This book provides a simulation-first, application-oriented approach to digital control design for AC motor systems, focusing on real-world challenges such as delay compensation, stability analysis, and loop tuning. Unlike conventional motor control texts that emphasize only theoretical frameworks, this book offers a systematic, delay-aware modeling and control methodology that engineers can directly apply to hardware.

Using MATLAB/SIMULINK as the primary tool, the book demonstrates step-by-step techniques to reduce development cost and risk through accurate simulation before hardware deployment. Practical topics include delay-compensated PI controller design, modulation strategies for three-phase inverters, hardware-based validation using ODrive, and advanced observer techniques for sensorless PMSM control .

With downloadable simulation files and case studies, this book enables readers to gain both conceptual understanding and practical hands-on skills. It is ideal for practicing motor control engineers, graduate students, and embedded system developers in automation, robotics, and electric drive industries who want to bridge the gap between theory and product-ready solutions.

Focuses on delay compensation in AC motor control, a topic rarely addressed in existing literature Bridges theory and industrial practice by combining modeling, simulation, and real hardware validation Provides practical, simulation-driven workflow that reduces development time and hardware costs Includes downloadable MATLAB/SIMULINK models and case studies for immediate hands-on learning

Autorentext

Dr. Chih-Chun Yeh (also known as Jack Yeh; Chinese name: ) received his Ph.D. in Electrical Engineering from National Taipei University of Technology. He is the founder of MotorControl.School, an international engineering education platform focused on AC motor drives, motor control systems, and model-based control engineering.

Dr. Yeh has over 10 years of industrial experience in motor drive systems and has published multiple technical books and papers. He also holds three patents in the field of motor control and drive technologies. He is a Senior Member of IEEE (SMIEEE) and a Member of the Institution of Engineering and Technology (MIET).

His work focuses on the development of FOC-based motor drive systems, including control algorithm design, system modeling, simulation, hardware implementation, and experimental validation for AC motor drives. His engineering philosophy emphasizes that theory must survive reality, advocating the importance of bridging theoretical control design with real-world industrial implementation.

Klappentext

This book provides a simulation-first, application-oriented approach to digital control design for AC motor systems, focusing on real-world challenges such as delay compensation, stability analysis, and loop tuning. Unlike conventional motor control texts that emphasize only theoretical frameworks, this book offers a systematic, delay-aware modeling and control methodology that engineers can directly apply to hardware. Using MATLAB/SIMULINK as the primary tool, the book demonstrates step-by-step techniques to reduce development cost and risk through accurate simulation before hardware deployment. Practical topics include delay-compensated PI controller design, modulation strategies for three-phase inverters, hardware-based validation using ODrive, and advanced observer techniques for sensorless PMSM control. With downloadable simulation files and case studies, this book enables readers to gain both conceptual understanding and practical hands-on skills. It is ideal for practicing motor control engineers, graduate students, and embedded system developers in automation, robotics, and electric drive industries who want to bridge the gap between theory and product-ready solutions.

Inhalt

Space Vector Modeling of AC Machines.- Design of AC Motor Control Loops.- Modulation Strategies for Three-Phase Inverters.- Hardware-Based Design Validation.- Practical Issues in Control Implementation.- A Refresher on Classical Control Theory.