def list_cache(args, core):
logging.debug('Dumping cache file %s', core.cache_file)
cache = core.get_cache_content()
header = ['Name', 'Fetched', 'Built', 'Installed', 'Root']
rows = list(map(lambda x: list(x.values()), cache))
if args.packages:
rows = list(filter(lambda x: x[0] in args.packages, rows))
if args.plain:
for values in rows:
line = ','.join(str(val) for val in values)
print(line)
else:
string = termtables.to_string(
rows,
header=header,
style=termtables.styles.ascii_thin_double,
padding=(0, 1),
alignment='lcccc',
)
if len(string.split('\n')) > 10 and not args.no_pager:
less(bytes(string, 'utf-8'))
else:
print(string)
def _get_report_card(df, func, report_each_source=True, decs=2):
"""
Gets a report card for a DataFrame using a specific function.
"""
labels, data = func(df, decs=decs)
data.insert(0, 'OVERALL')
data = [data]
if report_each_source:
for name in np.unique(df['source']):
_df = df[df['source'] == name]
_, _data = func(_df, decs=decs)
_data.insert(0, name.upper())
data.append(_data)
# transposing data so each column has the source and its metrics
data = list(map(list, zip(*data)))
header = data.pop(0)
header.insert(0, 'METRIC')
for i in range(1, len(header)):
header[i] = _format_title(header[i], 16)
for l, d in zip(labels, data):
d.insert(0, l)
alignment = ["c" for _ in header]
alignment[0] = "l"
alignment = ''.join(alignment)
report_card = termtables.to_string(data,
header=header,
padding=(0, 1),
alignment=alignment)
return report_card
def displayRental():
g = Gui()
# a ajouter avant where
query = "SELECT * FROM location_personne INNER JOIN search_biens ON bien_immobilier_id = search_biens.bien_id WHERE location_personne.date_arrivee > NOW() AND location_personne.estConfirme IS NULL AND personne_id = {}".format(
g.user.id)
logging.debug(query)
locations = getQueryRes(query)
headerBiens = [
"Cap. person.", "Taille (m²)", "type_bien", "Description", "Rue",
"Commune", "Etat", "date arrivee", "date depart"
]
biens = []
for location in locations:
biens.append([
location["capacite"], location["taille"], location["type_bien"],
location["description"], location["rue"], location["commune"],
location["etat"], location["date_arrivee"], location["date_depart"]
])
if biens:
print(
tt.to_string(
data=biens,
header=headerBiens,
style=tt.styles.ascii_thin_double,
))
input("Appuyez sur une touche")
return True
def initial_guess(self) -> None:
""" Find an inital guess for normalization parameters
Uses guess of normalizer_nld and corresponding normalization of gsf
Returns:
The arguments used for chi^2 minimization and the
minimizer.
"""
normalizer_nld = self.normalizer_nld
normalizer_gsf = self.normalizer_gsf
args_nld, guess = normalizer_nld.initial_guess()
[A, alpha, T, Eshift] = [guess["A"], guess["alpha"],
guess["T"], guess["Eshift"]]
nld = normalizer_nld.nld.transform(A, alpha, inplace=False)
nld_model = lambda E: normalizer_nld.model(E, T=T, Eshift=Eshift) # noqa
normalizer_gsf.normalize(nld=nld, nld_model=nld_model, alpha=alpha)
guess["B"] = normalizer_gsf.res.pars["B"][0]
guess_print = copy.deepcopy(guess)
self.LOG.info("DE results/initial guess:\n%s",
tt.to_string([list(guess_print.values())],
header=['A', 'α [MeV⁻¹]', 'T [MeV]',
'Eshift [MeV]', 'B']))
return args_nld, guess
def show_payment(id):
row = ''
conn = sqlite3.connect(os.path.join('src/db/', 'db.wallet.db'))
c = conn.cursor()
temp = c.execute(
"select category,amount,datetime from asset where user_fk =?", [id])
zero = []
for row in temp:
zero.append(row)
if type(row) == str:
print("\nNothing Found ! (NO PAYMENT)\n")
conn.commit()
conn.close()
return False
else:
for i in range(len(zero)):
zero[i] = (i + 1, ) + zero[i]
tbl_info = tt.to_string(
zero,
header=["No.", "Category", "Cost", "Date"],
style=tt.styles.ascii_thin_double,
)
print(tbl_info, '\n')
conn.commit()
conn.close()
def print_most_frequent_words(frequent_words):
header = ['words', 'frequency']
string = tt.to_string(frequent_words,
header=header,
style=tt.styles.thin_thick,
alignment='c')
print(string)
def test_escape_sequences():
data = [["key", "\033[31mred\033[0m"]]
string = tt.to_string(data)
print(string)
assert string == "\n".join(
["┌─────┬─────┐", "│ key │ \033[31mred\033[0m │", "└─────┴─────┘"])
def get_table(dict_list: Union[List[Dict], Dict], header: List[str]):
rows = []
if isinstance(dict_list, dict):
dict_list = [dict_list]
for obj in dict_list:
rows.append(list(obj.values()))
return termtables.to_string(rows, header=header)
def fixed_probability_score(results_for_all_batches, unknowness_threshold=0.5):
UDA = []
OCA = []
CCA = []
table_data = []
threshold_scores = []
logger.critical(
f"Evaluation at fixed probability score of {unknowness_threshold}")
for batch_no in sorted(results_for_all_batches.keys())[:-1]:
unknown_classes = (
set(results_for_all_batches[batch_no].keys()) -
set(results_for_all_batches[batch_no]['classes_order']) -
{'classes_order'})
unknown_classes = np.array(list(unknown_classes))
current_batch_scores = []
current_batch_gt = []
current_batch_prediction = []
scores_order = np.array(
results_for_all_batches[batch_no]['classes_order'])
for test_cls in list(
set(results_for_all_batches[batch_no].keys()) -
{'classes_order'}):
max_scores = torch.max(results_for_all_batches[batch_no][test_cls],
dim=1)
current_batch_scores.extend(max_scores.values.tolist())
current_batch_prediction.extend(
scores_order[max_scores.indices].tolist())
current_batch_gt.extend([test_cls] * max_scores.values.shape[0])
current_batch_scores, CCA_correct, UDA_correct, OCA_correct = eval_data_prep(
current_batch_scores, current_batch_prediction, current_batch_gt,
unknown_classes)
UDA.append(
UDA_correct[current_batch_scores >= unknowness_threshold][-1] *
100.)
OCA.append(
OCA_correct[current_batch_scores >= unknowness_threshold][-1] *
100.)
CCA.append(
CCA_correct[current_batch_scores >= unknowness_threshold][-1] *
100.)
threshold_scores.append(current_batch_scores[
current_batch_scores >= unknowness_threshold][-1])
table_data.append(
(batch_no, f"{threshold_scores[-1]:.3f}", f"{UDA[-1]:.2f}",
f"{OCA[-1]:.2f}", f"{CCA[-1]:.2f}"))
table_data.append(("Average", "", f"{np.mean(UDA):.2f}",
f"{np.mean(OCA):.2f}", f"{np.mean(CCA):.2f}"))
table_data_str = tt.to_string(
table_data,
header=["Batch No", "Score", "UDA", "OCA", "CCA"],
style=tt.styles.rounded_thick,
alignment="ccccc",
padding=(0, 1))
logger.warning("\n" + table_data_str)
return UDA, OCA, CCA
def initial_guess(
self,
limit_low: Optional[Tuple[float, float]] = None,
limit_high: Optional[Tuple[float, float]] = None
) -> Tuple[Tuple[float, float, float, float], Dict[str, float]]:
""" Find an inital guess for the constant, α, T and D₀
Uses differential evolution to perform the guessing.
Args:
limit_low: The limits (start, stop) where to normalize
to discrete levels.
limit_high: The limits (start, stop) where to normalize to
a theoretical model and neutron separation energy at high
energies.
Returns:
The arguments used for chi^2 minimization and the
minimizer.
"""
limit_low = self.self_if_none(limit_low)
limit_high = self.self_if_none(limit_high)
bounds = list(self.bounds.values())
spinParsstring = json.dumps(self.norm_pars.spincutPars,
indent=4,
sort_keys=True)
self.LOG.debug("Using bounds %s", bounds)
self.LOG.debug("Using spincutModel %s", self.norm_pars.spincutModel)
self.LOG.debug("Using spincutPars %s", spinParsstring)
nld_low = self.nld.cut(*limit_low, inplace=False)
discrete = self.discrete.cut(*limit_low, inplace=False)
nld_high = self.nld.cut(*limit_high, inplace=False)
nldSn = self.nldSn_from_D0(**self.norm_pars.asdict())[1]
rel_uncertainty = self.norm_pars.D0[1] / self.norm_pars.D0[0]
nldSn = np.array([nldSn, nldSn * rel_uncertainty])
def neglnlike(*args, **kwargs):
return -self.lnlike(*args, **kwargs)
args = (nld_low, nld_high, discrete, self.model, self.norm_pars.Sn[0],
nldSn)
res = differential_evolution(neglnlike, bounds=bounds, args=args)
self.LOG.info(
"DE results:\n%s",
tt.to_string([res.x.tolist()],
header=['A', 'α [MeV⁻¹]', 'T [MeV]', 'Eshift [MeV]']))
p0 = dict(zip(["A", "alpha", "T", "Eshift"], (res.x).T))
return args, p0
def rentals_before():
Page.clear()
g = Gui()
current_user = g.user
logging.debug("Current user id %s", current_user.id)
#Print my buildings
cursor = db.cursor(dictionary=True)
query = "SELECT *, location.id location_id, location.date_arrivee, DATE_ADD(location.date_arrivee, INTERVAL location.duree DAY) as date_depart FROM location_prioprietaire INNER JOIN location on location.bien_immobilier_id = location_prioprietaire.bien_id WHERE proprietaire_id = {} AND estConfirme = 1 AND location.date_arrivee < DATE(NOW())".format(
current_user.id)
logging.debug("QUERY: %s", query)
cursor.execute(query)
my_rentals = cursor.fetchall()
db.commit()
logging.debug("LOCATION EN ATTENTE : %s", my_rentals)
headers = [
"id", "Type de bien", "description", "addresse", "date arrivée",
"date départ"
]
def build_addresse(ad):
if ad is None:
return ""
return "" + ad["rue"] + " " + ad["numero"] + " " + ad[
"etat"] + "(" + ad["commune"] + ")"
data = list(
map(
lambda x: (x["bien_id"], x["type_bien"], x["description"][:20],
build_addresse(x), x["date_arrivee"], x["date_depart"]),
my_rentals))
if len(data) <= 0:
data = [["" for i in range(len(headers))]]
string = tt.to_string(
data,
header=headers,
style=tt.styles.ascii_thin_double,
)
print(string)
#Actions on buildings
mapping_actions = {"Retour": "return"}
actions = [
inquirer.List("action",
message="Que voulez vous faire?",
choices=["Retour"])
]
action = inquirer.prompt(actions)
logging.debug("CHOOSING TO DO %s ON BUILDING", action)
if action is None or "action" not in action.keys():
return False
action = mapping_actions[action["action"]]
if action == "return":
return False
def print_table(arr):
table = tt.to_string(arr,
header=[
'Pos', 'Country',
colored('Infected', 'yellow'),
colored('Deaths', 'red'),
colored('Recovered', 'green')
],
style=tt.styles.ascii_thin_double,
alignment="c")
print(table)
def tabelaCores():
titulo = ["", "CORES"]
cores = []
for i, cor in enumerate(dados.coresFixas):
cores.append([i + 1, cor])
listaCores = tt.to_string(cores,
header=titulo,
style=tt.styles.ascii_thin_double)
print("\n" + listaCores + "\n")
def tabelaModelos():
titulo = ["", "MODELOS"]
modelos = []
for i, modelo in enumerate(dados.modelosFixos):
modelos.append([i + 1, modelo])
menuModelos = tt.to_string(modelos,
header=titulo,
style=tt.styles.ascii_thin_double)
print(Fore.GREEN + "\n" + menuModelos + "\n")
def ShowTable(self):
## Reference the data count
dataCount = len(self.Data)
## Check if there is any data to show
if dataCount < 1:
Display.Print("There isn't any data to show")
return
## Calculate the page amount
pageCount = max(dataCount / self.showAmount, 1)
idx = 0 ## Initial index
startIdx = self.showAmount * self.page ## Starting index
startIdx = startIdx if startIdx < dataCount else 0 ## Starting index
endIdx = startIdx + self.showAmount ## Ending index
endIdx = endIdx if dataCount > endIdx else dataCount ## Ending index
localSelectedIndex = ((self.selectedIndex - 1) % self.showAmount) + 1
## Create the data table item list
dataTableItemList = []
for i in range(int(startIdx), int(endIdx)):
## Reference the data item by index
dataItem = self.Data[i]
## Create the data item list
dataItemList = []
## Increase the local index
idx += 1
## Append the index selection status
dataItemList.append("x" if idx == localSelectedIndex else "")
## Append the data items for the selection and fill the data list
for item in dataItem:
dataItemList.append(item)
dataTableItemList.append(dataItemList)
## Generate the data table by list
self.table = table = termtables.to_string(
dataTableItemList,
header=self.Header,
style=termtables.styles.ascii_thin_double,
)
## Print the accounts data table
Display.Print(table)
## Show the table details
self.ShowNavigationLabel(self.page, self.selectedIndex)
def tabelaMenu():
menu = ["", "MENU"]
itens = [["0", "Sair"], ["1", "Cadastrar Tenis"], ["2", "Relatório Geral"],
["3", "Realizar Venda"], ["4", "Atualizar preços"],
["5", "Cadastrar cores"], ["6", "Exportar os dados"],
["7", "Importar os dados"]]
menuGeral = tt.to_string(itens,
header=menu,
style=tt.styles.ascii_thin_double)
print(Fore.RED + "\n" + menuGeral + "\n")
def tabelaVenda(modelo, numeracao, cor, quantidade):
topo = ["MODELO", "NUMERAÇÃO", "COR", "QUANTIDADE"]
linha = []
calculos.calculaEstoqueModelo()
linha.append([modelo, numeracao, cor, quantidade])
tabelaVenda = tt.to_string(linha,
header=topo,
style=tt.styles.ascii_thin_double)
print("\n" + tabelaVenda)
def tabelaNovasCores():
titulo = ["", "ATUALIZA"]
cores = []
for i, cor in enumerate(dados.novaCor):
cores.append([i + 1, cor])
listaCores = tt.to_string(cores,
header=titulo,
style=tt.styles.ascii_thin_double)
print("\n" + listaCores + "\n")
def tabelaOpcoes():
titulo = ["", "ATUALIZAR"]
op = []
opcoes = ["Por modelo", "Específico"]
for i, j in enumerate(opcoes):
op.append([i + 1, j])
listaOp = tt.to_string(op,
header=titulo,
style=tt.styles.ascii_thin_double)
print("\n" + listaOp)
def apply(self, raw: Matrix, response: Optional[Matrix] = None) -> Matrix:
"""Run unfolding
TODO: Use better criteria for terminating
"""
if response is not None:
self.R = response
self.raw = copy(raw)
# Set up the arrays
self.update_values()
unfolded_cube = np.zeros((self.num_iter, *self.r.shape))
chisquare = np.zeros((self.num_iter, self.r.shape[0]))
fluctuations = np.zeros((self.num_iter, self.r.shape[0]))
folded = np.zeros_like(self.r)
# Use u⁰ = r as initial guess
unfolded = self.r
for i in range(self.num_iter):
unfolded, folded = self.step(unfolded, folded, i)
unfolded_cube[i, :, :] = unfolded
chisquare[i, :] = self.chi_square(folded)
fluctuations[i, :] = self.fluctuations(unfolded)
if LOG.level >= logging.DEBUG:
chisq = np.mean(chisquare[i, :])
LOG.debug(f"Iteration {i}: Avg χ²/ν {chisq}")
# Score the solutions based on χ² value for each Ex bin
# and select the best one.
fluctuations /= self.fluctuations(self.r)
iscores = self.score(chisquare, fluctuations)
unfolded = np.zeros_like(self.r)
for iEx in range(self.r.shape[0]):
unfolded[iEx, :] = unfolded_cube[iscores[iEx], iEx, :]
if LOG.level >= logging.DEBUG:
print_array = np.column_stack((np.arange(len(self.raw.Ex)),
self.raw.Ex.astype(int), iscores))
LOG.debug(
"Selecting following iterations: \n%s",
tt.to_string(print_array, header=('i', 'Ex', 'iteration')))
if self.use_compton_subtraction:
unfolded = self.compton_subtraction(unfolded)
unfolded = Matrix(unfolded, Eg=self.raw.Eg, Ex=self.raw.Ex)
unfolded.state = "unfolded"
# These two lines feel out of place
# TODO: What they do and where they should be run is very unclear.
# Fix later.
unfolded.fill_negative(window_size=10)
unfolded.remove_negative()
return unfolded
def show_card(self) -> None:
"""
Вывод карты в консоль
:return:
"""
print(f'Карта игрока {self.name}')
print(tt.to_string(
data=self.card.preview(),
header=[],
alignment='c',
style=tt.styles.rounded_double
))
def test_noborder():
numpy.random.seed(0)
data = [
[["a", "bb", "ccc"]],
[[1, 2, 3], [613.23236243236, 613.23236243236, 613.23236243236]],
]
string = tt.to_string(data, style=None, padding=0)
assert (string == """a bb ccc
1 2 3
613.23236243236613.23236243236613.23236243236""")
return
def printMetricsTable(arr):
"""
Print a nice table of the evaluation metrics
"""
import termtables as tt
strategy, precision, recall, F1Score = arr
precision, recall, F1Score = round(precision,
2), round(recall, 2), round(F1Score, 2)
string = tt.to_string(
[[strategy, precision, recall, F1Score]],
header=["Strategy", "Precision", "Recall", "F1Score"],
style=tt.styles.ascii_thin_double)
print(string)
def test_table_alignment():
numpy.random.seed(0)
data = [[1, 2, 3], [613.23236243236, 613.23236243236, 613.23236243236]]
string = tt.to_string(data, style=tt.styles.ascii_thin, alignment="lcr")
assert (
string == """+-----------------+-----------------+-----------------+
| 1 | 2 | 3 |
+-----------------+-----------------+-----------------+
| 613.23236243236 | 613.23236243236 | 613.23236243236 |
+-----------------+-----------------+-----------------+""")
return
def test_padding_0():
numpy.random.seed(0)
data = [[1, 2, 3], [613.23236243236, 613.23236243236, 613.23236243236]]
string = tt.to_string(data,
style=tt.styles.ascii_thin_double,
padding=0,
alignment="lcr")
ref = """+---------------+---------------+---------------+
|1 | 2 | 3|
+---------------+---------------+---------------+
|613.23236243236|613.23236243236|613.23236243236|
+---------------+---------------+---------------+"""
assert string == ref
string = tt.to_string(data,
style=tt.styles.ascii_thin_double,
padding=(0, ),
alignment="lcr")
assert string == ref
return
def output_movies_to_console(movies):
header = ['title', 'votes', 'rating']
movies_for_table = []
for movie in sorted(movies,
key=lambda movie: movie['rating'],
reverse=True):
movies_for_table.append(
[movie['title'], movie['votes'], movie['rating']])
string = tt.to_string(movies_for_table,
header=header,
style=tt.styles.thin_thick,
alignment='c')
print(string)
def test_table_mixed():
numpy.random.seed(0)
data = [[0, 0.123], [1, 2.13], [2, 613.2323]]
string = tt.to_string(data, style=tt.styles.ascii_thin)
assert (string == """+---+----------+
| 0 | 0.123 |
+---+----------+
| 1 | 2.13 |
+---+----------+
| 2 | 613.2323 |
+---+----------+""")
return
def lista():
topo = ["MODELO", "NUMERAÇÃO", "QUANTIDADE", "COR", "VALOR UNIDADE", "VALOR ESTOQUE"]
listas = [] # lista criada pra gerar a tabela conforme doc da lib
calculos.calculaEstoqueModelo()
for i in range(len(dados.lstModelo)):
listas.append([dados.lstModelo[i], dados.lstNumeracao[i], dados.lstQtd[i],
dados.lstCor[i], dados.lstValorUnit[i], dados.lstValorEstoque[i]])
tabelaRelatorio = tt.to_string(
listas,
header=topo,
style=tt.styles.ascii_thin_double
)
print("\n" + tabelaRelatorio)
def print_fold_info(args, index, optimizing, x_test, x_train_fold, x_val, y_test, y_train_fold, y_val):
# print some information
if optimizing is False and args.verbose:
print("Split %d..." % index)
print(tt.to_string([
[
"%d items, 0: %d, 1: %d" % (len(x_train_fold),
len(y_train_fold) - np.count_nonzero(y_train_fold),
np.count_nonzero(y_train_fold)),
"%d data points, 0: %d, 1: %d" % (len(x_val), len(y_val) - np.count_nonzero(y_val),
np.count_nonzero(y_val)),
"%d items, 0: %d, 1: %d" % (len(x_test), len(y_test) - np.count_nonzero(y_test),
np.count_nonzero(y_test))
]
], ["Train", "Validation", "Test"], alignment="lll"))
def test_header():
header = ["a", "bb", "ccc"]
data = [[1, 2, 3], [613.23236243236, 613.23236243236, 613.23236243236]]
string = tt.to_string(data, header, alignment="lcr")
assert (
string == """┌─────────────────┬─────────────────┬─────────────────┐
│ a │ bb │ ccc │
╞═════════════════╪═════════════════╪═════════════════╡
│ 1 │ 2 │ 3 │
├─────────────────┼─────────────────┼─────────────────┤
│ 613.23236243236 │ 613.23236243236 │ 613.23236243236 │
└─────────────────┴─────────────────┴─────────────────┘""")
return
