David J. Miller is Professor of Electrical Engineering at the Pennsylvania State University. Zhen Xiang is a post-doctoral research associate in Computer Science at the University of Illinois, Urbana-Champaign. George Kesidis is Professor of Computer Science and Engineering, and of Electrical Engineering, at the Pennsylvania State University.

'This textbook is one of the first major efforts to systematically examine adversarial machine learning. It clearly outlines the most common types of attacks on machine learning/AI, and defenses, with rigorous yet practical discussions. I would highly recommend it to any instructor or machine learning student who seeks to understand how to make machine learning more robust and secure.' Carlee Joe-Wong, Carnegie Mellon University

• Contents; Preface; Notation; 1. Overview of adversarial learning; 2. Deep learning background; 3. Basics of detection and mixture models; 4. Test-time evasion attacks (adversarial inputs); 5. Backdoors and before/during training defenses; 6. Post-training reverse-engineering defense (PT-RED) Against Imperceptible Backdoors; 7. Post-training reverse-engineering defense (PT-RED) against patch-incorporated backdoors; 8. Transfer post-training reverse-engineering defense (T-PT-RED) against backdoors; 9. Universal post-training backdoor defenses; 10. Test-time detection of backdoor triggers; 11. Backdoors for 3D point cloud (PC) classifiers; 12. Robust deep regression and active learning; 13. Error generic data poisoning defense; 14. Reverse-engineering attacks (REAs) on classifiers; Appendix. Support Vector Machines (SVMs); References; Index.

David J. Miller is Professor of Electrical Engineering at the Pennsylvania State University. Zhen Xiang is a post-doctoral research associate in Computer Science at the University of Illinois, Urbana-Champaign. George Kesidis is Professor of Computer Science and Engineering, and of Electrical Engineering, at the Pennsylvania State University.

'This textbook is one of the first major efforts to systematically examine adversarial machine learning. It clearly outlines the most common types of attacks on machine learning/AI, and defenses, with rigorous yet practical discussions. I would highly recommend it to any instructor or machine learning student who seeks to understand how to make machine learning more robust and secure.' Carlee Joe-Wong, Carnegie Mellon University

• Contents; Preface; Notation; 1. Overview of adversarial learning; 2. Deep learning background; 3. Basics of detection and mixture models; 4. Test-time evasion attacks (adversarial inputs); 5. Backdoors and before/during training defenses; 6. Post-training reverse-engineering defense (PT-RED) Against Imperceptible Backdoors; 7. Post-training reverse-engineering defense (PT-RED) against patch-incorporated backdoors; 8. Transfer post-training reverse-engineering defense (T-PT-RED) against backdoors; 9. Universal post-training backdoor defenses; 10. Test-time detection of backdoor triggers; 11. Backdoors for 3D point cloud (PC) classifiers; 12. Robust deep regression and active learning; 13. Error generic data poisoning defense; 14. Reverse-engineering attacks (REAs) on classifiers; Appendix. Support Vector Machines (SVMs); References; Index.

David J. Miller is Professor of Electrical Engineering at the Pennsylvania State University. Zhen Xiang is a post-doctoral research associate in Computer Science at the University of Illinois, Urbana-Champaign. George Kesidis is Professor of Computer Science and Engineering, and of Electrical Engineering, at the Pennsylvania State University.

'This textbook is one of the first major efforts to systematically examine adversarial machine learning. It clearly outlines the most common types of attacks on machine learning/AI, and defenses, with rigorous yet practical discussions. I would highly recommend it to any instructor or machine learning student who seeks to understand how to make machine learning more robust and secure.' Carlee Joe-Wong, Carnegie Mellon University

• Contents; Preface; Notation; 1. Overview of adversarial learning; 2. Deep learning background; 3. Basics of detection and mixture models; 4. Test-time evasion attacks (adversarial inputs); 5. Backdoors and before/during training defenses; 6. Post-training reverse-engineering defense (PT-RED) Against Imperceptible Backdoors; 7. Post-training reverse-engineering defense (PT-RED) against patch-incorporated backdoors; 8. Transfer post-training reverse-engineering defense (T-PT-RED) against backdoors; 9. Universal post-training backdoor defenses; 10. Test-time detection of backdoor triggers; 11. Backdoors for 3D point cloud (PC) classifiers; 12. Robust deep regression and active learning; 13. Error generic data poisoning defense; 14. Reverse-engineering attacks (REAs) on classifiers; Appendix. Support Vector Machines (SVMs); References; Index.