Book Image

Hands-On Artificial Intelligence for Cybersecurity

By : Alessandro Parisi
Book Image

Hands-On Artificial Intelligence for Cybersecurity

By: Alessandro Parisi

Overview of this book

Today's organizations spend billions of dollars globally on cybersecurity. Artificial intelligence has emerged as a great solution for building smarter and safer security systems that allow you to predict and detect suspicious network activity, such as phishing or unauthorized intrusions. This cybersecurity book presents and demonstrates popular and successful AI approaches and models that you can adapt to detect potential attacks and protect your corporate systems. You'll learn about the role of machine learning and neural networks, as well as deep learning in cybersecurity, and you'll also learn how you can infuse AI capabilities into building smart defensive mechanisms. As you advance, you'll be able to apply these strategies across a variety of applications, including spam filters, network intrusion detection, botnet detection, and secure authentication. By the end of this book, you'll be ready to develop intelligent systems that can detect unusual and suspicious patterns and attacks, thereby developing strong network security defenses using AI.
Table of Contents (16 chapters)
Free Chapter
1
Section 1: AI Core Concepts and Tools of the Trade
4
Section 2: Detecting Cybersecurity Threats with AI
8
Section 3: Protecting Sensitive Information and Assets
12
Section 4: Evaluating and Testing Your AI Arsenal

Best practices of feature engineering

In the previous chapters, we looked at different artificial intelligence (AI) algorithms, analyzing their application to the different scenarios and their use cases in a cybersecurity context. Now, the time has come to learn how to evaluate these algorithms, starting from the assumption that algorithms are the foundation of data-driven learning models.

We will therefore have to deal with the very nature of the data, which is the basis of the algorithm learning process, which aims to make generalizations in the form of predictions based on the samples received as input in the training phase.

The choice of algorithm will therefore fall on the one that is best for generalizing beyond the training data, thereby obtaining the best predictions when facing new data. In fact, it is relatively simple to identify an algorithm that fits the training...