
Documentation Table of Contents
1. Getting Started
- Using the Package for the First Time
- Structure of the Application
- Robustness of Numerical Methods
2. Introduction
- Quick Reference
- Solutions of the Lyapunov and Sylvester Matrix Equations
- Solutions of the Algebraic Riccati Equations
- Reduction to Controller-Hessenberg and Observer-Hessenberg Forms
- Controllability and Observability Tests
- Pole Assignment
- Feedback Stabilization
- Design of the Reduced-Order State Estimator (Observer)
- Model Reduction
- Model Identification
- Miscellaneous Matrix Decompositions and Functions
- An Industrial Application: Controlling the Drum Boiler
- The State-Space Model of a Drum Boiler
- System Responses, Stability, and Poles
- Testing the Controllability
- The Design of the LQR (linear quadratic regulation) Controller
- The Controller Design Using Constrained Feedback Stabilization
- The Observer Design
3. Matrix Equations and Control Applications
- Lyapunov Equations
- Riccati Equations
- The Schur Methods for the Riccati Equations
- The Inverse-Free Generalized Eigenvector and Schur Methods for the Riccati Equations
- The Matrix Sign-Function Methods for the Riccati Equations
- The Newton Methods for the Riccati Equations
- LQR and LQG (linear quadratic Gaussian) Designs Using Riccati Equations
4. Block Hessenberg Forms
- Controller-Hessenberg Forms
- Observer-Hessenberg Forms
- Controllability and Observability Tests Using Block Hessenberg Forms
5. Pole Assignment and Stabilization by State Feedback
- Pole Assignment Methods
- The Recursive Algorithms
- The Explicit and Implicit QR Algorithms
- The Schur Method
- Partial Pole Assignment
- Constrained Feedback Stabilization
- Lyapunov Feedback Stabilization
6. State Estimation
- Full-Order State Estimation
- Reduced-Order State Estimator
- Reduced-Order State Estimator via Pole Assignment
- Reduced-Order State Estimator via Sylvester-Observer Equation
7. Model Reduction
- Cholesky Factors of the Controllability and Observability Gramians
- Model Reduction Using Schur and Square-Root Methods
8. Model Identification
- Time-Domain System Identification
- Identification Using Markov Parameters
- Identification Using Input-Output Data (Subspace System Identification Method)
- Frequency Domain System Identification
9. Generalized Eigenvalue Problem
- Generalized Eigenvalue Problem
- Generalized Schur Decomposition
Appendix. Collection of Control Systems for Case Studies
- Continuous-Time Models
- The Absorption Column
- The F-8 Aircraft
- The L-1011 Aircraft
- The Tubular Ammonia Reactor
- The Fluid Catalytic Reactor
- The Binary Distillation Column
- The Drum Boiler
- The Flight Control System
- The Automobile Gas Turbine
- The CH-47 Helicopter
- The Magnetic Tape
- The Electric Power System
- The J-100 Jet Engine
- The "Smart" Highway
- The Generator Axle in a Power Plant
- Discrete-Time Models
- The Catalytic Cracker
- The Chemical Plant
- The Paper Machine
- The Steam Power System
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