def testResizing():
testdata = config.data['datafile']['test']
dl = DataLoader()
data = dl.read(testdata[0])
print len(data)
newdata = BoxStretch(data, 600)
ml = MagneticLine()
ml.addLine(data, "origin")
ml.addLine(newdata, "newline")
ml.show()
def load(self, fileList):
loader = DataLoader()
self.standard = loader.read(fileList[0])
self.sampleSize = len(self.standard)
data = []
# extend all data to same length
for dataFile in fileList:
line = loader.read(dataFile)
dist, path = dtwDistance(self.standard, line)
lineData = dtwExtend(line, path)
data.append(lineData)
self.data = data
def main():
loader = DataLoader()
data = loader.read(config.data["datafile"]["test"][0])
context = zmq.Context()
publisher = context.socket(zmq.REQ)
publisher.connect("tcp://127.0.0.1:9988")
index = 20
path_particles_count = len(data)
while True:
currPos = float(index) / path_particles_count * 18.18
publisher.send(json.dumps({"data": data[index - 5 : index], "id": 1, "currPos": currPos}))
recv = publisher.recv()
print json.loads(recv)
time.sleep(0.5)
index += 5
def testGraphing():
# import scipy.misc.imresize
testdata = config.data['datafile']['test']
dl = DataLoader()
l = dl.read(testdata[0])
l2 = dl.read(testdata[1])
l3 = dl.read(testdata[2])
ml = MagneticLine()
# l = np.array(l)
# l1 = np.kron(l, [0.5, 0.5])
# l2 = np.kron(l, [1, 1])
# l3 = np.kron(l, [1.5, 1.5])
# l2 = np.array(l2)
# l2 = np.kron(l2, [1,2])
ml.addLine(l, "a0")
# ml.addLine(l1, "a1")
ml.addLine(l2, "a1")
ml.addLine(l3, "b0")
ml.show()
def main():
paths = "/home/nikoscf/PycharmProjects/BookRecommendation/configurations/paths.yml"
load_begin = DataLoader()
load_begin.read_paths(paths)
# Uncomment to Execute this one time to get the zip if is .zip, unzip it in absolute dir you set in paths.yaml
# Then it checks for .csv and remove the redundant zip folder
# load_begin.check_zip_and_csv()
books = load_begin.read_data("BX-Books.csv")
users = load_begin.read_data("BX-Users.csv")
ratings = load_begin.read_data("BX-Book-Ratings.csv")
to_drop_columns = ['Image-URL-S', 'Image-URL-M', 'Image-URL-L']
numeric_col_to_nan = ["Year-Of-Publication"]
data_books = DataClean(books)
clean_books = data_books.execute_pipeline_cleaning(to_drop_columns,
numeric_col_to_nan)
to_drop_columns = []
numeric_col_to_nan = ["User-ID", "Age"]
data_users = DataClean(users)
clean_users = data_users.execute_pipeline_cleaning(to_drop_columns,
numeric_col_to_nan)
to_drop_columns = []
numeric_col_to_nan = ["User-ID", "ISBN", "Book-Rating"]
data_ratings = DataClean(ratings)
clean_ratings = data_ratings.execute_pipeline_cleaning(
to_drop_columns, numeric_col_to_nan)
data_analysis = DataAnalysis()
ratings_pivoted = data_analysis.execute_pipeline_data_analysis(
clean_ratings, clean_users, clean_books)
return ratings_pivoted
def testGraphing():
testdata = config.data['datafile']['test']
dl = DataLoader()
l = dl.read(testdata[0])
l2 = dl.read(testdata[1])
l3 = dl.read(testdata[2])
ml = MagneticLine()
dist, path = dtwDistance(l, l2)
lineData = dtwExtend(l2, path)
print path
# l = np.array(l)
# l1 = np.kron(l, [0.5, 0.5])
# l2 = np.kron(l, [1, 1])
# l3 = np.kron(l, [1.5, 1.5])
# l2 = np.array(l2)
# l2 = np.kron(l2, [1,2])
ml.addLine(l, "a0")
# ml.addLine(l1, "a1")
ml.addLine(l2, "a1")
ml.addLine(lineData, "b0")
ml.show()
def init_vectorizers(log=True):
"""
Initializes vectorizers.
"""
if log: print("Initializing vectorizers...", end="\r")
# Create DataLoaders for train and full for the vectorizers
trainD = DataLoader()
trainD.loadData('../dataset/dataset-train.npy')
fullD = DataLoader()
fullD.loadData('../dataset/dataset.npy')
# Create the vectorizers
return [
TFIDFRequestTextVectorizer(trainD),
HelperIDVectorizer(fullD),
CourseIDVectorizer(),
RequestTimeVectorizer(),
StudentVectorizer(fullD),
PastRequestsVectorizer(fullD),
DueDateVectorizer()
]
def generate_inference_file(filename='test.tsv', cache=True):
if cache:
return pickle.load(open(f'{abspath}/ser/sents.ser', 'rb'))
else:
sents = []
tokenized_sents = []
pairs = DataLoader('srcdata2')
pairs = pairs + get_augmented_data() + get_test_data()
for pair in tqdm(pairs, desc='Tokenizing sentences'):
sents.append(pair[0])
tokenized_sents.append(CustomTokenizer(pair[0]))
sents.append(pair[1])
tokenized_sents.append(CustomTokenizer(pair[1]))
pickle.dump(sents, open(f'{abspath}/ser/sents.ser', 'wb'))
inf_file = open(filename, 'w')
for sent in tqdm(tokenized_sents, desc='Writing tokenized sentences'):
for token in sent:
inf_file.write(f'{token.strip()}\tO\n')
inf_file.write('\n')
return sents
command_parser.add_argument('-m', '--model', type=str)
command_parser.add_argument('-b', '--buckets', type=str, default="24w")
command_parser.add_argument('-l', '--lr', type=float, default=0.01)
command_parser.set_defaults(func=lambda: 'test')
ARGS = parser.parse_args()
if 'func' not in ARGS or ARGS.func is None:
parser.print_help()
elif ARGS.time not in ['w', 'h', 't']:
print("ERROR: invalid time '%s'" % ARGS.time)
else:
with tf.Graph().as_default():
model = createModel(ARGS)
loader = DataLoader()
vectorizers = init_vectorizers()
# Filter out bad requests if we are training on help time
if ARGS.time == 'h':
loader.loadData(
ARGS.data.name,
filterFn=lambda x: x.getHelpTimeMinutes() >= 2.0)
else:
loader.loadData(ARGS.data.name)
# Training
if ARGS.func() == 'train':
model.run(loader, vectorizers, ARGS.time, run_type='train')
train_loss = model.run(loader,
vectorizers,
def __init__(self, method):
print('USING METHOD: {}'.format(method))
# Read lyrics dataset and get train/test splits
dl = DataLoader()
self.train_x, self.train_y, self.test_x, self.test_y = dl.load(method)
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
"""
Created on Sun Jun 16 17:33:23 2019
@author: ishanshrivastava
"""
from data.DataLoader import DataLoader
#from features.CustomTokenizer import CustomTokenizer
pairs = DataLoader("<srcdata>")
#print(CustomTokenizer(pairs[3][0]))
def loadFileGraph(self, filename):
filepath = './data/' + filename
if os.path.isfile(filepath):
loader = DataLoader()
self.setLine(loader.read(filepath))
self.draw()
from config.Config import config from data.DataLoader import DataLoader from algorithm.Dtw import dtwCalculate testdatafilename = config.data['datafile']['test'] dl = DataLoader() line1 = dl.read(testdatafilename[0]) sub = line1[100:105] dist, position= dtwCalculate(sub, line1)
import tensorflow as tf
from data.DataLoader import DataLoader
from ClassificationNNModel import ClassificationNNModel
from random import uniform
from RunNN import Config
if __name__ == "__main__":
config = Config("h", 10, "classification", 5)
results = []
for i in range(100):
print("Iteration %i" % i)
config.lr = 10**uniform(-2, -6)
with tf.Graph().as_default():
model = ClassificationNNModel(config)
loader = DataLoader()
loader.loadData("../dataset/dataset-train.npy",
filterFn=lambda x: x.getHelpTimeMinutes() >= 2.0,
log=False)
model.run(loader, "h", train=True, log=False)
loss = model.run(loader, "h", train=False, log=False)
results.append((config.lr, loss))
print(sorted(results, key=lambda r: r[1]))
import keras
from core.utils import AucHistory
from core.VideoPixelNetwork import VideoPixelNetwork
from data.DataLoader import DataLoader
frames_count = 10
frames_step = 5 # >= 1
data_loader = DataLoader('data/ped1_train.txt',
'data/ped1_test.txt',
frames_count,
frames_step,
validation_split=0.1)
train_generator = data_loader.train_generator(batch_size=2)
validation_generator = data_loader.validation_generator(batch_size=5)
frame_shape = train_generator.X_shape
filters = 16
k_encoder = 20
lstm_filters = 32
k_decoder = 32
dilation = True
decoder_kernel_size = 5
vpn = VideoPixelNetwork(filters,
frame_shape,
frames_count,
k_encoder=k_encoder,
lstm_filters=lstm_filters,
k_decoder=k_decoder,
from data.DataLoader import DataLoader
import matplotlib.pyplot as plt
from collections import Counter
from util import make_buckets, make_bucket_mapper
if __name__ == "__main__":
d = DataLoader()
d.loadData('../dataset/dataset.npy')
help_vals = [r.getHelpTimeMinutes() for r in d.laIRRequests]
wait_vals = [r.getWaitTimeMinutes() for r in d.laIRRequests]
bucket_vals = [i for i in range(0, 120, 10)] + [float('inf')]
plt.hist([help_vals, wait_vals],
bucket_vals,
label=["Help Time", "Wait Time"])
plt.title("CS106 LaIR Wait and Help Times")
plt.xlabel("Time (minutes)")
plt.ylabel("# Requests")
plt.legend()
plt.show()
from data.DataLoader import DataLoader
import matplotlib.pyplot as plt
import numpy as np
import os
if __name__ == '__main__':
dl = DataLoader()
train_x, train_y, test_x, test_y = dl.load('binary')
genres = np.concatenate((train_y, test_y))
print(len(genres))
# read genrenames
names = []
datadir = os.path.join(os.path.dirname(__file__), 'data/genresList.txt')
with open(datadir) as file:
for line in file:
names.append(line.strip().lower())
genres = list(map(lambda x: names[x], genres))
counts = []
for i in range(len(names)):
c = len(list(filter(lambda x: x == names[i], genres)))
counts.append(c)
plt.rc('axes', axisbelow=True)
plt.grid(b=True, axis='x', color='#eeeeee', zorder=-1)
plt.ylabel('Genre', labelpad=15, fontsize=18, color='#555555')
plt.xlabel('Number of songs', labelpad=15, fontsize=18, color='#555555')
plt.title('Genre Distribution', pad=15, fontsize=20, color='#555555')
from data.DataLoader import DataLoader loader = DataLoader() datapack = loader.datasource() while True: print datapack.capture()
def run(ModelType, args):
print("\n********* %s %s Model *********" % (("Logistic" if ModelType == LogisticRegression else "Linear"), ("Wait" if args.time == 'w' else "Help")))
vectorizers = init_vectorizers()
trainLoader = DataLoader()
evaluateLoader = DataLoader()
testLoader = DataLoader()
# Filter out bad requests if we are running on help time
if args.time == 'h':
trainLoader.loadData('../dataset/dataset-train.npy', filterFn=lambda x: x.getHelpTimeMinutes() >= 2.0)
evaluateLoader.loadData('../dataset/dataset-dev.npy', filterFn=lambda x: x.getHelpTimeMinutes() >= 2.0)
testLoader.loadData('../dataset/dataset-test.npy', filterFn=lambda x: x.getHelpTimeMinutes() >= 2.0)
else:
trainLoader.loadData('../dataset/dataset-train.npy')
evaluateLoader.loadData('../dataset/dataset-dev.npy')
testLoader.loadData('../dataset/dataset-test.npy')
if ModelType == LogisticRegression:
buckets = make_buckets(trainLoader, args.buckets, args.time)
mapper = make_bucket_mapper(buckets)
else:
mapper = lambda x: x
labelFn = lambda x: mapper(x.getWaitTimeMinutes() if args.time == 'w' else x.getHelpTimeMinutes())
trainLabels = trainLoader.getLabels(labelFn)
trainInputs = trainLoader.applyVectorizers(vectorizers, "train", args.time)
devLabels = evaluateLoader.getLabels(labelFn)
devInputs = evaluateLoader.applyVectorizers(vectorizers, "dev", args.time)
testLabels = testLoader.getLabels(labelFn)
testInputs = evaluateLoader.applyVectorizers(vectorizers, "test", args.time)
trainedModel = trainModel(ModelType, trainInputs, trainLabels)
evaluateModel(trainedModel, devInputs, devLabels)
evaluateModel(trainedModel, testInputs, testLabels)