def new_frame3():
top2 = Toplevel()
top2.title("TRANSPOSE THE IMAGE")
top2.geometry("500x500")
top2.config(bg='cyan')
l5 = Label(top2,text = "Enter the location where image file is located : ",font=("TIMES",20))
l6 = Label(top2,text = "Enter the location where you want to store the image : ",font=("TIMES",20))
l5.grid(column = 0,row = 0,sticky = W,padx = 10, pady = 10)
l6.grid(column = 0,row = 1,sticky = W,padx = 10, pady = 10)
l5.config(bg = 'black',fg = 'yellow')
l6.config(bg = 'black',fg = 'yellow')
x2 = StringVar()
y2 = StringVar()
#GIVE THE PATH OF IMAGE
e5 = ttk.Entry(top2,textvariable = x2)
#GIVE PATH TO SAVE THE IMAGE IN DESIRED LOCATION
e6 = ttk.Entry(top2,textvariable = y2)
e5.grid(column = 1,row = 0,padx = 10, pady = 10)
e6.grid(column = 1,row = 1,padx = 10, pady = 10)
#CREATING A BUTTON WITH NAME "TRANSPOSE", ON CLICKING THIS BUTTON WILL INVOKE THE FUNCTION WITH NAME "Transpose" AND PERFORM TRANSPOSE OPERATION
B = ttk.Button(top2, text ="TRANSPOSE",width = 50, command = lambda:tr.Transpose(x2.get(),y2.get()))
B.grid(row = 2,column =3,padx = 10, pady = 10)
def test_08_links_to_data_location(self):
"""
reverse the above list - the output from test_06 above is below
"""
lnks_location = [[
'Cat_name', 'Location', 'NAME_a', 'NAME_b', 'link_count'
], ['Location', 'Perth', 'John', 'John', 0],
['Location', 'Burra', 'Mary', 'Mary', 0],
['Location', 'Darwin', 'Jane', 'Jane', 0],
['Location', 'Perth', 'Fred', 'John', 1],
['Location', 'Perth', 'Fred', 'Fred', 0],
['Location', 'Perth', 'Cindy', 'John', 1],
['Location', 'Perth', 'Cindy', 'Fred', 1],
['Location', 'Perth', 'Cindy', 'Cindy', 0]]
print('test_08 - lnks_location = ', len(lnks_location))
pprint.pprint(lnks_location)
obj8 = transpose.Transpose(lnks_location)
lst8 = obj8.links_to_data(col_name_col_num=0,
col_val_col_num=1,
id_a_col_num=2,
id_b_col_num=3)
pprint.pprint(lst8)
self.assertEqual(len(lst8), 6)
self.assertTrue(['John', 'Perth'] in lst8)
self.assertTrue(['Mary', 'Burra'] in lst8)
self.assertTrue(['Fred', 'Perth'] in lst8)
def test_07_links_to_data_jobs(self):
"""
reverse the above list - the output from test_06 above is below
"""
lnks_jobs = [['Cat_name', 'Job', 'NAME_a', 'NAME_b', 'link_count'],
['Job', 'Plumber', 'John', 'John', 0],
['Job', 'Farmer', 'Mary', 'Mary', 0],
['Job', 'Farmer', 'Jane', 'Mary', 1],
['Job', 'Farmer', 'Jane', 'Jane', 0],
['Job', 'Cleaner', 'Fred', 'Fred', 0],
['Job', 'Manager', 'Cindy', 'Cindy', 0]]
print('test_07 - lnks_jobs = ', len(lnks_jobs))
pprint.pprint(lnks_jobs)
obj7 = transpose.Transpose(lnks_jobs)
lst7 = obj7.links_to_data(col_name_col_num=0,
col_val_col_num=1,
id_a_col_num=2,
id_b_col_num=3)
pprint.pprint(lst7)
self.assertEqual(len(lst7), 6)
self.assertTrue(['John', 'Plumber'] in lst7)
self.assertTrue(['Mary', 'Farmer'] in lst7)
self.assertTrue(['Fred', 'Cleaner'] in lst7)
def test_05_data_to_links(self):
"""
transpose a list into a cartesan product of links
"""
lst_raw = [
['NAME', 'Location', 'Job'],
['John', 'Perth', 'Plumber'],
['Mary', 'Burra', 'Farmer'],
['Jane', 'Darwin', 'Farmer'],
['Fred', 'Perth', 'Cleaner'],
['Cindy', 'Perth', 'Manager'],
]
obj5 = transpose.Transpose(lst_raw)
lst1 = obj5.data_to_links(0, 1)
#print('lst1 = ' + str(len(lst1)))
#pprint.pprint(lst1)
self.assertEqual(lst_raw[0], ['NAME', 'Location', 'Job'])
self.assertEqual(len(lst_raw), 6)
self.assertEqual(
lst1[0],
['Cat_name', 'Location', 'NAME_a', 'NAME_b', 'link_count'])
self.assertEqual(len(lst1), 9)
#self.assertTrue(['Location', 'Perth', 'John', 'Fred'] OR ['Location', 'Perth', 'Fred', 'John'] in lst1)
lst2 = obj5.data_to_links(0, 1, include_links_self='N')
self.assertEqual(len(lst2), 4)
#print('lst2 (no SELF links) = ' + str(len(lst2)))
pprint.pprint(lst2)
lst3 = obj5.data_to_links(0, 2)
#print('lst3 (link by Job)= ' + str(len(lst3)))
#pprint.pprint(lst3)
self.assertEqual(len(lst3), 7)
lst4 = obj5.data_to_links(0, 2, include_links_self='N')
print('lst4 (link by Job, no SELF links)= ' + str(len(lst4)))
pprint.pprint(lst4)
self.assertEqual(len(lst4), 2)
lst5 = obj5.data_to_links(0, 2, include_links_self='Y')
print('lst5 (link by Job, with SELF links)= ' + str(len(lst5)))
pprint.pprint(lst5)
self.assertEqual(len(lst5), 7)
lst6 = obj5.data_to_links(0, 1, include_links_self='Y')
print('lst6 (link by Location, with SELF links)= ' + str(len(lst6)))
pprint.pprint(lst6)
self.assertEqual(len(lst6), 9)
def test_06_data_to_links_CSV(self):
"""
transpose a CSV file into a cartesan product of links
DATE Project Code Location Contractor Job Colour Balance
"""
lst_raw = []
with open(os.path.join(this_fldr, 'random_projects.csv'), 'r') as f:
for line in f:
r = []
cols = line.split(',')
#print('cols = ', cols)
for c in cols:
r.append(c.strip('\n').strip('"'))
#print(r)
lst_raw.append(r)
print('Raw data from large CSV = ' + str(len(lst_raw)))
#pprint.pprint(lst_raw[0:5])
self.assertEqual(len(lst_raw), 10000)
obj6 = transpose.Transpose(lst_raw)
lst1 = obj6.data_to_links(3, 1, include_links_self='N')
print('Project Links from large CSV = ' + str(len(lst1)))
#pprint.pprint(lst1[0:5])
self.assertEqual(len(lst1), 598) # 598 valid links on projects
lst2 = obj6.data_to_links(3, 1, include_links_self='Y')
print('Project Links from large CSV (with SELF links) = ' +
str(len(lst2)))
#pprint.pprint(lst1[0:5])
self.assertEqual(len(lst2),
10597) # over 10k links (with SELF) on projects
lst3 = obj6.data_to_links(3, 2, include_links_self='N')
print('Location Links from large CSV = ' + str(len(lst3)))
#pprint.pprint(lst3[0:5])
self.assertEqual(len(lst3), 171756) # 171756 valid links on location
def _second_dim(self, X):
X_new = np.zeros(shape=(np.shape(X)[0], np.shape(X)[1],
np.shape(X)[2] // self.order),
dtype=float)
iterator = 0 # счетчик для выбора нужной строки
counter = 0 # счетчик для определения новой позиции строки
for i in range(0, (np.shape(X)[2] // self.order) * self.order):
if iterator == self.order - 1:
iterator = 0
X_new[:, :, counter] = X[:, :, i]
counter += 1
continue
iterator += 1
return X_new
if __name__ == "__main__":
import sys
import os
sys.path.append(os.path.join(os.path.dirname(__file__), '..'))
from eegreader import EEGData
import transpose
EEG = EEGData()
ds = DownSample(250, 3)
tr = transpose.Transpose()
p = Pipeline([('tr', tr), ('ds', ds)])
res = p.transform(EEG.EEGData)
print(np.shape(res))
print(ds.new_frequency)
def test_04_kv_test2(self):
obj2 = transpose.Transpose(lst_ppl)
#print(obj2.ip_data)
obj2.key_value_pairs()
#print(obj2.op_data)
print('todo - test for this - test_04_kv')
def setUp(self):
unittest.TestCase.setUp(self)
self.obj_transpose = transpose.Transpose(test_list)