def checkSensor(self):
gv = self.gameVar
try:
self.ser.write(gv.sendArduino().encode())
line = self.ser.readline()
gv.interprete(line.decode('utf-8').rstrip())
except Exception as e:
self.gameVar.error = str(e)
if not gv.defaite and not gv.pause and not gv.stressMode:
Simon.checkSimon(self)
Fils.checkFils(self)
Symbole.checkSymbole(self)
checkBouton(self)
if gv.stressMode and gv.stressModeStarted:
StressMode.checkStressMode(self)
def SLOT_start(self):
# disable difficulty selection
self.enableDifficultyButtons(False)
# create Simon Says back-end thread
self.simonThread = Simon.SimonSays(self.difficulty)
# connect Simon Says thread signals to main thread methods
self.simonThread.flash.connect(self.flashBtn)
self.simonThread.delay.connect(self.runDelayTimer)
self.simonThread.sound.connect(self.playSound)
self.simonThread.revert.connect(self.styleBtn)
self.simonThread.setStatus.connect(self.status.showMessage)
self.simonThread.setMsgBar.connect(self.msgBar.setText)
self.simonThread.setWinTitle.connect(self.updateTitle)
self.simonThread.btnEnable.connect(self.enableButtons)
self.simonThread.finished.connect(self.enableDifficultyButtons)
# connect GUI button signals to Simon Says thread SLOTs
self.btn1.clicked.connect(self.simonThread.SLOT_btn1Clicked)
self.btn2.clicked.connect(self.simonThread.SLOT_btn2Clicked)
self.btn3.clicked.connect(self.simonThread.SLOT_btn3Clicked)
self.btn4.clicked.connect(self.simonThread.SLOT_btn4Clicked)
# run Simon Says thread
self.simonThread.start()
def start(self):
Fils.initFils(self.gameVar)
Symbole.initSymbole(self.gameVar)
Simon.initSimon(self.gameVar)
ScreenGame.paintButton(self)
self.timerBip = QtCore.QTimer()
self.timerBip.timeout.connect(self.bip)
self.timerBip.start(1000)
self.timer = QtCore.QTimer()
self.timer.timeout.connect(self.checkSensor)
self.timer.start(50)
self.timerLumiere = QtCore.QTimer()
self.timerLumiere.timeout.connect(
lambda: Simon.lumiereSimon(self.gameVar))
self.timerLumiere.start(500)
def runSimon(self):
pygame.mixer.music.stop()
simon = Simon.Simon()
self.__simonState = simon.runSimon(self.__mode)
if self.__simonState != 2:
self.__state = 3
self.__completed = True
try:
pygame.mixer.music.load('05-super-mario-64-main-theme.wav')
pygame.mixer.music.set_volume(.5)
pygame.mixer.music.play(-1)
except pygame.error as err:
print(err)
def __init__(self, container):
Frame.__init__(self, container)
self.play = False
self.music = True
self.commands = [
lambda: Simon.in_simon(), lambda: pong.in_pong(True),
lambda: pong.in_pong(False), lambda: speed.in_speed()
]
self.button = 0
self.button0 = None
self.button1 = None
self.button2 = None
self.button3 = None
self.menuSet()
def main(checkpoint, data_count, data_cols, should_train, nb_epoch, null_pct, try_reuse_data, batch_size, execution_config):
maxlen = 20
max_cells = 500
p_threshold = 0.5
# set this boolean to True to print debug messages (also terminate on *any* exception)
DEBUG = False
checkpoint_dir = "checkpoints/"
# basic preliminaries for database calls
store_name = 'nktraining'
adl = client.get_adl_client(store_name)
files = adl.ls('training-data/CKAN')
random.shuffle(files)
cnxn = gc.getConnection()
cursor = cnxn.cursor()
# make required database calls
out, out_array_header = FetchLabeledDataFromDatabase(max_cells, cursor, adl, DEBUG)
cnxn.close()
with open('Categories_base.txt','r') as f:
Categories = f.read().splitlines()
Categories = sorted(Categories)
category_count = len(Categories)
nx,ny = out.shape
if(DEBUG):
# orient the user a bit
print("read data is: ")
print(out)
print("fixed categories are: ")
print(Categories)
print("The size of the read raw data is %d rows by %d columns"%(nx,ny))
print("corresponding header length is: %d"%len(out_array_header))
#print(out_array_header)
# specify data for the transfer-learning experiment
raw_data = out[0:max_cells,:] #truncate the rows (max_cells)
header = out_array_header
# transpose the data
raw_data = np.char.lower(np.transpose(raw_data).astype('U'))
# do other processing and encode the data
if execution_config is None:
raise TypeError
Classifier = Simon(encoder={}) # dummy text classifier
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config['encoder']
checkpoint = config['checkpoint']
encoder.categories=Categories
# build classifier model
Classifier = Simon(encoder=encoder) # text classifier for unit test
model = Classifier.generate_transfer_model(maxlen, max_cells, category_count, category_count, checkpoint, checkpoint_dir)
model_compile = lambda m: m.compile(loss='binary_crossentropy',
optimizer='adam', metrics=['binary_accuracy'])
model_compile(model)
# encode the data and evaluate model
X, y = encoder.encode_data(raw_data, header, maxlen)
if(DEBUG):
print("DEBUG::y is:")
print(y)
print("DEBUG::The encoded labels (first row) are:")
print(y[0,:])
data = Classifier.setup_test_sets(X, y)
max_cells = encoder.cur_max_cells
start = time.time()
history = Classifier.train_model(batch_size, checkpoint_dir, model, nb_epoch, data)
end = time.time()
print("Time for training is %f sec"%(end-start))
config = { 'encoder' : encoder,
'checkpoint' : Classifier.get_best_checkpoint(checkpoint_dir) }
Classifier.save_config(config, checkpoint_dir)
Classifier.plot_loss(history) #comment out on docker images...
Classifier.evaluate_model(max_cells, model, data, encoder, p_threshold)
def main(execution_config, DEBUG):
maxlen = 20
max_cells = 500
p_threshold = 0.5
DEBUG = True # boolean to specify whether or not print DEBUG information
checkpoint_dir = "pretrained_models/"
with open('Categories.txt', 'r') as f:
Categories = f.read().splitlines()
# orient the user a bit
print("fixed categories are: ")
Categories = sorted(Categories)
print(Categories)
category_count = len(Categories)
# load specified execution configuration
if execution_config is None:
raise TypeError
Classifier = Simon(encoder={}) # dummy text classifier
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config['encoder']
checkpoint = config['checkpoint']
# read unit test data
dataset_name = "replicate_eval_error" # alternatively, o_38 or o_185
if (DEBUG):
print("DEBUG::BEGINNING UNIT TEST...")
frame = pd.read_csv('unit_test_data/' + dataset_name + '.csv',
dtype='str',
header=None)
X = encoder.encodeDataFrame(frame)
# build classifier model
model = Classifier.generate_model(maxlen, max_cells, category_count)
Classifier.load_weights(checkpoint, None, model, checkpoint_dir)
model_compile = lambda m: m.compile(loss='binary_crossentropy',
optimizer='adam',
metrics=['binary_accuracy'])
model_compile(model)
y = model.predict(X)
# discard empty column edge case
y[np.all(frame.isnull(), axis=0)] = 0
result = encoder.reverse_label_encode(y, p_threshold)
## LABEL COMBINED DATA AS CATEGORICAL/ORDINAL
print("Beginning Guessing categorical/ordinal classifications...")
start_time_guess = time.time()
category_count = 0
ordinal_count = 0
raw_data = frame.as_matrix()
for i in np.arange(raw_data.shape[1]):
tmp = guess(raw_data[:, i], for_types='category')
if tmp[0] == 'category':
category_count += 1
tmp2 = list(result[0][i])
tmp2.append('categorical')
result[0][i] = tuple(tmp2)
result[1][i].append(1)
if ('int' in result[1][i]) or ('float' in result[1][i]) \
or ('datetime' in result[1][i]):
ordinal_count += 1
tmp2 = list(result[0][i])
tmp2.append('ordinal')
result[0][i] = tuple(tmp2)
result[1][i].append(1)
elapsed_time = time.time() - start_time_guess
print("Total statistical variable guessing time is : %.2f sec" %
elapsed_time)
## FINISHED LABELING COMBINED DATA AS CATEGORICAL/ORDINAL
print("The predicted classes and probabilities are respectively:")
print(result)
def main(checkpoint, data_count, data_cols, should_train, nb_epoch, null_pct,
try_reuse_data, batch_size, execution_config):
maxlen = 20
max_cells = 500
p_threshold = 0.5
# set this boolean to True to print debug messages (also terminate on *any* exception)
DEBUG = False
checkpoint_dir = "checkpoints/"
# basic preliminaries for database calls
store_name = 'nktraining'
adl = client.get_adl_client(store_name)
files = adl.ls('training-data/CKAN')
random.shuffle(files)
cnxn = gc.getConnection()
cursor = cnxn.cursor()
# make required database calls
out, out_array_header = FetchLabeledDataFromDatabase(
max_cells, cursor, adl, DEBUG)
cnxn.close()
with open('Categories_base_stat.txt', 'r') as f:
Categories = f.read().splitlines()
Categories = sorted(Categories)
category_count = len(Categories)
nx, ny = out.shape
if (DEBUG):
# orient the user a bit
print("read data is: ")
print(out)
print("fixed categories are: ")
print(Categories)
print("The size of the read raw data is %d rows by %d columns" %
(nx, ny))
print("corresponding header length is: %d" % len(out_array_header))
#print(out_array_header)
# specify data for the transfer-learning experiment
raw_data = out[0:max_cells, :] #truncate the rows (max_cells)
#read "post-processed" header from file, this includes categorical and ordinal classifications...
# with open('datalake_labels','r',newline='\n') as myfile:
# reader = csv.reader(myfile, delimiter=',')
# header = []
# for row in reader:
# header.append(row)
# OR
header = out_array_header
## LABEL COMBINED DATA AS CATEGORICAL/ORDINAL
start_time_guess = time.time()
guesses = []
print("Beginning Guessing categorical/ordinal for datalake data...")
category_count = 0
ordinal_count = 0
for i in np.arange(raw_data.shape[1]):
tmp = guess(raw_data[:, i], for_types='category')
if tmp[0] == 'category':
category_count += 1
header[i].append('categorical')
if ('int' in header[i]) or ('float' in header[i]) \
or ('datetime' in header[i]):
ordinal_count += 1
header[i].append('ordinal')
guesses.append(tmp)
if (DEBUG):
#print(guesses)
#print(len(guesses))
print("DEBUG::The number of categorical columns is %d" %
category_count)
print("DEBUG::The number of ordinal columns is %d" % ordinal_count)
#print(header)
elapsed_time = time.time() - start_time_guess
print("Total guessing time is : %.2f sec" % elapsed_time)
## FINISHED LABELING COMBINED DATA AS CATEGORICAL/ORDINAL
# transpose the data
raw_data = np.char.lower(np.transpose(raw_data).astype('U'))
# do other processing and encode the data
if execution_config is None:
raise TypeError
Classifier = Simon(encoder={}) # dummy text classifier
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config['encoder']
checkpoint = config['checkpoint']
encoder.categories = Categories
# build classifier model
Classifier = Simon(encoder=encoder) # text classifier for unit test
model = Classifier.generate_transfer_model(maxlen, max_cells,
category_count - 2,
category_count, checkpoint,
checkpoint_dir)
model_compile = lambda m: m.compile(loss='categorical_crossentropy',
optimizer='adam',
metrics=['binary_accuracy'])
model_compile(model)
# encode the data and evaluate model
X, y = encoder.encode_data(raw_data, header, maxlen)
if (DEBUG):
print("DEBUG::y is:")
print(y)
print("DEBUG::The encoded labels (first row) are:")
print(y[0, :])
data = Classifier.setup_test_sets(X, y)
max_cells = encoder.cur_max_cells
start = time.time()
history = Classifier.train_model(batch_size, checkpoint_dir, model,
nb_epoch, data)
end = time.time()
print("Time for training is %f sec" % (end - start))
config = {
'encoder': encoder,
'checkpoint': Classifier.get_best_checkpoint(checkpoint_dir)
}
Classifier.save_config(config, checkpoint_dir)
Classifier.plot_loss(history) #comment out on docker images...
Classifier.evaluate_model(max_cells, model, data, encoder, p_threshold)
def _produce_annotations(self, *, inputs: Inputs) -> Outputs:
"""
Parameters
----------
inputs: Input pandas frame
Returns
-------
Outputs
The outputs is two lists of lists, each has length equal to number of columns in input pandas frame.
Each entry of the first one is a list of strings corresponding to each column's multi-label classification.
Each entry of the second one is a list of floats corresponding to prediction probabilities.
"""
frame = inputs
# setup model as you typically would in a Simon main file
maxlen = 20
max_cells = 500
p_threshold = 0.5
DEBUG = True # boolean to specify whether or not print DEBUG information
checkpoint_dir = self.volumes["simon_models_1"]+"/pretrained_models/"
if 'statistical_classification' in self.hyperparams.keys() and self.hyperparams['statistical_classification']:
execution_config = "Base.pkl"
category_list = "/Categories.txt"
else:
execution_config = "Base_stat_geo.pkl"
category_list = "/Categories_base_stat_geo.txt"
with open(self.volumes["simon_models_1"]+ category_list,'r') as f:
Categories = f.read().splitlines()
# orient the user a bit
print("fixed categories are: ")
Categories = sorted(Categories)
print(Categories)
category_count = len(Categories)
# load specified execution configuration
if execution_config is None:
raise TypeError
Classifier = Simon(encoder={}) # dummy text classifier
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config['encoder']
checkpoint = config['checkpoint']
X = encoder.encodeDataFrame(frame)
# build classifier model
model = Classifier.generate_model(maxlen, max_cells, category_count)
Classifier.load_weights(checkpoint, None, model, checkpoint_dir)
model_compile = lambda m: m.compile(loss='binary_crossentropy',
optimizer='adam', metrics=['binary_accuracy'])
model_compile(model)
y = model.predict(X)
# discard empty column edge case
y[np.all(frame.isnull(),axis=0)]=0
result = encoder.reverse_label_encode(y,p_threshold)
## LABEL COMBINED DATA AS CATEGORICAL/ORDINAL
category_count = 0
ordinal_count = 0
raw_data = frame.as_matrix()
for i in np.arange(raw_data.shape[1]):
if 'statistical_classification' in self.hyperparams.keys() and self.hyperparams['statistical_classification']:
print("Beginning Guessing categorical/ordinal classifications...")
tmp = guess(raw_data[:,i], for_types ='category')
if tmp[0]=='category':
category_count += 1
tmp2 = list(result[0][i])
tmp2.append('categorical')
result[0][i] = tmp2
result[1][i].append(1)
if ('int' in result[1][i]) or ('float' in result[1][i]) \
or ('datetime' in result[1][i]):
ordinal_count += 1
tmp2 = list(result[0][i])
tmp2.append('ordinal')
result[0][i] = tmp2
result[1][i].append(1)
print("Done with statistical variable guessing")
## FINISHED LABELING COMBINED DATA AS CATEGORICAL/ORDINAL
result[0][i] = d3m_List(result[0][i])
result[1][i] = d3m_List(result[1][i])
Classifier.clear_session()
out_df = pandas.DataFrame.from_records(list(result)).T
out_df.columns = ['semantic types','probabilities']
return out_df
def runModel(self, frame, p_threshold):
# setup model as you typically would in a Simon main file
maxlen = 20
max_cells = 500
p_threshold = 0.5
DEBUG = True # boolean to specify whether or not print DEBUG information
checkpoint_dir = "/clusterfiles/scripts/pretrained_models/"
with open('/clusterfiles/scripts/Categories.txt', 'r') as f:
Categories = f.read().splitlines()
# orient the user a bit
print("fixed categories are: ")
Categories = sorted(Categories)
print(Categories)
category_count = len(Categories)
execution_config = modelName
# load specified execution configuration
if execution_config is None:
raise TypeError
Classifier = Simon(encoder={}) # dummy text classifier
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config['encoder']
checkpoint = config['checkpoint']
X = encoder.encodeDataFrame(frame)
# build classifier model
model = Classifier.generate_model(maxlen, max_cells, category_count)
Classifier.load_weights(checkpoint, None, model, checkpoint_dir)
model_compile = lambda m: m.compile(loss='binary_crossentropy',
optimizer='adam',
metrics=['binary_accuracy'])
model_compile(model)
y = model.predict(X)
# discard empty column edge case
y[np.all(frame.isnull(), axis=0)] = 0
result = encoder.reverse_label_encode(y, p_threshold)
## LABEL COMBINED DATA AS CATEGORICAL/ORDINAL
print("Beginning Guessing categorical/ordinal classifications...")
start_time_guess = time.time()
category_count = 0
ordinal_count = 0
raw_data = frame.as_matrix()
for i in np.arange(raw_data.shape[1]):
tmp = guess(raw_data[:, i], for_types='category')
if tmp[0] == 'category':
category_count += 1
tmp2 = list(result[0][i])
tmp2.append('categorical')
result[0][i] = tuple(tmp2)
result[1][i].append(1)
if ('int' in result[1][i]) or ('float' in result[1][i]) \
or ('datetime' in result[1][i]):
ordinal_count += 1
tmp2 = list(result[0][i])
tmp2.append('ordinal')
result[0][i] = tuple(tmp2)
result[1][i].append(1)
elapsed_time = time.time() - start_time_guess
print("Total statistical variable guessing time is : %.2f sec" %
elapsed_time)
## FINISHED LABELING COMBINED DATA AS CATEGORICAL/ORDINAL
Classifier.clear_session()
return self.encoder.encode((result))
def main(execution_config, DEBUG):
maxlen = 20
max_cells = 500
p_threshold = 0.5
DEBUG = True # boolean to specify whether or not print DEBUG information
checkpoint_dir = "pretrained_models/"
with open('Categories.txt', 'r') as f:
Categories = f.read().splitlines()
# orient the user a bit
print("fixed categories are: ")
Categories = sorted(Categories)
print(Categories)
category_count = len(Categories)
# load specified execution configuration
if execution_config is None:
raise TypeError
Classifier = Simon(encoder={}) # dummy text classifier
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config['encoder']
checkpoint = config['checkpoint']
# read unit test data
dataset_name = "o_38" # o_38 or o_185
if (DEBUG):
print("DEBUG::BEGINNING UNIT TEST...")
raw_data = pd.read_csv('unit_test_data/' + dataset_name + '.csv',
dtype='str')
with open('unit_test_data/' + dataset_name + '_Header.csv',
'r',
newline='\n') as myfile:
reader = csv.reader(myfile, delimiter=',')
header = []
for row in reader:
header.append(row)
variable_names = list(raw_data)
nrows, ncols = raw_data.shape
out = DataLengthStandardizerRaw(raw_data, max_cells)
nx, ny = out.shape
if (DEBUG):
print("DEBUG::%d rows by %d columns in dataset" % (nx, ny))
print("DEBUG::manually annotated header:")
print(header)
print("DEBUG::%d samples in header..." % len(header))
tmp = np.char.lower(np.transpose(out).astype('U')) # transpose the data
# build classifier model
Classifier = Simon(encoder=encoder) # text classifier for unit test
model = Classifier.generate_model(maxlen, max_cells, category_count)
Classifier.load_weights(checkpoint, None, model, checkpoint_dir)
model_compile = lambda m: m.compile(loss='binary_crossentropy',
optimizer='adam',
metrics=['binary_accuracy'])
model_compile(model)
# encode the data and evaluate model
X, y = encoder.encode_data(tmp, header, maxlen)
if (DEBUG):
print("DEBUG::y is:")
print(y)
print("DEBUG::The encoded labels (first row) are:")
print(y[0, :])
max_cells = encoder.cur_max_cells
data = type('data_type', (object, ), {'X_test': X, 'y_test': y})
result = Classifier.evaluate_model(max_cells, model, data, encoder,
p_threshold)
# generate log
f = open('evaluate_model_on_dataset.report', 'w')
f.write('{:>25} | {:>40} | {:>30} | {:>30}'.format(
'VARIABLE NAME', 'MANUAL ANNOTATION', 'SIMON ANNOTATION',
'PROBABILITIES') + '\n')
f.write(' \n')
print('{:>25} | {:>40} | {:>30} | {:>30}'.format('VARIABLE NAME',
'MANUAL ANNOTATION',
'SIMON ANNOTATION',
'PROBABILITIES'))
print(' ')
for i in np.arange(out.shape[1]):
print('{:>30} | {:>30} | {:>30} | {:>30}'.format(
variable_names[i], str(header[i]), str(result[0][i]),
str(result[1][i])))
f.write('{:>25} | {:>40} | {:>30} | {:>30}'.format(
variable_names[i], str(header[i]), str(result[0][i]),
str(result[1][i])) + '\n')
f.close()
def _produce_annotations(self, *, inputs: Inputs) -> Outputs:
""" generates dataframe with semantic type classifications and classification probabilities
for each column of original dataframe
Arguments:
inputs {Inputs} -- D3M dataframe
Returns:
Outputs -- dataframe with two columns: "semantic type classifications" and "probabilities"
Each row represents a column in the original dataframe. The column "semantic type
classifications" contains a list of all semantic type labels and the column
"probabilities" contains a list of the model's confidence in assigning each
respective semantic type label
"""
# load model checkpoint
checkpoint_dir = (self.volumes["simon_models_1"] +
"/simon_models_1/pretrained_models/")
if self.hyperparams["statistical_classification"]:
execution_config = "Base.pkl"
category_list = "/Categories.txt"
else:
execution_config = "Base_stat_geo.pkl"
category_list = "/Categories_base_stat_geo.txt"
with open(
self.volumes["simon_models_1"] + "/simon_models_1" +
category_list, "r") as f:
Categories = f.read().splitlines()
# create model object
Classifier = Simon(encoder={})
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config["encoder"]
checkpoint = config["checkpoint"]
model = Classifier.generate_model(self.hyperparams["max_chars"],
self.hyperparams["max_rows"],
len(Categories))
Classifier.load_weights(checkpoint, None, model, checkpoint_dir)
model.compile(loss="binary_crossentropy",
optimizer="adam",
metrics=["binary_accuracy"])
# prepare data and make predictions
frame = inputs.copy()
prepped_data = encoder.encodeDataFrame(frame)
preds = model.predict_on_batch(tf.constant(prepped_data))
decoded_preds = encoder.reverse_label_encode(
preds, self.hyperparams["p_threshold"])
# apply statistical / ordinal classification if desired
if self.hyperparams["statistical_classification"]:
logger.debug(
"Beginning Guessing categorical/ordinal classifications...")
raw_data = frame.values
guesses = [
guess(raw_data[:, i], for_types="category")
for i in np.arange(raw_data.shape[1])
]
for i, g in enumerate(guesses):
if g[0] == "category":
decoded_preds[0][i] += ("categorical", )
decoded_preds[1][i].append(1)
if (("int" in decoded_preds[1][i])
or ("float" in decoded_preds[1][i])
or ("datetime" in decoded_preds[1][i])):
decoded_preds[0][i] += ("ordinal", )
decoded_preds[1][i].append(1)
logger.debug("Done with statistical variable guessing")
# clear tf session
Classifier.clear_session()
out_df = pd.DataFrame.from_records(list(decoded_preds)).T
out_df.columns = ["semantic types", "probabilities"]
return out_df
def produce(self,
*,
inputs: Inputs,
timeout: float = None,
iterations: int = None) -> CallResult[Outputs]:
"""
Produce primitive's best guess for the structural type of each input column.
Parameters
----------
inputs : Input pandas frame
Returns
-------
Outputs
The outputs is two lists of lists, each has length equal to number of columns in input pandas frame.
Each entry of the first one is a list of strings corresponding to each column's multi-label classification.
Each entry of the second one is a list of floats corresponding to prediction probabilities.
"""
""" Accept a pandas data frame, predicts column types in it
frame: a pandas data frame containing the data to be processed
-> a list of two lists of lists of 1) column labels and then 2) prediction probabilities
"""
frame = inputs
try:
# setup model as you typically would in a Simon main file
maxlen = 20
max_cells = 500
p_threshold = 0.5
DEBUG = True # boolean to specify whether or not print DEBUG information
checkpoint_dir = "pretrained_models/"
with open('Categories.txt', 'r') as f:
Categories = f.read().splitlines()
# orient the user a bit
print("fixed categories are: ")
Categories = sorted(Categories)
print(Categories)
category_count = len(Categories)
execution_config = "Base.pkl"
# load specified execution configuration
if execution_config is None:
raise TypeError
Classifier = Simon(encoder={}) # dummy text classifier
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config['encoder']
checkpoint = config['checkpoint']
X = encoder.encodeDataFrame(frame)
# build classifier model
model = Classifier.generate_model(maxlen, max_cells,
category_count)
Classifier.load_weights(checkpoint, None, model, checkpoint_dir)
model_compile = lambda m: m.compile(loss='binary_crossentropy',
optimizer='adam',
metrics=['binary_accuracy'])
model_compile(model)
y = model.predict(X)
# discard empty column edge case
y[np.all(frame.isnull(), axis=0)] = 0
out = encoder.reverse_label_encode(y, p_threshold)
return pd.DataFrame.from_records(
out, columns=['semantic types', 'probabilities'])
except:
# Should probably do some more sophisticated error logging here
return "Failed predicting data frame"
elif 'button' in text or 'boston' in text: # Colour then word ie(yellow Press)
text = text.replace('button ', '').replace('boston ', '')
Button.button(text)
elif 'strip' in text: # Color ie(Red)
text = text.replace('strip ', '')
Button.holdbutton(text)
elif 'keypad' in text: # Say symbols
text = text.replace('keypad ', '').replace('symbols ', '')
KeyPad.keypad(text)
elif 'simon' in text: # Say colours ie(Red, Red, Blue)
text = text.replace('simon ', '')
Simon.simon(text)
elif "on 1st 1" in text.replace(
'one', '1') or "on first 1" in text.replace('one', '1'):
# Word on screen, then word on told button
text = text.replace("on first 1 ", '').replace("on 1st 1 ", '').replace("on first one ", '')\
.replace("on 1st one ", '')
OnFirst.onfirst(text)
elif "on 1st 2" in text.replace('to', '2').replace('too', '2').replace('two', '2') \
or "on first 2" in text.replace('to', '2').replace('too', '2').replace('two', '2'):
text = text.replace('to', '2').replace('too',
'2').replace('two', '2')
text = text.replace("on 1st 2 ", '').replace("on first 2 ", '')
answer = OnFirst.onfirstwords(text)
def menuSet(self):
bg = PhotoImage(file="menuIMG/mario.gif")
back = Label(self, width=WIDTH, height=HEIGHT, image=bg)
back.image = bg
back.place(x=0, y=0, relwidth=1, relheight=1)
self.display = Label(self,
text="Memory",
font=("ARCADECLASSIC", 25),
height=2,
width=15,
anchor='center')
self.display.grid(row=0, column=0)
self.display = Label(self,
text="Pong",
font=("ARCADECLASSIC", 25),
height=2,
width=15,
anchor='center')
self.display.grid(row=0, column=1)
self.display = Label(self,
text="Speed",
font=("ARCADECLASSIC", 25),
height=2,
width=15,
anchor='center')
self.display.grid(row=0, column=2)
img = PhotoImage(file="menuIMG/MEMORY.gif")
self.display = Label(self,
image=img,
height=245,
width=272,
anchor='center',
bg='deep sky blue')
self.display.image = img
self.display.grid(row=1, column=0)
img = PhotoImage(file="menuIMG/PONG.gif")
self.display = Label(self,
image=img,
height=245,
width=272,
anchor='center',
bg='deep sky blue')
self.display.image = img
self.display.grid(row=1, column=1)
img = PhotoImage(file="menuIMG/lpr.gif")
self.display = Label(self,
image=img,
height=245,
width=272,
anchor='center',
bg='deep sky blue')
self.display.image = img
self.display.grid(row=1, column=2)
self.button0 = Button(self,
text="Start",
font=('ARCADECLASSIC', 15),
height=2,
width=15,
anchor='center',
bg='white',
command=lambda: Simon.in_simon())
self.button0.grid(row=3, column=0)
self.button1 = Button(self,
text="One\nPlayer",
font=('ARCADECLASSIC', 15),
height=2,
width=15,
anchor='center',
bg='white',
command=lambda: pong.in_pong(True))
self.button1.grid(row=3, column=1)
self.button2 = Button(self,
text="Two\nPlayers",
font=('ARCADECLASSIC', 15),
height=2,
width=15,
anchor='center',
bg='white',
command=lambda: pong.in_pong(False))
self.button2.grid(row=4, column=1)
self.button3 = Button(self,
text="Start",
font=('ARCADECLASSIC', 15),
height=2,
width=15,
anchor='center',
bg='white',
command=lambda: speed.in_speed())
self.button3.grid(row=3, column=2)
self.pack(fill="both", expand=True)
def main(checkpoint, data_count, data_cols, should_train, nb_epoch, null_pct, try_reuse_data, batch_size, execution_config):
maxlen = 20
max_cells = 500
# set this boolean to True to print debug messages (also terminate on *any* exception)
DEBUG = True
checkpoint_dir = "checkpoints/"
# basic preliminaries for database calls
store_name = 'nktraining'
adl = client.get_adl_client(store_name)
files = adl.ls('training-data/CKAN')
random.shuffle(files)
cnxn = gc.getConnection()
cursor = cnxn.cursor()
# make required database calls
out, out_array_header = FetchLabeledDataFromDatabase(max_cells, cursor, adl, False)
cnxn.close()
with open('Categories_base_stat_geo.txt','r') as f:
Categories = f.read().splitlines()
Categories = sorted(Categories)
category_count = len(Categories)
nx,ny = out.shape
if(DEBUG):
# orient the user a bit
print("read data is: ")
print(out)
print("fixed categories are: ")
print(Categories)
print("The size of the read raw data is %d rows by %d columns"%(nx,ny))
print("corresponding header length is: %d"%len(out_array_header))
#print(out_array_header)
# specify data for the transfer-learning experiment
raw_data = out[0:max_cells,:] #truncate the rows (max_cells)
header = out_array_header
## ADD GEODATA
import logging
logging.basicConfig(level=logging.DEBUG)
logger = logging.getLogger(__name__)
# read-in relevant data
in_file_postal = 'data/geodata/allCountries_postal.txt'
reader_postal = GeonamesCountriesTxtFileReader(in_file_postal)
df_postal = reader_postal.read_csv_postal()
# read-in country codes
in_file_cc = 'data/geodata/country_codes_csv.csv'
df_countries = pd.read_csv(in_file_cc,dtype=str)
# now, build up geo-data training data set
N_SAMPLES = 500 # number of samples for each additional category
start = time.time()
data = np.asarray(df_countries['Name'].sample(n=max_cells,replace='True'))[np.newaxis].T # draw first random column
data_header = list([['country','text'],]) # start with the 'country' category
for i in np.arange(1,N_SAMPLES): # draw remaining random columns
#print(data)
data = np.concatenate((data,np.asarray(df_countries['Name'].sample(n=max_cells,replace='True'))[np.newaxis].T),axis=1)
data_header.append(list(['country','text']))
# now, handle the remaining new geo categories
NewCategories = list(['state','city','postal_code','latitude','longitude','country_code'])
for category in NewCategories:
for i in np.arange(N_SAMPLES):
data = np.concatenate((data,np.asarray(df_postal[category].sample(n=max_cells,replace='True'))[np.newaxis].T),axis=1)
if((category=='latitude') or (category=='longitude')):
data_header.append(list([category,'float']))
elif(category=='postal_code'):
# label as 'int' where appropriate (one may also need to label as 'text' sometimes as well, but going with this for now)
data_header.append(list([category,'int']))
else :
data_header.append(list([category,'text']))
if(DEBUG):
print("DEBUG::the shape of geo data is:")
print(data.shape)
print("DEBUG::the length of the corresponding geo data header is:")
print(len(data_header))
print("DEBUG::the time elapsed to build the geo data set is (sec):")
print(time.time()-start)
print("DEBUG::merging geo data with datalake data... ")
raw_data = np.column_stack((raw_data,data))
header.extend(data_header)
if(DEBUG):
print("DEBUG::done!!")
print("DEBUG::the shape of final merged data is:")
print(raw_data.shape)
print("DEBUG::the length of final merged data header is:")
print(len(header))
## FINISHED ADDING GEODATA
## LABEL COMBINED DATA AS CATEGORICAL/ORDINAL
start_time_guess = time.time()
guesses = []
print("Beginning Guessing categorical/ordinal for geo+datalake data...")
category_count = 0
ordinal_count = 0
for i in np.arange(raw_data.shape[1]):
tmp = guess(raw_data[:,i], for_types ='category')
if tmp[0]=='category':
category_count += 1
header[i].append('categorical')
if ('int' in header[i]) or ('float' in header[i]) \
or ('datetime' in header[i]):
ordinal_count += 1
header[i].append('ordinal')
guesses.append(tmp)
if(DEBUG):
#print(guesses)
#print(len(guesses))
print("DEBUG::The number of categorical columns is %d"%category_count)
print("DEBUG::The number of ordinal columns is %d"%ordinal_count)
#print(header)
elapsed_time = time.time()-start_time_guess
print("Total guessing time is : %.2f sec" % elapsed_time)
## FINISHED LABELING COMBINED DATA AS CATEGORICAL/ORDINAL
# transpose the data
raw_data = np.char.lower(np.transpose(raw_data).astype('U'))
# do other processing and encode the data
if execution_config is None:
raise TypeError
Classifier = Simon(encoder={}) # dummy text classifier
config = Classifier.load_config(execution_config, checkpoint_dir)
encoder = config['encoder']
checkpoint = config['checkpoint']
encoder.categories=Categories
category_count = len(Categories) # need to reset this variable as it is used for stg. else above
# build classifier model
Classifier = Simon(encoder=encoder) # text classifier for unit test
model = Classifier.generate_transfer_model(maxlen, max_cells, category_count-9, category_count, checkpoint, checkpoint_dir)
model_compile = lambda m: m.compile(loss='binary_crossentropy',
optimizer='adam', metrics=['binary_accuracy'])
model_compile(model)
# encode the data and evaluate model
X, y = encoder.encode_data(raw_data, header, maxlen)
if(DEBUG):
print("DEBUG::y is:")
print(y)
print("DEBUG::The encoded labels (first row) are:")
print(y[0,:])
data = Classifier.setup_test_sets(X, y)
## Build p_threshold per class
# p_threshold = np.sum(data.y_train,axis=0)*1/(data.y_train.shape[0])
p_threshold = 0.5 # you could also use a fixed scalar
if(DEBUG):
print("DEBUG::per class p_threshold is:")
print(p_threshold)
max_cells = encoder.cur_max_cells
start = time.time()
history = Classifier.train_model(batch_size, checkpoint_dir, model, nb_epoch, data)
end = time.time()
print("Time for training is %f sec"%(end-start))
config = { 'encoder' : encoder,
'checkpoint' : Classifier.get_best_checkpoint(checkpoint_dir) }
Classifier.save_config(config, checkpoint_dir)
Classifier.plot_loss(history) #comment out on docker images...
Classifier.evaluate_model(max_cells, model, data, encoder, p_threshold)
def runSimon(self):
simon = Simon.Simon()
simon.runSimon(self.__mode)