Analytical Design of PID Controllers - Methodical PID Design
Analytical Design of PID Controllers - Methodical PID Design
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In this review of Analytical Design of PID Controllers the bottom line is clear: this monograph is for engineers, researchers and graduate students who need a rigorous, geometric method to synthesize PID controllers that meet multiple specifications. The single biggest reason to buy is the book's practical computer-aided, geometry-driven procedure that turns theoretical stabilizing sets into actionable PID designs for linear time-invariant plants. It reads like a specialized engineering reference rather than a beginner tutorial.
Key Features
- Computer-aided procedure: Presents a step-by-step method to synthesize PID controllers using computational tools so designers can reproduce results.
- Geometric approach: Uses 2-D and 3-D graphics to visualize the complete stabilizing set, making multi-constraint designs easier to interpret.
- Multiple specifications: Shows how to satisfy gain and phase margins, time-delay tolerance, settling time and H-infinity norm bounds simultaneously.
- Continuous- and discrete-oriented development: Develops results for continuous-time plants and indicates how to extend concepts to practical implementations.
- Systematic exploitation of stabilizing set: Expands on earlier computation of the stabilizing set and demonstrates how to use it methodically for controller selection.
Who It's For
This book is best suited to control systems engineers, graduate students in control theory and researchers who already understand PID basics and need an analytical, geometry-based design toolkit. It supports work where multiple performance constraints must be balanced and where visualizing controller feasibility regions helps decision making.
It is less appropriate for readers seeking an introductory PID tutorial, hands-on lab exercises or applied case studies with step-by-step code samples; those users should consider more pedagogical or application-focused texts instead.
Pros & Cons
Pros
- Provides a rigorous analytic framework for PID synthesis that links theory to practical design constraints.
- The geometric visualization of stabilizing sets helps make multi-objective tradeoffs tangible.
- Addresses multiple real-world specifications like time-delay tolerance and H-infinity bounds in a unified way.
Cons
- Not designed as an introductory tutorial; assumes prior familiarity with control theory concepts.
- The monograph format offers limited hands-on examples or extensive software code for immediate deployment.
Specifications
| Title | Analytical Design of PID Controllers |
| Authors | Ivan D. Diaz-Rodriguez, Sangjin Han, Shankar P. Bhattacharyya |
| Subject | PID controller synthesis for linear time-invariant plants |
| Approach | Computer-aided geometric design using 2-D and 3-D graphics |
| Design goals | Gain and phase margins, time-delay tolerance, settling time, H-infinity bounds |
| Audience | Engineers, researchers, graduate students |
Our Verdict
Analytical Design of PID Controllers is a focused, valuable reference for professionals who need a methodical way to synthesize PID controllers under multiple constraints. Its analytic and geometric treatment makes it good value for researchers and advanced students who will apply the computer-aided procedure rather than novices seeking introductory coverage.
Frequently Asked Questions
Does this book include practical examples or code?
The monograph emphasizes the analytic procedure and geometric interpretation; it illustrates methods but contains limited hands-on code examples.
Is prior control theory knowledge required?
Yes, the book assumes familiarity with PID fundamentals and linear control concepts to follow the analyses.
What specifications can the method handle?
The approach targets gain and phase margins, time-delay tolerance, settling time and H-infinity norm bounds for LTI plants.
Editor's Take
This monograph is a rigorous, geometry-driven reference for engineers and researchers who need a computer-aided procedure to synthesize PID controllers that satisfy multiple specifications; it is best for advanced users rather than beginners.

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