ISBN | 9780134685717 |
Edition | 8th |
Authors | Gene Franklin, J. Powell, Abbas Emami Naeini |
Introduction
Feedback control plays a pivotal role in the field of engineering, enabling us to regulate and manage the behavior of dynamic systems. From aircraft flight control systems to robotics, from industrial processes to biomedical applications, the principles of feedback control are indispensable. In this blog post, we will delve into the eighth edition of the book “Feedback Control of Dynamic Systems” to explore its comprehensive coverage of this vital subject.
Chapter 1: Introduction to Control Systems

The first chapter of the book sets the foundation by introducing control systems and their importance in various industries. It covers the fundamental concepts of feedback control, including open-loop and closed-loop systems, stability, and performance criteria. The authors provide real-world examples to illustrate these concepts, making it easier for readers to grasp the core ideas.
Chapter 2: Mathematical Models of Systems
In Chapter 2, the book explores the mathematical modeling of dynamic systems. It explains how to represent systems using differential equations, transfer functions, and block diagrams. The authors emphasize the importance of system modeling in understanding system behavior and designing appropriate control strategies.
Chapter 3: Modeling in the Frequency Domain
Moving into the frequency domain, Chapter 3 focuses on the analysis and modeling of systems using frequency response techniques. The chapter covers Bode plots, Nyquist plots, and the relationship between frequency response and system stability. The authors elucidate the significance of frequency domain analysis in designing robust control systems.
Chapter 4: Feedback Control System Characteristics
Chapter 4 provides a detailed exploration of the characteristics and properties of feedback control systems. It covers topics such as stability analysis, steady-state error, transient response, and frequency response. The authors discuss various design considerations and trade-offs to achieve desired system behavior.
Chapter 5: The Performance of Feedback Control Systems
In this chapter, the book delves into performance criteria for feedback control systems. It discusses metrics like rise time, settling time, overshoot, and peak time, elucidating their relationship with system performance. The authors also introduce the concept of PID control and its implementation.
Chapter 6: The Design of Feedback Control Systems
Chapter 6 focuses on the design process of feedback control systems. It presents various design techniques, including root locus, frequency response, and pole placement methods. The authors emphasize the importance of robustness and performance trade-offs in controller design.
Chapter 7: State Space Analysis
The seventh chapter explores state space analysis, an essential tool for modern control system design. It covers topics such as state space representation, controllability, observability, and stability analysis. The authors provide examples and practical applications to enhance understanding.
Conclusion
The eighth edition of Feedback Control of Dynamic Systems continues to be a comprehensive guide for students, researchers, and practitioners in the field of control systems. With its clear explanations, numerous examples, and emphasis on practical applications, the book offers a valuable resource for understanding and designing feedback control systems. Whether you are a novice or an experienced engineer, this book will equip you with the necessary knowledge to tackle the challenges of controlling dynamic systems effectively.

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