Applied Control Systems - Worked Examples
This page contains worked examples organized by concept. Each PDF includes detailed solutions and explanations for a specific concept covered in the course.
Work in progress: this material is being co-developed using GenAI and needs thorough review and correction before being production ready.
Module 1: Dynamical Systems
Topic 1.1: Introduction and System Modelling
- Concept 1.1.1: Introduction
- Concept 1.1.2: Modeling Concepts
- Concept 1.1.3: State Space Models
- Concept 1.1.4: Modelling Methodology
Topic 1.2: Dynamic Behaviour
- Concept 1.2.1: Solving Differential Equations
- Concept 1.2.2: Qualitative Analysis
- Concept 1.2.3: Stability
- Concept 1.2.4: Examples
Topic 1.3: Linear Systems
- Concept 1.3.1: Basic Definitions
- Concept 1.3.2: The Matrix Exponential
- Concept 1.3.3: Input/Output Response
- Concept 1.3.4: Linearisation
Module 2: Control System Concepts
Topic 2.4: State Feedback
- Concept 2.4.1: Reachability
- Concept 2.4.2: Stabilisation by State Feedback
- Concept 2.4.3: Design Considerations
- Concept 2.4.4: Integral Action
- Concept 2.4.5: Output Feedback Basics
Topic 2.5: Transfer Functions
- Concept 2.5.1: Frequency Domain Modeling
- Concept 2.5.2: Determining the Transfer Function
- Concept 2.5.3: Laplace Transforms
- Concept 2.5.4: Block Diagrams and Transfer Functions
- Concept 2.5.5: Zero Frequency Gain, Poles, and Zeros
- Concept 2.5.6: The Bode Plot
Topic 2.6: Frequency Domain Analysis
- Concept 2.6.1: The Loop Transfer Function
- Concept 2.6.2: The Nyquist Criterion
- Concept 2.6.3: Stability Margins
- Concept 2.6.4: Bode’s Relations and Minimum Phase Systems
Module 3: Control System Design
Topic 3.7: PID Control
- Concept 3.7.1: Basic Control Functions
- Concept 3.7.2: Simple Controllers for Complex Systems
- Concept 3.7.3: PID Tuning
- Concept 3.7.4: Integrator Windup
- Concept 3.7.5: Implementation
Topic 3.8: Frequency Domain Design
- Concept 3.8.1: Sensitivity Functions
- Concept 3.8.2: Performance Specifications
- Concept 3.8.3: Feedback Design via Loop Shaping
- Concept 3.8.4: The Root-Locus Method
Topic 3.9: Robust Performance & Fundamental Limits
- Concept 3.9.1: Modeling Uncertainty
- Concept 3.9.2: Stability and Performance in the Presence of Uncertainty
- Concept 3.9.3: System Design Considerations
- Concept 3.9.4: Robust Pole Placement
- Concept 3.9.5: Nonlinear Effects
Applied Control Systems © Assoc. Prof. William Robertson & Dr Sean McGowan
University of Adelaide