
X["Partition%dMaxWhiteMoveScore" %
pt] = my_df["Partition%dWhiteMoveScores" % pt].apply(safe_max)
X["Partition%dMinWhiteMoveScore" %
pt] = my_df["Partition%dWhiteMoveScores" % pt].apply(safe_min)
X["Partition%dRangeWhiteMoveScore" %
pt] = X["Partition%dMaxWhiteMoveScore" %
pt] - X["Partition%dMinWhiteMoveScore" % pt]
X["Partition%dIQRWhiteMoveScore" %
pt] = my_df["Partition%dWhiteMoveScores" % pt].apply(safe_iqr)
X["Partition%dMedianWhiteMoveScore" %
pt] = my_df["Partition%dWhiteMoveScores" % pt].apply(safe_median)
X["Partition%dSTDWhiteMoveScore" %
pt] = my_df["Partition%dWhiteMoveScores" % pt].apply(safe_std)
X["Partition%dMeanWhiteMoveScore" %
pt] = my_df["Partition%dWhiteMoveScores" % pt].apply(safe_mean)
X["Partition%dModeWhiteMoveScore" %
pt] = my_df["Partition%dWhiteMoveScores" %
pt].apply(safe_mode).apply(lambda x: x[0][0])
X["Partition%dSumWhiteMoveScore" %
pt] = my_df["Partition%dWhiteMoveScores" % pt].apply(np.sum)
X["Partition%dWhiteBlunderCount" %
pt] = my_df["Partition%dWhiteMoveScores" %
pt].apply(catch_blunders)
## Black moves
X["BlackMoveScoresPartitionLen"] = my_df[
"Partition0BlackMoveScores"].apply(len)
for pt in range(params.partitions):
X["Partition%dMaxBlackMoveScore" %
pt] = my_df["Partition%dBlackMoveScores" % pt].apply(safe_max)
X["Partition%dMinBlackMoveScore" %
pt] = my_df["Partition%dBlackMoveScores" % pt].apply(safe_min)
X["Partition%dRangeBlackMoveScore" %
pt] = X["Partition%dMaxBlackMoveScore" %
pt] - X["Partition%dMinBlackMoveScore" % pt]
X["Partition%dIQRBlackMoveScore" %
pt] = my_df["Partition%dBlackMoveScores" % pt].apply(safe_iqr)
X["Partition%dMedianBlackMoveScore" %
pt] = my_df["Partition%dBlackMoveScores" % pt].apply(safe_median)
X["Partition%dSTDBlackMoveScore" %
pt] = my_df["Partition%dBlackMoveScores" % pt].apply(safe_std)
X["Partition%dMeanBlackMoveScore" %
pt] = my_df["Partition%dBlackMoveScores" % pt].apply(safe_mean)
X["Partition%dModeBlackMoveScore" %
pt] = my_df["Partition%dBlackMoveScores" %
pt].apply(safe_mode).apply(lambda x: x[0][0])
X["Partition%dSumBlackMoveScore" %
pt] = my_df["Partition%dBlackMoveScores" % pt].apply(np.sum)
X["Partition%dBlackBlunderCount" %
pt] = my_df["Partition%dBlackMoveScores" %
pt].apply(catch_blunders)
## WhiteAdvantage moves
X["WhiteAdvantageMoveScoresPartitionLen"] = my_df[
"Partition0WhiteAdvantageMoveScores"].apply(len)
for pt in range(params.partitions):
X["Partition%dMaxWhiteAdvantageMoveScore" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" %
pt].apply(safe_max)
X["Partition%dMinWhiteAdvantageMoveScore" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" %
pt].apply(safe_min)
X["Partition%dRangeWhiteAdvantageMoveScore" %
pt] = X["Partition%dMaxWhiteAdvantageMoveScore" %
pt] - X["Partition%dMinWhiteAdvantageMoveScore" % pt]
X["Partition%dIQRWhiteAdvantageMoveScore" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" %
pt].apply(safe_iqr)
X["Partition%dMedianWhiteAdvantageMoveScore" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" %
pt].apply(safe_median)
X["Partition%dSTDWhiteAdvantageMoveScore" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" %
pt].apply(safe_std)
X["Partition%dMeanWhiteAdvantageMoveScore" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" %
pt].apply(safe_mean)
X["Partition%dModeWhiteAdvantageMoveScore" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" %
pt].apply(safe_mode).apply(lambda x: x[0][0])
X["Partition%dSumWhiteAdvantageMoveScore" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" % pt].apply(
np.sum)
X["Partition%dWhiteAdvantageBlunderCount" %
pt] = my_df["Partition%dWhiteAdvantageMoveScores" %
pt].apply(catch_blunders)
## BlackAdvantage moves
X["BlackAdvantageMoveScoresPartitionLen"] = my_df[
"Partition0BlackAdvantageMoveScores"].apply(len)
for pt in range(params.partitions):
X["Partition%dMaxBlackAdvantageMoveScore" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" %
pt].apply(safe_max)
X["Partition%dMinBlackAdvantageMoveScore" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" %
pt].apply(safe_min)
X["Partition%dRangeBlackAdvantageMoveScore" %
pt] = X["Partition%dMaxBlackAdvantageMoveScore" %
pt] - X["Partition%dMinBlackAdvantageMoveScore" % pt]
X["Partition%dIQRBlackAdvantageMoveScore" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" %
pt].apply(safe_iqr)
X["Partition%dMedianBlackAdvantageMoveScore" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" %
pt].apply(safe_median)
X["Partition%dSTDBlackAdvantageMoveScore" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" %
pt].apply(safe_std)
X["Partition%dMeanBlackAdvantageMoveScore" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" %
pt].apply(safe_mean)
X["Partition%dModeBlackAdvantageMoveScore" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" %
pt].apply(safe_mode).apply(lambda x: x[0][0])
X["Partition%dSumBlackAdvantageMoveScore" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" % pt].apply(
np.sum)
X["Partition%dBlackAdvantageBlunderCount" %
pt] = my_df["Partition%dBlackAdvantageMoveScores" %
pt].apply(catch_blunders)
if type == "train":
y_white = my_df["WhiteEloScore"].apply(int)
y_black = my_df["BlackEloScore"].apply(int)
dict = {}
dict["X"] = X
dict["y_white"] = y_white
dict["y_black"] = y_black
hkl.dump(
dict,
open(str(os.path.join(params.cache_dir, "train_features.hkl")),
"wb"))
return X, y_white, y_black
elif type == "test":
dict = {}
dict["X"] = X
hkl.dump(
dict,
open(str(os.path.join(params.cache_dir, "test_features.hkl")),
"wb"))
return X
import pandas as pd from pandas import DataFrame as df from pandas import Series as s import numpy as np int_ary = np.arange(1, 17).reshape(4, 4) masked = np.ma.masked_array(int_ary, mask=int_ary % 3 == 0) print masked masked = df(masked) print masked
def orderbook(self):
depth = self.session.get("%s/public/orderbook/%s" % (self.url, self.symbol), timeout=2).json()
asks = np.array(df(depth["ask"])).astype(float)[:20]
bids = np.array(df(depth["bid"])).astype(float)[:20]
return {"ask":asks, "bid":bids}
def read_DGS(filename):
"""
Read a DigSilent Power Factory .dgs file and return a dictionary with the data
Args:
filename: File name or path
Returns: Dictionary of data where the keys are the object types and the values
are the data of the objects of the key object type
"""
###############################################################################
# Read the file
###############################################################################
f = open(filename, errors='replace')
lines = f.readlines()
f.close()
###############################################################################
# Process the data
###############################################################################
data = dict()
"""
Numpy types:
'b' boolean
'i' (signed) integer
'u' unsigned integer
'f' floating-point
'c' complex-floating point
'O' (Python) objects
'S', 'a' (byte-)string
'U' Unicode
'V' raw data (void)
"""
"""
DGS types
a
p
i
r
"""
types_dict = dict()
types_dict["a"] = "|S32"
types_dict["p"] = "|S32"
types_dict["i"] = "<i4"
types_dict["r"] = "<f4"
types_dict["d"] = "<f4"
types_dict2 = dict()
current_type = None
data_types = None
header = None
Headers = dict()
# parse the file lines
for line in lines:
if line.startswith("$$"):
line = line[2:]
chnks = line.split(";")
current_type = chnks[0]
data[current_type] = list()
print(current_type)
# analyze types
data_types = list()
header = list()
for i in range(1, len(chnks)):
token = chnks[i].split("(")
name = token[0]
tpe = token[1][:-1]
data_types.append((name, types_dict[tpe[0]]))
header.append(name)
types_dict2[current_type] = data_types
Headers[current_type] = header
elif line.startswith("*"):
pass
elif line.startswith(" "):
if current_type is not None:
line = line.strip()
chnks = line.split(";")
chnks = ["0" if x == "" else x for x in chnks]
data[current_type].append(array(tuple(chnks)))
# format keys
for key in data.keys():
print("Converting " + str(key))
table = array([tuple(x) for x in data[key]], dtype=types_dict2[key])
table = array([list(x) for x in table], dtype=np.object)
header = Headers[key]
data[key] = df(data=table, columns=header)
# positions dictionary
obj_id = data['IntGrf']['pDataObj'].values
x_vec = data['IntGrf']['rCenterX'].values
y_vec = data['IntGrf']['rCenterY'].values
pos_dict = dict()
for i in range(len(obj_id)):
pos_dict[obj_id[i]] = (x_vec[i], y_vec[i])
return data, pos_dict
def __init__(self,
col_list="default",
attr_list="default",
categorize=None,
data_opt='train',
scaling='mean-std',
holdout=0.3,
random_seed=42,
oversampler=None):
self.col_list = col_list
self.attr_list = attr_list
if (col_list == 'default'):
self.col_list = [
'ADMISSIONS', 'ICUSTAYS', 'INPUTEVENTS_MV', 'PATIENTS'
]
if (attr_list == 'default'):
self.attr_list = {
'ADMISSIONS':
['ADMISSION_TYPE', 'ADMITTIME', 'DISCHTIME', 'DEATHTIME'],
'ICUSTAYS': ['LOS'],
'INPUTEVENTS_MV': ['PATIENTWEIGHT'],
'PATIENTS': ['DOB', 'GENDER']
}
for y in ['ADMITTIME', 'DISCHTIME', 'DEATHTIME']:
if y not in self.attr_list['ADMISSIONS']:
self.attr_list['ADMISSIONS'].append(y)
self.datasetX = None
self.datasetY = None
col_list = self.col_list
conn = pymysql.connect(host='192.168.56.104',
user='******',
password='******',
db='mimiciiiv14',
charset='utf8')
curs = conn.cursor(pymysql.cursors.DictCursor)
# Select LABEVENTS,SUBJECT_ID FROM LABEVENTS JOIN PATIENTS on LABEVENTS.SUBJECT_ID = PATIENTS.SUBJECT_ID JOIN ADMISSIONS on PATIENTS.SUBJECT_ID = ADMISSIONS.SUBJECT_ID
sql_line = 'SELECT'
for col in col_list:
for attr in self.attr_list[col]:
sql_line += ' ,' + col + '.' + attr
sql_line += ' FROM ' + col_list[0]
sql_line = sql_line[:7] + sql_line[8:]
prev = col_list[0]
for col in col_list[1:]:
if col != 'PATIENTS':
sql_line += ' JOIN {0} on {1}.SUBJECT_ID = {0}.SUBJECT_ID and {1}.HADM_ID = {0}.HADM_ID'.format(
col, prev)
else:
sql_line += ' JOIN {0} on {1}.SUBJECT_ID = {0}.SUBJECT_ID'.format(
col, prev)
col_list[0] = col
sql_line += ';'
curs.execute(sql_line)
result = curs.fetchall()
print(df(result))
# 여기부터
self.datasetX = df(result)
self.datasetY = self.datasetX[['ADMITTIME', 'DISCHTIME', 'DEATHTIME']]
self.datasetX = self.datasetX.drop(
['ADMITTIME', 'DISCHTIME', 'DEATHTIME'], axis=1)
self.datasetX = changeValue(self.datasetX) #.to_numpy()
for i in self.datasetX.columns:
if self.datasetX[i].dtype == object:
self.datasetX = pd.concat([
self.datasetX,
pd.get_dummies(self.datasetX[i], prefix=i)
],
axis=1)
del (self.datasetX[i])
if ((type(categorize) is list) and categorize != None):
for i in categorize:
self.datasetX = pd.concat([
self.datasetX,
pd.get_dummies(self.datasetX[i], prefix=i)
],
axis=1)
del (self.datasetX[i])
print(self.datasetX.shape)
print(self.datasetX)
self.datasetY = cal_days(self.datasetY)
self.datasetY = self.datasetY.fillna(self.datasetY.mean())
self.datasetY = self.datasetY.to_numpy()
# 여기까지 뜯어 고쳐야함.
X_train, X_test, y_train, y_test = train_test_split(
self.datasetX,
self.datasetY,
test_size=holdout,
random_state=random_seed)
if (scaling == 'mean-std'):
std_scaler = StandardScaler()
X_train = std_scaler.fit_transform(X_train)
X_test = std_scaler.transform(X_test)
if (scaling == 'min-max'):
scaler = MinMaxScaler()
scaler.fit(X_train)
X_train = scaler.transform(X_train)
X_test = scaler.transform(X_test)
if (data_opt == 'train'):
self.X = torch.from_numpy(X_train)
self.y = torch.from_numpy(y_train)
if (oversampler == 'Random'):
ros = RandomOverSampler(random_state=random_seed)
self.X, self.y = ros.fit_resample(self.X, self.y)
if (oversampler == 'ADASYN'):
self.X, self.y = ADASYN(random_state=random_seed).fit_resample(
self.X, self.y)
if (oversampler == 'SMOTE'):
self.X, self.y = SMOTE(random_state=random_seed).fit_resample(
self.X, self.y)
else:
self.X = torch.from_numpy(X_test)
self.y = torch.from_numpy(y_test)
self.length = self.X.shape[0]
def __init__(self):
super(MyUi, self).__init__()
self.ui = Ui_MainWindow()
self.ui.setupUi(self)
cwd = os.getcwd()
cwd = str(cwd)
if os.path.isfile(cwd + "/time"):
with open("time", "r") as outfile: #reads current time
history = cPickle.load(outfile)
if (datetime.now() - history
).total_seconds() < 43200: #measures if time elapse>12 hours
print("Less than 12 hours. Loading previously saved Pickle...")
#with open("time","w") as infile: #update time
#cPickle.dump(datetime.now(),infile)
# else:
print("More than 12 hours. Updating Pickle...")
data = ts.get_industry_classified()
with open("class", "w+") as outfile:
cPickle.dump(data, outfile)
now = datetime.now()
with open("time", "w+") as outfile: #update time
cPickle.dump(now, outfile)
else:
print("No Pickle found!"
) #If this is first time using tuchart in this directory
data = df()
data = ts.get_industry_classified()
with open('class', 'w+') as outfile: #records pickle
cPickle.dump(data, outfile)
now = datetime.now()
with open("time", "w+") as outfile:
cPickle.dump(now, outfile)
with open("class", "r") as infile: # reads current time
series = cPickle.load(infile)
#series = pd.read_json(cwd + "\\class.json")
#series = ts.get_industry_classified()
series = pd.DataFrame(series)
curdate = time.strftime(
"%Y/%m/%d") # gets current time to put into dateedit
curdateQ = QDate.fromString(curdate, "yyyy/MM/dd")
dateobj = datetime.strptime(curdate,
"%Y/%m/%d") #converts to datetime object
past = dateobj - timedelta(days=7) #minus a week to start date
pasttime = datetime.strftime(past, "%Y/%m/%d")
pastQ = QDate.fromString(
pasttime,
"yyyy/MM/dd") #convert to qtime so that widget accepts the values
pastL = dateobj - timedelta(days=30) # minus a month to start date
pasttimeL = datetime.strftime(pastL, "%Y/%m/%d")
pastQL = QDate.fromString(pasttimeL, "yyyy/MM/dd")
np_indexes = np.array([['sh', '上证指数', '大盘指数'], ['sz', '深证成指', '大盘指数'],
['hs300', '沪深300指数', '大盘指数'],
['sz50', '上证50', '大盘指数'],
['zxb', '中小板', '大盘指数'], ['cyb', '创业板', '大盘指数']])
indexes = df(data=np_indexes,
index=range(5000, 5006),
columns=["code", "name", "c_name"])
series = indexes.append(series)
list1_bfr = series["c_name"].tolist(
) #Get industry categories. Filters out redundant ones
list1 = list(set(list1_bfr))
list1.sort(key=list1_bfr.index)
#w = database()
#zsparent = QTreeWidgetItem(self.ui.treeWidget)
#zsparent.setText(0,"股票指数")
#zsnames =["上证指数-sh","深圳成指-sz","沪深300指数-hs300","上证50-"]
self.init_treeWidget(list1, series)
self.ui.treeWidget.setContextMenuPolicy(Qt.CustomContextMenu)
self.ui.treeWidget.customContextMenuRequested.connect(self.openMenu)
#self.ui.webView.setGeometry(QtCore.QRect(0, 30,1550, 861))
file_path = os.path.abspath(
os.path.join(os.path.dirname(__file__),
"render.html")) #path to read html file
local_url = QUrl.fromLocalFile(file_path)
self.ui.webView.load(local_url)
#self.ui.commandLinkButton.setFixedSize(50, 50)
self.ui.search_btn.clicked.connect(lambda: self.search_comp(series))
self.ui.log_btn.clicked.connect(lambda: self.log())
self.ui.init_code_btn.clicked.connect(
lambda: self.code_sort_tree(series))
self.ui.init_category_btn.clicked.connect(
lambda: self.init_treeWidget(list1, series))
self.ui.commandLinkButton.clicked.connect(
self.classify) #when the arrow button is clicked, trigger events
#self.ui.commandLinkButton.clicked.connect(lambda action: self.classify(action, self.ui.treewidget))
# QSizePolicy
try:
retain_size = self.ui.dateEdit_2.sizePolicy()
retain_size.setRetainSizeWhenHidden(True)
self.ui.dateEdit_2.setSizePolicy(retain_size)
retain_size = self.ui.comboBox.sizePolicy()
retain_size.setRetainSizeWhenHidden(True)
# self.ui.comboBox.setSizePolicy(retain_size)
retain_size = self.ui.label_2.sizePolicy()
retain_size.setRetainSizeWhenHidden(True)
self.ui.label_2.setSizePolicy(retain_size)
except AttributeError:
print("No PYQT5 Binding! Widgets might be deformed")
self.ui.dateEdit.setDate(pastQL)
self.ui.dateEdit_2.setDate(curdateQ) #populate widgets
self.ui.dateEdit.setCalendarPopup(True)
self.ui.dateEdit_2.setCalendarPopup(True)
self.ui.comboBox.addItems(["D"])
self.ui.treeWidget_2.setDragDropMode(self.ui.treeWidget_2.InternalMove)
self.ui.treeWidget_2.setContextMenuPolicy(Qt.CustomContextMenu)
self.ui.treeWidget_2.customContextMenuRequested.connect(
self.openWidgetMenu)
#self.ui.toolbutton.clicked.connect(lambda action: self.graphmerge(action, CombineKeyword))
self.ui.combobox.currentIndexChanged.connect(
lambda: self.modifycombo(pastQL, pastQ))
if row.Type == 'Sell':
last_cpl = row[4] # 'Cumulative P/L' column
if isnan(last_cpl):
break
rowdict['Position Id'] = int(posid)
rowdict['Date/Time'] = row[3] # 'Date/Time' column
rowdict['Order Type'] = row.Type
rowdict['Profit/Loss'] = trade_pl
rowdict['Cumulative P/L'] = last_cpl
rows.append(rowdict)
# create an empyt equity curve DataFrame
#ecols = ['Position Id', 'Date/Time', 'Order Type',
# 'Profit/Loss', 'Cumulative P/L']
edf = df(rows)
#fig = px.line(edf, x='Date/Time', y='Cumulative P/L', title="Equity Curve");
fig = make_subplots(specs=[[{"secondary_y": True}]])
fig.add_trace(go.Candlestick(x=cdf['Date/Time'],
open=cdf['Open'],
high=cdf['High'],
low=cdf['Low'],
close=cdf['Close']),
secondary_y=False)
fig.add_trace(go.Scatter(x=edf['Date/Time'], y=edf['Cumulative P/L']),
secondary_y=True)
#fig.update_xaxes(rangebreaks=[dict(bounds=["sat", "mon"])])
from pnn import PNN
if __name__ == '__main__':
np.random.seed(42)
try:
train_set = np.array(read_csv("data/input/KDDTrain_procsd_redcd.csv"))
test_set = np.array(read_csv("data/input/KDDTest_procsd.csv"))
n = int(train_set.shape[1] - 1)
input("Press 'Enter to start'")
train_set_in = train_set[:, 0:n]
train_set_out = train_set[:, n]
test_set_in = test_set[:, 0:n]
test_set_out = test_set[:, n]
pnn = PNN(train_set_in, train_set_out)
print("\tRECOGNITION (testing set)")
test_recog = pnn.recognize(test_set_in, test_set_out).squeeze()
testDF = df({"expected": test_set_out, "recognized": test_recog})
testDF.to_csv("data/output/KDD_testing_pnn.csv")
except Exception as e:
print("Exception occured:\n{}".format(e))
finally:
input("Press 'Enter to quit'")
import requests
from pandas import DataFrame as df
import plotly.graph_objects as go
#Le pego a la api
r = requests.get('https://coronavirus-tracker-api.herokuapp.com/v2/locations')
#Pido la columna de location
r = df(r.json()['locations'])
lon = []
lat = []
for x in r['coordinates']:
lon.append(x['longitude'])
lat.append(x['latitude'])
r['lat'] = df(lat)
r['lon'] = df(lon)
confirmed = []
confirmed_size = []
deaths = []
deaths_size = []
recovered =[]
recovered_size = []
for x in r['latest']:
confirmed.append(x['confirmed'])
confirmed_size.append(int(x['confirmed'])/700)
deaths.append(x['deaths'])
def PrintData(x):
print(df(x))