def Generate(matrix_len, alpha_len):
key = np_round((alpha_len - 1) * random.rand(matrix_len, matrix_len))
inverted_key = ModMatInv(key, alpha_len, matrix_len)
while array_equal(inverted_key, zeros((matrix_len, matrix_len))) is True:
key = np_round((alpha_len - 1) * random.rand(matrix_len, matrix_len))
inverted_key = ModMatInv(key, alpha_len, matrix_len)
return key, inverted_key
def predict_image(path_of_image, groupStage):
path_of_model = os_path.join("./CUSTOMIZE_4_USER/MODEL_TRAINING",
groupStage, groupStage + ".pth")
path_of_feature = os_path.join("./CUSTOMIZE_4_USER/MODEL_TRAINING",
groupStage, groupStage + ".npz")
start_time = time()
model = NeuralNet(input_size, hidden_size, num_classes).to(device)
model.load_state_dict(load(path_of_model))
data = np_load(path_of_feature)
[h_max, s_max, v_max] = data['data_max']
[h_min, s_min, v_min] = data['data_min']
img = imread(path_of_image)
img = resize(img, (6000, 4000))
img = img[500:-500, 750:-750, :]
img = cvtColor(img, COLOR_BGR2HSV)
hchan, schan, vchan = split(img)
h_hist = calcHist([img], [0], None, [256], [0, 256]).reshape(256, )
s_hist = calcHist([img], [1], None, [256], [0, 256]).reshape(256, )
v_hist = calcHist([img], [2], None, [256], [0, 256]).reshape(256, )
hMean = np_mean(hchan) / 255
DPV_h_max = np_sum(np_absolute(h_hist - h_max)) / (HEIGHT * WIDTH)
DPV_h_min = np_sum(np_absolute(h_hist - h_min)) / (HEIGHT * WIDTH)
sMean = np_mean(schan) / 255
DPV_s_max = np_sum(np_absolute(s_hist - s_max)) / (HEIGHT * WIDTH)
DPV_s_min = np_sum(np_absolute(s_hist - s_min)) / (HEIGHT * WIDTH)
vMean = np_mean(vchan) / 255
DPV_v_max = np_sum(np_absolute(v_hist - v_max)) / (HEIGHT * WIDTH)
DPV_v_min = np_sum(np_absolute(v_hist - v_min)) / (HEIGHT * WIDTH)
correlation = np_corrcoef(h_hist, s_hist)[0][1]
#image_feature = np_array((hMean, DPV_h_max, DPV_h_min, sMean, DPV_s_max, DPV_s_min, vMean, DPV_v_max, DPV_v_min))
image_feature = np_array((hMean, DPV_h_max, DPV_h_min, sMean, DPV_s_max,
DPV_s_min, correlation))
image_feature = from_numpy(image_feature).to(device).float().view(
1, input_size)
with no_grad():
out_predict = model(image_feature)
_, predicted_result = torch_max(out_predict.data, 1)
original = Tensor([[1, 33, 66, 99]])
# Round xx.xx %
percentage_result = np_round(
mm(out_predict.view(1, num_classes), original.view(num_classes,
1)).item(), 2)
# Processed time
processedTime = np_round(time() - start_time, 2)
#print("Time ",processedTime)
return percentage_result, processedTime
def integration_to_seconds(integration, filetype):
"""Return a 1D numpy array of seconds from the beginning of the dataset
using the integration time of each dataset sample
integration: numpy 1D array of data integration values
"""
if filetype == "fits":
return np_round(integration/1000, 3)
else:
clock = 1.0 / 200000000
return np_round(integration * clock * 1024, 3)
def concatenate_all_pickled_wall_normal_cases(folder,output_pickle):
from os import listdir
from os.path import join,split
import pandas as pd
from re import findall
from numpy import round as np_round
pickled_files = [f for f in listdir( folder ) \
if f.endswith('.p')\
and not f == split(output_pickle)[1]]
concatenated_df = pd.DataFrame()
for p in pickled_files:
df = pd.read_pickle( join( folder, p ) )
df['file'] = p
case_name = findall(
'[A-Za-z0-9_]+',p
)[0]
df['case_name'] = case_name
df['near_x'] = np_round( df.x )
df['delta_99'] = 0
df['near_y_delta'] = 0
df['near_y'] = 0
print " For the case {0}".format(case_name)
print " found the following x locations"
print " {0}".format(df.near_x.unique())
for x in df.near_x.unique():
bl = get_bl_parameters( case_name, x )
df['delta_99'].loc[df.near_x == x] = bl.delta_99.values[0]
df['near_y'].loc[df.near_x == x] = \
np_round( df.loc[df.near_x == x].y , 1 )
df['near_y_delta'].loc[df.near_x == x] = \
map(
lambda p: \
find_nearest(p, expected_wall_normal_locations),
df.loc[df.near_x == x].y / bl.delta_99.values[0]
)
concatenated_df = concatenated_df.append(
df, ignore_index = True
)
concatenated_df.to_pickle( output_pickle )
def _convert_8bits(img):
"""
Convertit le résultat en array uint8 avec des valeurs
comprises entre 0 et 255
"""
res_8b = np_round(resultat)
res_8b[res_8b > 255] = 255
return res_8b.astype(np_uint8)
def check_quotients_near_double(A,
B,
C,
D,
*,
num_calls_triple=0,
num_calls_double=0):
"""
Get the quotients for the case when the roots are almost a double.
"""
qs = get_quotients_near_double(A, B, C, D)
pos_case = check_pairwise(qs, isclose)
neg_case = check_pairwise([qs[0], -qs[1]], isclose)
if not (pos_case or neg_case):
return False, None
if pos_case:
λ = get_shared_figs(qs)
elif neg_case:
λ = get_shared_figs(array([qs[0], -qs[1]]))
else:
raise RuntimeError("double quotients check has problem")
a = A
b = -B / 3
c = C / 3
d = -D
b_dash = b - λ * a
c_dash = c - λ * b
c_ddash = c_dash - λ * b_dash
if d < a * np_pow(λ, 3):
D = np_round(d)
δ = d - D
d_dash = D - λ * c
d_ddash = d_dash - λ * c_dash
d_star = (d_ddash - λ * c_ddash) + δ
else:
d_dash = d - λ * c
d_ddash = d_dash - λ * c_dash
d_star = d_ddash - λ * c_ddash
case, roots = solve_cubic(
a,
-3 * b_dash,
3 * c_ddash,
-d_star,
num_calls_triple=num_calls_triple,
num_calls_double=num_calls_double + 1,
recurse=(num_calls_double < 10),
)
return True, (case, roots + λ)
def linspace(self):
if type(self.ran) is tuple:
try:
logging.debug(f"using ran: {self.ran}, type {type(self.ran[0])} for linspace")
self._linspace = np_round(
np_linspace(self.ran[0],
self.ran[-1],
self.n), decimals=3)
logging.debug(f"running linspace for {self.name}, if linspace: {type(self._linspace)}")
except:
raise(ValueError("Could not assign linspace"))
return self._linspace
else:
self._linspace = np_array(self.val)
return self._linspace
def _disc(a, b, c):
"""
Python implementation of DISC
"""
if a * c > 0:
a = np_abs(a)
c = np_abs(c)
loop_cont = True # loop must run at least once
while loop_cont:
loop_cont = False
if a < c:
a, c = c, a
n = np_round(b / c)
if n != 0:
α = a - n * b
if α >= -a:
b = b - n * c
a = α - n * b
if a > 0:
loop_cont = True
return np_pow(b, 2) - a * c
print("File name: " + data_file)
for dataset in datasets:
print("Table: " + to_text_string(dataset.th))
gain = None
shift = None
integration = None
print(
"Time from epoch \t UT time \t\t\t\t gain \t integration \t shift")
for row in dataset.th.iterrows():
if (row['gain'] != gain) or (row['integration'] != integration
) or (row['shift'] != shift):
# print (str(row['time'])+" "+str(row['subtime'])+" "+
ut_time = time.gmtime(row['time'])
ut_msec = str(np_round(row['subtime'] * CLOCK, 3)).split('.')
print(
str(np_round(row['time'] + row['subtime'] * CLOCK, 3)) +
" \t\t " + str(ut_time.tm_year) + " " +
str(ut_time.tm_mon) + " " + str(ut_time.tm_mday) + " " +
str(ut_time.tm_hour) + ":" + str(ut_time.tm_min) + ":" +
str(ut_time.tm_sec) + "." + ut_msec[1] + "\t " +
str(row['gain']) + " \t " + str(row['integration']) +
" \t\t " + str(row['shift']))
gain = row['gain']
integration = row['integration']
shift = row['shift']
print "\n\r"
print "\n\r"
def format_output(self, value):
return np_round(value, self.decimal_places)
def predict(self, input_data):
raw_output = self.raw_predict(input_data)
return np_round(raw_output)
def survey():
"""Survey home page."""
N_SIMULATION_PERIODS = get_n_periods()
db = get_db()
user_data = db.execute(
"SELECT * FROM user WHERE id = ?",
(session["user_id"],)
).fetchone()
user_stage = user_data['current_stage']
simulation_period = user_data['simulation_period']
user_treatment_level = user_data['treatment_level']
display_dict = {}
if user_stage == 'simulation':
fig_url = \
blog_functions.get_fig_url(user_treatment_level, simulation_period)
experiment_data, rec_param_demand_data = \
blog_functions.get_experiment_data(
db, simulation_period, user_treatment_level)
rec_param_demand_data_cols = ['Q_rec', 'v', 'p']
display_dict.update({x: int(rec_param_demand_data[x].tolist()[0])
for x in rec_param_demand_data_cols})
show_recs = True
calc_decision_suffixes = ['_Q']
calc_decision_list = [
x + y for x in ['calc', 'decision'] for y in calc_decision_suffixes
]
display_dict.update(
{x: 0 for x in calc_decision_list})
display_dict.update(
{'calc_errors': [],
'calc_n_errors': 0,
'decision_errors': [],
'decision_n_errors': 0,
'expected_profit': 0}
)
# need an empty dataframe before history is made
temp_display_df_cols = ['Period',
'Ordered From Supplier',
'Demand',
'Profit ($)']
if ((simulation_period >= 2)
& (simulation_period <= N_SIMULATION_PERIODS)):
# get the relevant historical data and display it as a table
temp_exp_df = experiment_data.loc[
(experiment_data['ID'] == user_treatment_level)
& (experiment_data['Period'] < simulation_period)][
['Period', 'Demand']]
# now get the ful contracts table for this user
temp_user_contracts_df = read_sql_query(
"SELECT * FROM contracts WHERE user_id = "\
+ str(session["user_id"]), con=db
)
temp_display_df = temp_exp_df.merge(
temp_user_contracts_df,
how='left',
left_on='Period', right_on='simulation_period')
temp_display_df = blog_functions.get_contract_metrics(
temp_display_df,
display_dict['v'],
display_dict['p'],
'Demand',
'q'
)
temp_display_df.rename(
{'q': 'Ordered From Supplier',
'sales': 'Sales (Units)',
'lost_sales': 'Lost Sales (Units)',
'profit': 'Profit ($)'}, axis=1, inplace=True)
cols = ['Period', 'Demand',
'Ordered From Supplier',
'Profit ($)']
temp_display_df = temp_display_df[temp_display_df_cols]
else:
temp_display_df = DataFrame(columns=temp_display_df_cols)
if request.method == 'GET':
if user_stage == 'simulation':
if request.args.get('action') == 'Calculate':
validate = blog_functions.validate_input()
error_list = blog_functions.do_validate_instructions(
validate, display_dict, request, 'calc_Q', 'calc'
)
if len(error_list) == 0:
expected_profit = blog_functions.get_expected_profit(
int(display_dict['v']),
int(display_dict['p']),
int(request.args.get('calc_Q'))
)
display_dict.update({
'expected_profit': np_round(expected_profit, 2)
})
update_calculator_count = user_data['calculator_count'] + 1
db.execute("UPDATE user"
" SET calculator_count = ?"
" WHERE id = ?;",
(update_calculator_count,
session["user_id"]))
db.commit()
return render_template("blog/" + user_stage + ".html",
display_dict=display_dict,
simulation_period=simulation_period,
historical_table=temp_display_df.to_html(
index=False,
justify='left'),
fig_url=fig_url,
show_recs=show_recs)
if simulation_period <= N_SIMULATION_PERIODS:
return render_template("blog/" + user_stage + ".html",
display_dict=display_dict,
simulation_period=simulation_period,
historical_table=temp_display_df.to_html(
index=False,
justify='left'),
fig_url=fig_url,
show_recs=show_recs)
else:
db.execute("UPDATE user"
" SET current_stage = ?"
" WHERE id = ?;",
(shuttle_dict[user_stage], session["user_id"]))
db.commit()
if user_stage == 'risk':
return render_template("blog/" + user_stage + ".html",
question_dict=QUESTION_DICT,
risk_preference_dict=RISK_PREFERENCE_DICT)
if user_stage == 'risk_answer':
given_answer = RISK_PREFERENCE_DICT['RP9'][user_data['RP9']]
answer_list = ['You chose ' + given_answer + '.']
answer_list.extend(
['The computer chose ' + UNFORTUNATE_RP9[user_data['RP9']][0] \
+ ' points.'])
answer_list.extend(['If you would have chosen "' + \
RISK_PREFERENCE_DICT['RP9'][1 - user_data['RP9']] +
'", you would have won ' + \
UNFORTUNATE_RP9[user_data['RP9']][1] + ' points!'])
return render_template("blog/" + user_stage + ".html",
answer_list=answer_list)
return render_template("blog/" + user_stage + ".html")
if request.method == 'POST':
if user_stage == 'demographics':
gender = request.form.get('gender')
age = request.form.get('age')
sc = request.form.get('sc')
procurement = request.form.get('procurement')
db.execute("UPDATE user"
" SET gender = ?, age = ?, sc_exp = ?,"
" procurement_exp = ?, current_stage = ?"
" WHERE id = ?;",
(gender, age, sc, procurement,
shuttle_dict[user_stage], session["user_id"]))
db.commit()
if user_stage == 'cognitive':
db.execute("UPDATE user"
" SET CRT1 = ?, CRT2 = ?, CRT3 = ?,"
" CRT4 = ?, CRT5 = ?, CRT6 = ?, CRT7 = ?,"
" current_stage = ?, enter_simulation = ?"
" WHERE id = ?;",
(request.form.get("CRT1"),
request.form.get("CRT2"),
request.form.get("CRT3"),
request.form.get("CRT4"),
request.form.get("CRT5"),
request.form.get("CRT6"),
request.form.get("CRT7"),
shuttle_dict[user_stage],
datetime.now(),
session["user_id"]))
db.commit()
if user_stage == 'simulation':
if simulation_period <= N_SIMULATION_PERIODS:
validate = blog_functions.validate_input()
error_list = blog_functions.do_validate_instructions(
validate, display_dict, request, 'decision_Q', 'decision'
)
if len(error_list) == 0:
db.execute("INSERT INTO contracts"
"(user_id, simulation_period, q, time_stamp,"
" calculator_count)"
"VALUES (?, ?, ?, ?, ?);",
(session["user_id"],
simulation_period,
int(request.form.get('decision_Q')),
datetime.now(),
user_data['calculator_count'])
)
db.commit()
update_simulation_period = simulation_period + 1
if simulation_period < N_SIMULATION_PERIODS:
db.execute("UPDATE user"
" SET simulation_period = ?"
" WHERE id = ?",
(update_simulation_period,
session["user_id"]))
db.commit()
else:
# go to the risk survey
db.execute("UPDATE user"
" SET current_stage = ?"
" WHERE id = ?;",
(shuttle_dict[user_stage], session["user_id"]))
db.commit()
else:
return render_template("blog/" + user_stage + ".html",
display_dict=display_dict,
simulation_period=simulation_period,
historical_table=temp_display_df.to_html(
index=False,
justify='left'),
fig_url=fig_url,
show_recs=show_recs)
if user_stage == 'risk':
fin_answer_dict = {x: request.form.get(x)
for x in QUESTION_DICT.keys()
}
risk_answer_dict = {x: request.form.get(x)
for x in RISK_PREFERENCE_DICT.keys()
}
all_updates = [shuttle_dict[user_stage]]
all_updates.extend([int(fin_answer_dict[x])
for x in fin_answer_dict.keys()])
all_updates.extend([int(risk_answer_dict[x])
for x in risk_answer_dict.keys()])
all_updates.extend([session["user_id"]])
db.execute("UPDATE user"
" SET current_stage = ?,"
" Fin1 = ?, Fin2 = ?, Fin3 = ?, Fin4 = ?, Fin5 = ?, Fin6 = ?,"
" RP1 = ?, RP2 = ?, RP3 = ?, RP4 = ?, RP5 = ?, RP6 = ?,"
" RP7 = ?, RP8 = ?, RP9 = ?"
"WHERE id = ?;",
tuple(all_updates)
)
db.commit()
if user_stage == 'risk_answer':
answer = request.form.get('RP10')
db.execute("UPDATE user"
" SET current_stage = ?,"
" RP10 = ?"
"WHERE id = ?;",
(shuttle_dict[user_stage], answer, session["user_id"])
)
db.commit()
if user_stage == 'thankyou':
feedback = request.form.get('feedback_input')
db.execute("UPDATE user"
" SET feedback = ?, current_stage = ?"
" WHERE id = ?;",
(feedback, shuttle_dict[user_stage],
session["user_id"]))
db.commit()
session.clear()
return redirect(url_for("blog.survey"))
return redirect(url_for("blog.survey"))
def fmilo(array_):
np_round(multiply(array_ ,0.67328, array_), out=array_)
def kappa(y_true, y_pred, weights=None, allow_off_by_one=False,
min_rating=None,
max_rating=None):
"""
Calculates the kappa inter-rater agreement between two the gold standard
and the predicted ratings. Potential values range from -1 (representing
complete disagreement) to 1 (representing complete agreement). A kappa
value of 0 is expected if all agreement is due to chance.
In the course of calculating kappa, all items in `y_true` and `y_pred` will
first be converted to floats and then rounded to integers.
It is assumed that y_true and y_pred contain the complete range of possible
ratings.
This function contains a combination of code from yorchopolis's kappa-stats
and Ben Hamner's Metrics projects on Github.
:param y_true: The true/actual/gold labels for the data.
:type y_true: array-like of float
:param y_pred: The predicted/observed labels for the data.
:type y_pred: array-like of float
:param weights: Specifies the weight matrix for the calculation.
Options are:
- None = unweighted-kappa
- 'quadratic' = quadratic-weighted kappa
- 'linear' = linear-weighted kappa
- two-dimensional numpy array = a custom matrix of
weights. Each weight corresponds to the
:math:`w_{ij}` values in the wikipedia description
of how to calculate weighted Cohen's kappa.
:type weights: str or numpy array
:param allow_off_by_one: If true, ratings that are off by one are counted as
equal, and all other differences are reduced by
one. For example, 1 and 2 will be considered to be
equal, whereas 1 and 3 will have a difference of 1
for when building the weights matrix.
:type allow_off_by_one: bool
"""
from numpy import round as np_round
from numpy import empty as np_empty
from numpy import bincount,outer,count_nonzero
# Ensure that the lists are both the same length
assert(len(y_true) == len(y_pred))
y_true = np_round(y_true).astype(int)
y_pred = np_round(y_pred).astype(int)
# Figure out normalized expected values
if min_rating is None:
min_rating = min(min(y_true), min(y_pred))
if max_rating is None:
max_rating = max(max(y_true), max(y_pred))
# shift the values so that the lowest value is 0
# (to support scales that include negative values)
y_true = y_true - min_rating
y_pred = y_pred - min_rating
# Build the observed/confusion matrix
num_ratings = max_rating - min_rating + 1
#from sklearn.metrics import confusion_matrix
observed = confusion_matrix(y_true, y_pred,
labels=list(range(num_ratings)))
num_scored_items = float(len(y_true))
# Build weight array if weren't passed one
from six import string_types
if isinstance(weights, string_types):
wt_scheme = weights
weights = None
else:
wt_scheme = ''
if weights is None:
weights = np_empty((num_ratings, num_ratings))
for i in range(num_ratings):
for j in range(num_ratings):
diff = abs(i - j)
if allow_off_by_one and diff:
diff -= 1
if wt_scheme == 'linear':
weights[i, j] = diff
elif wt_scheme == 'quadratic':
weights[i, j] = diff ** 2
elif not wt_scheme: # unweighted
weights[i, j] = bool(diff)
else:
raise ValueError('Invalid weight scheme specified for '
'kappa: {}'.format(wt_scheme))
hist_true = bincount(y_true, minlength=num_ratings)
hist_true = hist_true[: num_ratings] / num_scored_items
hist_pred = bincount(y_pred, minlength=num_ratings)
hist_pred = hist_pred[: num_ratings] / num_scored_items
expected = outer(hist_true, hist_pred)
# Normalize observed array
observed = observed / num_scored_items
# If all weights are zero, that means no disagreements matter.
k = 1.0
if count_nonzero(weights):
k -= (sum(sum(weights * observed)) / sum(sum(weights * expected)))
return k
def format_output(self, value):
return np_round(value, self.decimal_places)
def round(x: Tensor, inplace=False) -> Tensor:
rounded = x if inplace else deepcopy(x)
rounded.name += ' (rounded)'
rounded.value = np_round(x.value)
return rounded
def predict(self, input_data):
raw_output = self.raw_predict(input_data)
return np_round(raw_output)
def predict_image(path_of_image, groupStage):
path_of_model = os_path.join("./CUSTOMIZE_4_USER/MODEL_TRAINING", groupStage, groupStage+".pth")
path_of_feature = os_path.join("./CUSTOMIZE_4_USER/MODEL_TRAINING", groupStage, groupStage+".npz")
hidden_path = os_path.join("./CUSTOMIZE_4_USER/MODEL_TRAINING", groupStage, groupStage+"_hidden.txt")
# if hidden number file is not existing, return 0
try:
with open(hidden_path,"r") as f:
hidden_size = int(f.readline())
except FileNotFoundError:
print("ERROR: No hidden number file in folder")
return 0.0,0
# Calculate processing time
start_time = time()
model = NeuralNet(input_size, hidden_size, num_classes).to(DEVICE)
model.load_state_dict(load(path_of_model))
data = np_load(path_of_feature)
[h_max, s_max, v_max] = data['data_max']
[h_min, s_min, v_min] = data['data_min']
img = imread(path_of_image)
img = resize(img, (6000,4000))
img = img[500:-500, 750:-750, :]
img = cvtColor(img, COLOR_BGR2HSV)
hchan, schan, vchan = split(img)
h_hist = calcHist([img], [0], None, [256], [0,256]).reshape(256,)
s_hist = calcHist([img], [1], None, [256], [0,256]).reshape(256,)
v_hist = calcHist([img], [2], None, [256], [0,256]).reshape(256,)
# 7 features consist of :
# + Compute mean value pixel of H channel
# + Dissilarity with H channel of "max" image
# + Dissilarity with H channel of "min" image
# + Compute mean value pixel of S channel
# + Dissilarity with S channel of "max" image
# + Dissilarity with S channel of "min" image
# + Correlation between histogram of H and S channel
hMean = np_mean(hchan)/255
DPV_h_max = np_sum(np_absolute(h_hist - h_max))/(HEIGHT*WIDTH)
DPV_h_min = np_sum(np_absolute(h_hist - h_min))/(HEIGHT*WIDTH)
sMean = np_mean(schan)/255
DPV_s_max = np_sum(np_absolute(s_hist - s_max))/(HEIGHT*WIDTH)
DPV_s_min = np_sum(np_absolute(s_hist - s_min))/(HEIGHT*WIDTH)
vMean = np_mean(vchan)/255
DPV_v_max = np_sum(np_absolute(v_hist - v_max))/(HEIGHT*WIDTH)
DPV_v_min = np_sum(np_absolute(v_hist - v_min))/(HEIGHT*WIDTH)
correlation = np_corrcoef(h_hist, s_hist)[0][1]
#image_feature = np_array((hMean, DPV_h_max, DPV_h_min, sMean, DPV_s_max, DPV_s_min, vMean, DPV_v_max, DPV_v_min))
image_feature = np_array((hMean, DPV_h_max, DPV_h_min, sMean, DPV_s_max, DPV_s_min, correlation))
image_feature = from_numpy(image_feature).to(DEVICE).float().view(1, input_size)
with no_grad():
out_predict = model(image_feature)
# Round xx.xx %
percentage_result = np_round(out_predict.item()*99, 2)
if percentage_result >99.99:
percentage_result = 99.99
if percentage_result <1.0:
percentage_result = 1.0
# Processed time
processedTime = np_round(time()-start_time, 2)
return percentage_result, processedTime
