Book Image

Deep Learning with TensorFlow

By : Giancarlo Zaccone, Md. Rezaul Karim, Ahmed Menshawy
Book Image

Deep Learning with TensorFlow

By: Giancarlo Zaccone, Md. Rezaul Karim, Ahmed Menshawy

Overview of this book

Deep learning is the step that comes after machine learning, and has more advanced implementations. Machine learning is not just for academics anymore, but is becoming a mainstream practice through wide adoption, and deep learning has taken the front seat. As a data scientist, if you want to explore data abstraction layers, this book will be your guide. This book shows how this can be exploited in the real world with complex raw data using TensorFlow 1.x. Throughout the book, you’ll learn how to implement deep learning algorithms for machine learning systems and integrate them into your product offerings, including search, image recognition, and language processing. Additionally, you’ll learn how to analyze and improve the performance of deep learning models. This can be done by comparing algorithms against benchmarks, along with machine intelligence, to learn from the information and determine ideal behaviors within a specific context. After finishing the book, you will be familiar with machine learning techniques, in particular the use of TensorFlow for deep learning, and will be ready to apply your knowledge to research or commercial projects.
Table of Contents (11 chapters)

Optimizing TensorFlow Autoencoders

A big problem that plagues all supervised learning systems is the so-called curse of dimensionality; a progressive decline in performance with an increase in the input space dimension. This occurs because the number of necessary samples to obtain a sufficient sampling of the input space increases exponentially with the number of dimensions. To overcome these problems, some optimizing networks have been developed.

The first are autoencoder networks, these are designed and trained for transforming an input pattern in itself, so that, in the presence of a degraded or incomplete version of an input pattern, it is possible to obtain the original pattern. The network is trained to create output data, like those presented in the entrance, and the hidden layer stores the data compressed, that is, a compact representation that captures the fundamental characteristics of the input data.

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