Book Image

Hands-On Artificial Intelligence for IoT - Second Edition

By : Amita Kapoor
Book Image

Hands-On Artificial Intelligence for IoT - Second Edition

By: Amita Kapoor

Overview of this book

There are many applications that use data science and analytics to gain insights from terabytes of data. These apps, however, do not address the challenge of continually discovering patterns for IoT data. In Hands-On Artificial Intelligence for IoT, we cover various aspects of artificial intelligence (AI) and its implementation to make your IoT solutions smarter. This book starts by covering the process of gathering and preprocessing IoT data gathered from distributed sources. You will learn different AI techniques such as machine learning, deep learning, reinforcement learning, and natural language processing to build smart IoT systems. You will also leverage the power of AI to handle real-time data coming from wearable devices. As you progress through the book, techniques for building models that work with different kinds of data generated and consumed by IoT devices such as time series, images, and audio will be covered. Useful case studies on four major application areas of IoT solutions are a key focal point of this book. In the concluding chapters, you will leverage the power of widely used Python libraries, TensorFlow and Keras, to build different kinds of smart AI models. By the end of this book, you will be able to build smart AI-powered IoT apps with confidence.
Table of Contents (20 chapters)
Title Page
Copyright and Credits
Dedication
About Packt
Contributors
Preface
Index

Classification using support vector machines


Support Vector Machines (SVMs) is arguably the most used ML technique for classification. The main idea behind SVM is that we find an optimal hyperplane with maximum margin separating the two classes. If the data is linearly separable, the process of finding the hyperplane is straightforward, but if it isn't linearly separable, then kernel trick is used to make the data linearly separable in some transformed high-dimensional feature space.

SVM is considered a non-parametric supervised learning algorithm. The main idea of SVM is to find a maximal margin separator: a separating hyperplane that is farthest from the training samples presented.

Consider the following diagram; the red dots represent class 1 for which the output should be 1, and the blue dots represent the class 2 for which the output should be -1. There can be many lines which can separate the red dots from the blue ones; the diagram demonstrates three such lines: A, B, and C respectively...