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Hands-On Neural Networks

Hands-On Neural Networks

By : Leonardo De Marchi, Laura Mitchell
3.5 (2)
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Hands-On Neural Networks

Hands-On Neural Networks

3.5 (2)
By: Leonardo De Marchi, Laura Mitchell

Overview of this book

Neural networks play a very important role in deep learning and artificial intelligence (AI), with applications in a wide variety of domains, right from medical diagnosis, to financial forecasting, and even machine diagnostics. Hands-On Neural Networks is designed to guide you through learning about neural networks in a practical way. The book will get you started by giving you a brief introduction to perceptron networks. You will then gain insights into machine learning and also understand what the future of AI could look like. Next, you will study how embeddings can be used to process textual data and the role of long short-term memory networks (LSTMs) in helping you solve common natural language processing (NLP) problems. The later chapters will demonstrate how you can implement advanced concepts including transfer learning, generative adversarial networks (GANs), autoencoders, and reinforcement learning. Finally, you can look forward to further content on the latest advancements in the field of neural networks. By the end of this book, you will have the skills you need to build, train, and optimize your own neural network model that can be used to provide predictable solutions.
Table of Contents (16 chapters)
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1
Section 1: Getting Started
4
Section 2: Deep Learning Applications
9
Section 3: Advanced Applications

Feature extraction

Another simpler but usually less effective way of doing TL is to use a network trained on a specific task as a feature extractor. In this way, the feature we will extract will be very dependent on the task.

But we also know that the features created in different layers follow a hierarchical structure that will learn a high-level representation of the image in the following different layers:

  • Lower layer: Features in lower layers will be very low-level. This means that they are quite generic and simple. Examples of features extracted in the first layer can be lines, edges, or linear relationships; we saw previously that, with one layer, we can describe linear relationships. The second layer will be able to capture more complex shapes, such as curves.
  • Higher layer: Features in higher layers will be more high-level descriptions of our inputs. Parts of it might...
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