class WeatherForecast(object):
url_base = "http://api.wunderground.com/api/"
url_service = {"forecast": "/forecast/q/"}
def __init__(self, api_key):
super(WeatherForecast, self).__init__()
self.api_key = api_key
self.predict = Prediction()
self.result = []
def forecast(self, location, country):
# Download web
url = WeatherForecast.url_base + self.api_key + WeatherForecast.url_service["forecast"] \
+ country + "/" + location + ".json"
f = requests.get(url)
data_json = json.loads(f.text)
return self.process_data(data_json["forecast"])
def process_data(self, data_json):
for values in data_json["simpleforecast"]["forecastday"]:
listatemp = []
listatemp.append(values["date"]["weekday"])
listatemp.append(
"In the day: " +
self.predict.get_predict_forecast(values["high"]["celsius"]))
listatemp.append(
"In the night: " +
self.predict.get_predict_forecast(values["low"]["celsius"]))
self.result.append(listatemp)
return self.result
def test_basic_intersect(self):
prediction1 = Prediction({"p1": .5, "p2": .5})
prediction2 = Prediction({"p3": .5, "p4": .5})
intersect_pred = prediction1.intersect(prediction2, None,
DummyPredGetter())
self.assertEquals(sum(intersect_pred.values()), 1)
self.assertTrue(all((val == .25 for val in intersect_pred.values())))
def createOutpuDataOfAlgortim(filename,
name_columns_of_valid_features):
predict_algor = Prediction(filename,
name_columns_of_valid_features,
all_features)
text_algor = predict_algor.getTextPredict()
predict_proba_algor = predict_algor.getPredictProba()
return predict_algor, text_algor, predict_proba_algor
def main(argv):
if argv[1] == 'train_process':
get_data()
data_preparation = DataPreparation()
data_preparation.generate_data_for_model()
train_model = Train()
train_model.compute_locations_models()
prediction = Prediction()
prediction.get_models()
create_dashboard(prediction)
def predict():
model = request.args.get('model')
text = request.args.get('text')
if model == "sentiment":
prediction = Prediction(sentiment_clf, model, text)
elif model == "sarcasm":
prediction = Prediction(sarcasm_clf, model, text)
else:
print("ERROR: {} model not recognized".format(model))
return render_template('prediction.html', prediction=prediction)
def predict(self):
sat = str(self.tbChooseSatellite.currentText())
tle = self.tles[sat]
with open("temp_tle.txt", "w") as f:
f.write(tle + "\n")
location = str(self.tbLocation.itemData(
self.tbLocation.currentIndex()))
satellite = Satellite(sat, tle, location)
self.prediction = Prediction(satellite)
self.prediction.show()
def _accuracy(self, data):
'''
Returns the accuracy of the network on the given PairedData
-- data: PairedData object
'''
N_GUESSES = 3 # this is the number of guesses we make
output = self.output_with_activation(data.X)
prediction = Prediction(output)
P = prediction.most_likely(N_GUESSES)
Y = data.Y
return np.mean(np.sum(np.multiply(P, Y), axis=0))
def readImage():
predictions, probabilities = prediction.predictImage(os.path.join(
execution_path, "cat.jpg"),
result_count=5)
predictionList = []
for eachPrediction, eachProbability in zip(predictions, probabilities):
predictionObj = Prediction(eachPrediction, eachProbability)
predictionObj.info()
predictionList.append(predictionObj)
return predictionList
def main_function():
if list(request.form.values())[0] == 'AxisBank':
pr = Prediction(
['AxisBank', ["#AxisBank", "#axisbank", "@axisBank", "@RBI"]])
pr.get_final_prediction()
output = 'Rs. {}'.format(round(pr.get_final_prediction()[0], 2))
else:
output = 'Not Available'
return render_template(
'index.html', prediction_text='Forecasted value is {}'.format(output))
def __init__(self, token):
logging.basicConfig(
format='%(asctime)s - %(name)s - %(levelname)s - %(message)s',
level=logging.INFO)
self.logger = logging.getLogger("log")
self.bot = Bot(token)
self.updater = Updater(token)
self.dispatcher = self.updater.dispatcher
start_handler = CommandHandler('start', self.start)
self.dispatcher.add_handler(start_handler)
info_handler = CommandHandler('info', self.info)
self.dispatcher.add_handler(info_handler)
feedbac_handler = CommandHandler('feedback', self.feedback)
self.dispatcher.add_handler(feedbac_handler)
insertion_handler = CommandHandler('insert', self.insert)
self.dispatcher.add_handler(insertion_handler)
self.dispatcher.add_handler(CallbackQueryHandler(self.button_clicked))
text_message_handler = MessageHandler(Filters.text, self.text_message)
self.dispatcher.add_handler(text_message_handler)
document_message_handler = MessageHandler(Filters.document,
self.document_message)
self.dispatcher.add_handler(document_message_handler)
self.dispatcher.add_handler(document_message_handler)
self.dispatcher.add_error_handler(self.error)
self.ner = Ner_Babel()
self.prediction = Prediction()
self.kb_interface = KB_interface()
self.text_processing = text_processing()
#O dicionario contem dicionarios que representam que tem o mesmo nome dos
# metodos que requisitam precionar de butão pelo usuario, esses dict possuem as
# variaveis uteis para lidar com essa ação.
# O callback_query do botao será então a identidicação desse estado e botão precionado
self.global_variables = {
"last_question": "",
"last_answer": "",
"main_entity": "",
"related_entity": "",
"ambiguos_entities": [],
"sugests_topics": {
"buttons": []
},
"ask_for_answer_evaluation": {
"buttons": ["P", "N"]
},
"sugests_question": {
"buttons": []
}
}
def main():
preprocess = Preprocess(data_file, nrows)
taxi_summary, L, A, T, p_pick, p_tran, r, t_drive, t_wait = preprocess.preprocess_data()
print("\n\nFeature Generation Completed .....")
print("\n\n ---- Top 10 rows ---- \n\n", taxi_summary.head())
prediction = Prediction()
prediction.MDP_Dynamic_Program(L, A, T, p_pick, p_tran, r, t_drive, t_wait)
print("\n\nStarting Revenue Prediction .....")
prediction.predict_revenue(taxi_summary)
class MainWindow(QtWidgets.QMainWindow, Ui_MainWindow):
def __init__(self):
QtWidgets.QMainWindow.__init__(self)
self.setupUi(self)
self.database = Database()
self.tles = self.database.get_tles()
self.fill_satellite_list()
self.fill_location_list()
self.tbTle.setText("https://www.celestrak.com/NORAD/elements/noaa.txt")
self.btnLoadTle.clicked.connect(self.load_tles)
self.btnPredict.clicked.connect(self.predict)
self.btnAddLocation.clicked.connect(self.open_location_chooser)
self.location_chooser = Location(self.database, self)
def load_tles(self):
self.database.insert_tles(self.tbTle.text())
self.tles = self.database.get_tles()
self.fill_satellite_list()
def fill_satellite_list(self):
self.tbChooseSatellite.clear()
tle_list = list(self.tles.keys())
self.tbChooseSatellite.addItems(tle_list)
def fill_location_list(self):
locations = self.database.get_locations()
location_names = [loc[1] for loc in locations]
location_coord = [loc[2] for loc in locations]
for i in range(len(location_names)):
self.tbLocation.addItem(location_names[i], location_coord[i])
def predict(self):
sat = str(self.tbChooseSatellite.currentText())
tle = self.tles[sat]
with open("temp_tle.txt", "w") as f:
f.write(tle + "\n")
location = str(self.tbLocation.itemData(
self.tbLocation.currentIndex()))
satellite = Satellite(sat, tle, location)
self.prediction = Prediction(satellite)
self.prediction.show()
def open_location_chooser(self):
self.location_chooser.show()
def processOpenPoseJsonData(self, personObject):
'''Callback run each time a new json position joints is received
'''
# Callback when openpose output received
rospy.loginfo('[OPENPOSE_JSON] received data:')
# Preprocess stream
h = self.currentImage.shape[0]
w = self.currentImage.shape[1]
json_positions = []
# Reconstruct a python dict to add imageSize on each person
for i in range(len(personObject.persons)):
bodyParts = []
for j in range(len(personObject.persons[i].body_part)):
bodyParts.append({
'x':
personObject.persons[i].body_part[j].x,
'y':
personObject.persons[i].body_part[j].y,
'confidence':
personObject.persons[i].body_part[j].confidence
})
json_positions.append({
"body_part": bodyParts,
"face_landmark": personObject.persons[i].face_landmark,
"image_size": {
"width": w,
"height": h
}
})
# Predict classes
predictionObject = Prediction()
data = predictionObject.preprocess(json_positions)
predictions = predictionObject.predict(data)
predictions = predictionObject.predictClasses(data)
for i in range(len(predictions)):
print('Person %s' % str(i + 1) + ' - ' +
predictionObject.LABEL[predictions[i][0]])
self.postProcess(json_positions[i], int(predictions[i]))
ros_msg_image = self._bridge.cv2_to_imgmsg(self.currentImage, 'bgr8')
self._output_image_pub.publish(ros_msg_image)
def run(self, verbose):
# Training
predictor = Prediction(self.features, self.targets,
self.window_size, self.nef, self.max_experts)
for row_index in range(self.window_size,len(self.features)):
pred = predictor.makePrediction(row_index, verbose)
# make prediction (including risk management)
# update profit
# update stats
pass
def from_nextbus(cls, agency_tag, route_tag, direction_tag, stop_tag):
logging.info("from_nextbus@Estimation...")
etree = url.fetch_nextbus_url({ "a" : agency_tag, "command" : "predictions", "s" : stop_tag, "r" : route_tag.replace("__", " ")})
prediction_keys = [prediction.key for prediction in Prediction.from_nextbus(etree, agency_tag, route_tag, direction_tag, stop_tag)]
estimations = []
for elem in etree.findall("predictions"):
route_tag = elem.get("routeTag")
stop_tag = elem.get("stopTag")
agency_title = elem.get("agencyTitle")
route_title = elem.get("routeTitle")
stop_title = elem.get("stopTitle")
key = "%s@%s@%s@%s" % (agency_tag, route_tag, direction_tag, stop_tag)
e = Estimation(id = key, route_tag = route_tag, stop_tag = stop_tag, agency_title = agency_title, route_title = route_title, stop_title = stop_title, predictions = prediction_keys)
estimations.append(e)
try:
ndb.put_multi(estimations)
except CapabilityDisabledError:
# fail gracefully here
pass
return estimations
def compute_accuracy(predicted_classes, labels, threshold, distance, source_naming_list, \
target_indices, match_index, target_naming_list):
""" Compute the accuracy for classifying the source items as elements of targets.
"""
predictions = []
predicted_classes[np.squeeze(distance) > threshold] = -1
correct = np.equal(predicted_classes, labels)
try:
accuracy = sum(correct) / len(correct)
except ZeroDivisionError:
accuracy = 0.0
correct_targets = predicted_classes[target_indices] == labels[target_indices]
try:
targets_accuracy = sum(correct_targets) / len(correct_targets)
except ZeroDivisionError:
targets_accuracy = 0.0
for j in range(len(source_naming_list)):
tar_name = target_naming_list[match_index[j][0]].split('/')[-1] if predicted_classes[j] != -1 else '-1_'
dist = distance[j] if predicted_classes[j] != -1 else -1
if dist is None:
raise ValueError("Invalid distance")
new_prediction = Prediction(source_naming_list[j].split('/')[-1], dist,
0.0, correct[j], target_indices[j], tar_name)
predictions.append(new_prediction)
return accuracy, targets_accuracy, predictions
def predictAllSeriesCombined(self, instance): y_true, y_pred = [], [] for time_series_idx in range(instance.n_time_series): istsv = instance.getViewForTimeSeries(time_series_idx, self.time_sampler) y_true.extend(np.asarray(istsv.y).tolist()) y_pred.extend(np.asarray(self.correlation_metric(istsv).flatten()).tolist()) return Prediction(y_true, y_pred, self)
def __init__(self, name, costPerUnit, materialNames, materialQtys,
productionTime):
self.productId = self.__class__.globalProductId
self.__class__.globalProductId += 1
self.name = name
self.costPerUnit = costPerUnit
self.rawMatNames = materialNames
self.rawMatQtys = materialQtys
self.productionTime = productionTime
# self.salesData = SalesData(costPerUnit)
self.prediction = Prediction()
def make_prediction(fixture):
home_team = Team(fixture['homeTeam']['team_id'],
fixture['homeTeam']['team_name'],
fixture['homeTeam']['logo'])
away_team = Team(fixture['awayTeam']['team_id'],
fixture['awayTeam']['team_name'],
fixture['awayTeam']['logo'])
home_goals = predict_goals(home_team.home_atk, away_team.away_def,
league_averages['home_goals'])
away_goals = predict_goals(away_team.away_atk, home_team.home_def,
league_averages['away_goals'])
pred_home_goals, home_poisson = expected_value(home_goals)
pred_away_goals, away_poisson = expected_value(away_goals)
kickoff = datetime.strptime(fixture['event_date'],
"%Y-%m-%dT%H:%M:%S+00:00")
db_connector.post_prediction_to_db(home_team, away_team, pred_home_goals,
pred_away_goals, home_poisson,
away_poisson, kickoff)
return Prediction(home_team, away_team, pred_home_goals, pred_away_goals,
home_poisson, away_poisson, kickoff)
def predict(self, x, y_test=None):
""" Score """
logging.debug(self.predict.__name__)
logging.debug('self.params shape: {}'.format(self.params.shape))
values = x.dot(self.params)
mse = mean_squared_error(values,
y_test) if y_test is not None else None
return Prediction(values, mse)
def getPredictionList(self, predictionsTag):
self.predictionList = []
for directionTag in predictionsTag.findall('direction'):
for predictionTag in directionTag.findall('prediction'):
predictionTag.attrib['direction'] = directionTag.attrib[
'title']
self.predictionList.append(Prediction(predictionTag.attrib))
def _crop_image_helper(im, url, website, box, dest_folder, count, name="0"):
try:
count_value = count[0]
a = im.crop(box)
count_value = count_value + 1
file_name = "sliced-IMG-{0}-{1}.png".format(name, count_value)
file_path = os.path.join(dest_folder, file_name)
a.save(file_path)
predict = Prediction(url, file_path, file_name, website, True)
count[0] = count_value
if predict.predict(
) >= settings.stoping_threshold or count_value >= 50:
return False
return True
except Exception as e:
logging.exception(e.__str__())
return True
def begin_prediction(self):
try:
user, mode = self.get_active_user(), self.get_active_mode()
password = self.get_user_password(self.get_active_user(),
PasswordTypes(mode))
except configparser.NoOptionError:
print(
'Cannot begin prediction, password not set! User: {0}, Mode: {1}'
.format(user, mode))
exit(2)
print('''You are ready for the prediction {0}.
\nIn this session you will simply "login" by entering the password you set earlier.'''
.format(user))
muse = self.start_stream()
input('\nPress any key to begin...')
prediction = Prediction(user, mode, password)
prediction.start()
self.stop_stream(muse)
def display_page(pathname):
if pathname == '/dash-board':
return App()
elif pathname == '/prediction':
return Prediction()
elif pathname == '/report':
return Report()
else:
return Homepage()
def predictSingleSeries(self, instance, time_series_idx): ''' :param instance: an object of type Instance :param time_series_idx: which time_series to use for prediction :return: a prediction object ''' istsv = instance.getViewForTimeSeries(time_series_idx, self.time_sampler) y_pred = self.correlation_metric(istsv) return Prediction(istsv.y, y_pred, self)
def train():
if request.method == 'POST':
try:
intents_file = upload_file(request)
except Exception as e:
return "Error: {}".format(e)
if request.method == 'GET':
input_file = request.args.get('file')
intents_file = input_file if input_file else "intents.json"
ml = Train(intents_file, MODEL_DIR)
try:
ml.training()
ml_prediction = Prediction(MODEL_DIR)
ml_prediction.load_model()
return "Train is completed"
except Exception as e:
return "Traing is failed {}".format(str(e))
def find_common_lhs_part(self, seq_index, lhs, predictions):
for rule in sorted(self.simulator.rules_sets[seq_index],
key=lambda r: (r.get_rule_score()),
reverse=True):
if rule.lhs == lhs:
if rule.rhs in predictions:
predictions[rule.rhs].append(
Prediction(
rule.rhs, lhs, rule,
predictions[rule.rhs][-1].number_of_occurrences +
1))
else:
predictions[rule.rhs] = [
Prediction(rule.rhs, lhs, rule, 1)
]
# print("Adding to predictions", lhs, "==>", rule.rhs, "nr of rules supporting:", predictions[rule.rhs][-1].number_of_occurrences, "because of rule:\n", rule)
# print()
break
def __fake_predictions_generation(self) -> None:
for hour in range(24 * 360):
db_product = Prediction(
city_id=0,
timestamp=datetime.datetime.now() - datetime.timedelta(hours=24 * 360) + datetime.timedelta(hours=hour),
prediction=random.randint(1000, 3000),
)
self.__database.add(db_product)
self.__database.commit()
self.__database.refresh(db_product)
def predict():
log = Log()
msg = __name__ + '.' + utils.get_function_caller() + ' -> enter'
log.print(msg)
# get data
json_data = request.get_json(force=True)
msg = 'json_data: ', json_data
log.print(msg)
user_id = json_data['user_id']
random_state = 42
input_df = pd.json_normalize(json_data)
# save json_data and input_df for debugging purpose, save using unique name
json_data_unique_filename = config.PATH_TO_DATASET + utils.get_unique_filename(
'json_data.json')
input_df_unique_filename = config.PATH_TO_DATASET + utils.get_unique_filename(
'input_df.csv')
with open(json_data_unique_filename, 'w') as outfile:
json.dump(json_data, outfile)
input_df = input_df[list(config.ACCEPTABLE_COLUMNS)]
input_df.to_csv(input_df_unique_filename, index=False)
prediction = Prediction(user_id, input_df_unique_filename, random_state)
predictions, labels = prediction.predict()
result = {'prediction': int(predictions[0]), 'label': str(labels[0])}
#dummy
# result = {'prediction': 1, 'label': 'Good Loan'}
output = {'result': result}
output = result
msg = __name__ + '.' + utils.get_function_caller() + ' -> exit'
log.print(msg)
return jsonify(results=output)
def predict(self, instance): ''' :param instance: an object of type Instance :return: a prediction object ''' y_predictions = [] for time_series_idx in range(instance.n_time_series): istsv = instance.getViewForTimeSeries(time_series_idx, self.time_sampler) y_predictions.append(self.correlation_metric(istsv)) y_pred = self.combiner(y_predictions) return Prediction(instance.graph_adjecency_matrix, y_pred, self)
def webhook():
try:
ml_prediction
except NameError:
ml_prediction = Prediction(MODEL_DIR)
ml_prediction.load_model()
answer = ''
if request.method == 'POST':
try:
data = json.loads(request.data)
bot_id = data['recipient']['id']
bot_name = data['recipient']['name']
recipient = data['from']
service = data['serviceUrl']
sender = data['conversation']['id']
text = data['text']
bot.send_message(bot_id, bot_name, recipient, service, sender,
ml_prediction.response(text, sender))
except Exception as e:
print(e)
if request.method == 'GET':
question = request.args.get('q')
answer = ml_prediction.response(question if question else 'Hi')
return 'Code: 200. {}'.format(answer)
def infer(args):
with open(args.classifierModel, 'rb') as f:
if sys.version_info[0] < 3:
(le, clf) = pickle.load(f)
else:
(le, clf) = pickle.load(f, encoding='latin1')
preds = []
fold = args.imgs[0]
all_imgs = [
os.path.join(fold, file) for file in os.listdir(fold)
if os.path.isfile(os.path.join(fold, file))
]
for img in all_imgs:
print(img)
print("\n=== {} ===".format(img))
reps = getRep(img)
if len(reps) > 1:
print("List of faces in image from left to right")
for r in reps:
rep = r.reshape(1, -1)
start = time.time()
predictions = clf.predict_proba(rep).ravel()
maxI = np.argmax(predictions)
person = le.inverse_transform(maxI)
target_person = os.path.basename(img).split('_')[0]
confidence = predictions[maxI]
preds += [
Prediction(
filename=img,
correct=(target_person == int(person)),
true_class=target_person,
pred_class=int(person),
pred_yaw=0, #TODO,
pred_pitch=0, #TODO,
pred_roll=0, #TODO,
pred_pose=0, #TODO, # viewpoint
pred_illumination=0, #TODO,
pred_expression=0, #TODO,
distance=None,
confidence=confidence)
]
if args.verbose:
print("Prediction took {} seconds.".format(time.time() -
start))
print("Predict {} with {:.2f} confidence.".format(
person.decode('utf-8'), confidence))
if isinstance(clf, GMM):
dist = np.linalg.norm(rep - clf.means_[maxI])
print(" + Distance from the mean: {}".format(dist))
write_to_csv(preds, "openface")
def main():
"""
main path of execution
"""
# parse arguments
args = parseArguments()
# locate jpeg training images
files = glob.glob(os.path.join(args.data_path, 'images/*.jpg'))
if len(files) > 0:
# open first image to extract projection
ds = gdal.Open(files[0])
if ds is not None:
# create prediction object
obj = Prediction(args.model_pathname, args.out_pathname,
ds.GetProjection())
# compute inference and add detections to output shape file
for f in files:
obj.process(f, writeback=False)
# read shapefile
gdf = gpd.read_file(args.out_pathname)
# locate isolated features
bad_rows = []
for idx, row in gdf.iterrows():
if sum(gdf['geometry'].buffer(100).intersects(row['geometry'])) < 5:
bad_rows.append(idx)
# drop isolated features
gdf = gdf.drop(bad_rows)
gdf.to_file(args.out_pathname.replace('.shp', '-update.shp'))
return
def main(data_to_predict_json):
print('### Delivery Time Prediction App ###')
pred = Prediction(data_to_predict_json)
pred.predict()