def run():
classifier_table, total_normal_words, total_offensive_words = train_naive_bayes(
)
tp = 0
tn = 0
fp = 0
fn = 0
p = 1
m = 0.5
with open("../dataset/test/positive.txt", 'r') as file_:
for line in file_:
msg = json.loads(line)['clean_message']
c = classifier_message(classifier_table, total_normal_words,
total_offensive_words, p, m, msg)
if (c == 1):
tp = tp + 1
else:
fn = fn + 1
with open("../dataset/test/negative.txt", 'r') as file_:
for line in file_:
msg = json.loads(line)['clean_message']
c = classifier_message(classifier_table, total_normal_words,
total_offensive_words, p, m, msg)
if (c == 2):
tn = tn + 1
else:
fp = fp + 1
results.print_results(tp, tn, fp, fn)
def main():
'''Simulates river with two types of animals: bear and fish.
RULES:
Each time period (year) every animal either moves into adjacent cell or stays in his cell,
movement assigned by random process. If the bear encounters fish, fish always dies.
If two animals of the same type encounter each other, they, in case they are of different genders,
produce a new animal of their kind. If two animals of the same gender meet,
the stronger one wins.
'''
# Set length of the river and number of years the simulation is to run.
LENGTH = 5000
YEARS = 10
river = sf.populate_river(LENGTH)
empty_space = sf.find_empty(river)
all_fish = []
all_bears = []
# count initial number of fish and bears and add to lists
all_fish.append(sf.total_fish(river))
all_bears.append(sf.total_bear(river))
# run simulation for every animal in the river, sequentially
bear_count, fish_count = sf.run_simulation(river, empty_space, YEARS)
all_fish += fish_count
all_bears += bear_count
# display results
results.print_results(all_bears, all_fish, YEARS)
results.chart(YEARS, all_bears, all_fish)
def alive_results(q,source_ip,output_file):
my_results=[]
while not q.empty():
my_results.append(q.get())
print "\nAlive systems around... MAC/Link-Local/Global"
print "=============================================="
alive_systems_around=results.make_eth_link_global_pairs(my_results)
results.print_results(alive_systems_around, source_ip)
if output_file:
f = open(output_file,'w')
f.write("\nAlive systems around... MAC/Link-Local/Global\n")
f.write("==============================================!\n")
final_results=results.unique(alive_systems_around, source_ip)
for r in final_results[0]:
f.write(str(r)+"\n")
f.close()
def print_scanning_results(values, q, source_ip, packets_sent_list):
my_results = []
while not q.empty():
my_results.append(q.get())
print "\n\nScanning Complete!"
print "=================="
if values.sS or values.sA or values.sX or values.sR or values.sF or values.sN:
print "IPv6 address\t\t\t\tProtocol Port\tFlags"
print "-------------------------------------------"
elif values.sU:
print "IPv6 address\t\t\t\tProtocol Port"
print "-------------------------------------------"
elif values.pn:
print "IPv6 address\t\t\t\t\tProtocol\t\tID"
print "-------------------------------------------"
elif values.tr_gen:
routes = results.traceroute_results(my_results, packets_sent_list)
for p in routes.keys():
print "\n", p, routes.get(p)
if not values.tr_gen:
opened_tcp_list, final_results = results.print_results(
my_results, source_ip)
#Write the results to an output file, if required
if values.output_file:
f = open(values.output_file, 'w')
f.write("\n\nScanning Complete!")
f.write("\n====================\n")
if values.sS or values.sA or values.sX or values.sR or values.sF or values.sN:
f.write("\nIPv6 address\t\t\t\tProtocol Port\tFlags\n")
elif values.sU:
f.write("\nIPv6 address\t\t\t\tProtocol Port\n")
elif values.pn:
f.write("\nIPv6 address\t\t\t\t\tProtocol\t\tID\n")
elif values.tr_gen:
f.write("\n")
routes = traceroute_results(my_results)
for p in routes.keys():
f.write("\n" + str(p) + str(routes.get(p)) + "\n")
if not values.tr_gen:
for r in final_results:
f.write(str(r) + "\n")
if opened_tcp_list:
f.write("\n\nOPENED TCP PORTS")
f.write("\n---------------\n")
for r in opened_tcp_list:
f.write(str(r) + "\n")
f.close()
def compute_metrics(real, predict):
size_ = len(real)
fp = 0
fn = 0
tp = 0
tn = 0
for i in range(size_):
if real[i] == -1 and predict[i] == -1:
tp += 1
elif real[i] == -1 and predict[i] == 1:
fn += 1
elif real[i] == 1 and predict[i] == 1:
tn += 1
elif real[i] == 1 and predict[i] == -1:
fp += 1
acc, pre = results.print_results(tp, tn, fp, fn)
return acc, pre
y_test_pred_hybrid.append(
y_test_pred_model[j]) #risk_model
#calculate and store metrics
metrics[m_labels[i]]['f1'].append(
f1_score(y_test, y_test_pred_model))
metrics[m_labels[i]]['se'].append(
recall_score(y_test, y_test_pred_model))
metrics[m_labels[i]]['sp'].append(
recall_score(y_test, y_test_pred_model, pos_label=0))
#metrics[m_labels[i]]['mcc'].append(matthews_corrcoef(y_test, y_test_pred_model))
metrics[m_labels[i] + "Hyb"]['f1'].append(
f1_score(y_test, y_test_pred_hybrid))
metrics[m_labels[i] + "Hyb"]['se'].append(
recall_score(y_test, y_test_pred_hybrid))
metrics[m_labels[i] + "Hyb"]['sp'].append(
recall_score(y_test, y_test_pred_hybrid, pos_label=0))
#metrics[m_labels[i]+"Hyb"]['mcc'].append(matthews_corrcoef(y_test, y_test_pred_model))
#calculate and store grace metrics
metrics['Grace']['f1'].append(f1_score(y_test, y_test_pred_grace))
metrics['Grace']['se'].append(recall_score(y_test, y_test_pred_grace))
metrics['Grace']['sp'].append(
recall_score(y_test, y_test_pred_grace, pos_label=0))
#metrics['Grace']['mcc'].append(matthews_corrcoef(y_test,y_test_pred_grace))
print_results(metrics, sets_on)
dump(metrics, open('results' + str(sets_on) + '.pickle', 'wb'))
from segtok.segmenter import split_multi
text = open("abbrev._text","r").read()
sentences = split_multi(text)
import results
results.print_results(sentences)
#for i in sentences:
# print((i,))
def perform_experiment_2(cv_folds,
epochs,
batch_size,
learning_rate,
optimizer,
learning_rate_scheduler,
input_transform,
output_transform,
reconstruction_loss,
latent_space,
layers,
activation,
activation_latent,
data_microbioma_train,
data_domain_train,
show_results=False,
device='/CPU:0'):
if input_transform is not None:
input_transform = input_transform()
if output_transform is not None:
output_transform = output_transform()
if reconstruction_loss.__class__.__name__ == 'MakeLoss':
reconstruction_loss = reconstruction_loss.make()
else:
reconstruction_loss = reconstruction_loss()
domain_layers = [l // 16 for l in layers]
bioma_autoencoder = " -> ".join(["b"] + [str(l) for l in layers] +
[str(latent_space)] +
[str(l) for l in reversed(layers)] + ["b"])
if data_domain_train is not None:
domain_autoencoder = " -> ".join(["d"] +
[str(l) for l in domain_layers] +
[str(latent_space)] +
[str(l)
for l in reversed(layers)] + ["b"])
else:
domain_autoencoder = " "
in_transform_name = input_transform.__class__.__name__ if input_transform else "none"
out_transform_name = output_transform.__class__.__name__ if output_transform else "none"
lr_scheduler_text = learning_rate_scheduler[
1] if learning_rate_scheduler is not None else "none"
lr_text = learning_rate if learning_rate_scheduler is not None else "constant = {}".format(
learning_rate)
learning_rate_scheduler = learning_rate_scheduler[
0] if learning_rate_scheduler is not None else None
optimizer = optimizer(learning_rate=learning_rate)
experiment_parameters = [
("Input transform", in_transform_name),
("Output transform", out_transform_name),
("Reconstruction Loss", reconstruction_loss.__class__.__name__),
("Latent Space", latent_space),
("Bioma Autoencoder", bioma_autoencoder),
("Domain Autoencoder", domain_autoencoder),
("Activation Encoder", activation),
("Activation Decoder", activation),
("Activation Latent", activation_latent),
("CV folds", cv_folds),
("Epochs", epochs),
("Batch Size", batch_size),
("Learning Rate Scheduler", lr_scheduler_text),
("Learning Rate", lr_text),
("Optimizer", optimizer.__class__.__name__),
]
if show_results:
md_text = ""
md_text += "| Parameter | Value |\n"
md_text += "|:----------------------|:--------------|\n"
for n, v in experiment_parameters:
md_text += "| {} | {} |\n".format(n, v)
display(Markdown(md_text))
def create_model(print_data=False):
bioma_shape = data_microbioma_train.shape[1]
if data_domain_train is not None:
domain_shape = data_domain_train.shape[1]
else:
domain_shape = None
models = autoencoder(
bioma_shape=bioma_shape,
#bioma_shape=717,
domain_shape=domain_shape,
output_shape=bioma_shape,
#output_shape=717,
latent_space=latent_space,
bioma_layers=layers,
domain_layers=domain_layers,
input_transform=input_transform,
output_transform=output_transform,
activation_function_encoder=activation,
activation_function_decoder=activation,
activation_function_latent=activation_latent)
model, encoder_bioma, encoder_domain, decoder_bioma = models
if print_data:
plot_models(model, encoder_bioma, encoder_domain, decoder_bioma)
compile_train(model,
encoder_bioma=encoder_bioma,
encoder_domain=encoder_domain,
reconstruction_error=reconstruction_loss,
encoded_comparison_error=losses.MeanAbsoluteError(),
metrics=get_experiment_metrics(input_transform,
output_transform),
optimizer=optimizer)
return model, encoder_bioma, encoder_domain, decoder_bioma
create_model(print_data=False)
with tf.device(device):
results, models = train_2(
create_model,
data_microbioma_train,
data_domain_train,
latent_space=latent_space,
folds=cv_folds,
epochs=epochs,
batch_size=batch_size,
learning_rate_scheduler=learning_rate_scheduler,
verbose=-1)
validation_results = print_results(results, show_results=show_results)
if show_results:
display(Markdown("*************"))
return experiment_parameters + validation_results, models, results
def main():
make = int(
raw_input(
"Enter \n 1: if you want to make a new dict \n 2: if you want to load existing dict \n >> "
))
if make == 1:
data, len_docs = ib.rebuild()
else:
data, len_docs = ib.run()
do = 4
while True:
if do == 4:
query = str(raw_input("Enter Query \n >> "))
if query is None or len(query) == 0: continue
if query[0] == "'" or query[0] == '"':
queryflag = 1 #phrasequery
else:
queryflag = 2 #tokenquery
do = int(
raw_input(
"Enter \n 1: result of tokenization and normalization \n 2: spell check only\n 3: search the query in the database\n 4: Enter new Query\n 5: Exit \n >> "
))
if do == 1:
tokens, _ = ib.tokenize(query, ib.stop_words())
print tokens
if do == 2:
words = filter(None, re.split("[, \-!?:\'\"]+", query))
newwords = sc.onlyspellcorrection(words)
if (newwords == words): print "Your spelling is correct"
# print words
if do == 3:
if queryflag == 1:
words = filter(None, re.split("[, \-!?:\'\"]+", query))
words = sc.spellcorrection(words)
if words is None or words == []:
print "no results found (trivial)"
do = 4
continue
result = pq.phrasequery(" ".join(words), data)
if result == -1:
result = []
res.print_results(result[:20])
else:
words = filter(None, re.split("[, \-!?:\'\"]+", query))
words = sc.spellcorrection(words)
if words is None or words == []:
print "no results found (trivial)"
do = 4
continue
tokens, _ = ib.tokenize(" ".join(words), ib.stop_words())
result = tq.run(data, len_docs, tokens)
res.print_results(result[:20])
while True:
if len(result) == 0: break
disp = int(
raw_input(
"Enter\n No.: if you want to open document \n 0: if you want to skip\n >> "
))
if disp == 0: break
res.fileopen(result, disp)
if do == 4:
continue
if do == 5:
break
return