Curriculum Map
Course: Control Systems
Author
Carlotta A. Berry, Ph.D., Assistant Professor, Department of Electrical and Computer Engineering, Rose-Hulman Institute of Technology, Terre Haute, IN, USA
Course Topics
System Modeling
| Relevant Material | Type | Description | Source |
|---|---|---|---|
| Differential Equation Description |
Figure | Figure 19.1.2 and Figure 19.1.3 show the dual relationship between an RLC circuit and the spring, mass, damper system that can be described by a second order differential equation |
Standard Handbook of Electronic Engineering |
| State Variable Description | Text | This text describes the derivation of the state variable model from a second order differential equation to describe a system | Standard Handbook of Electronic Engineering |
| Transfer Function Model |
Figure | Figure 19.1.4 shows the transfer function model to illustrate the frequency response to a system by using G(s) = Y(s)/U(s) | Standard Handbook of Electronic Engineering |
| Differential Equation to Transfer Function | Example | Derivation of the transfer function of a system given the differential equation |
Standard Handbook of Electronic Engineering |
| State Space to Transfer Function | Example | Derivation of the transfer function of a system given the state space description |
Standard Handbook of Electronic Engineering |
| Poles and Zeros | Example | Finding the poles and zeros of a system described by a transfer function |
Standard Handbook of Electronic Engineering |
Classical Control
| Relevant Material | Type | Description | Source |
|---|---|---|---|
| Motion Control Example |
Video | Video describes the design of a P and PD controller for motion control |
Standard Handbook of Electronic Engineering |
| Motion Control System | Figure | Figure 19.1.14 illustrates the simulation model for the feedback control of a motion control system |
Standard Handbook of Electronic Engineering |
| Root Locus | Figure | Figure 19.1.15 shows the root locus plot for the motion control system design problem |
Standard Handbook of Electronic Engineering |
| Sensitivity | Text | Designing a PD controller to be less sensitive to sensor noise |
Standard Handbook of Electronic Engineering |
| Controller Sensitivity | Video | Video demonstrates how to make a controller less sensitive to sensor noise |
Standard Handbook of Electronic Engineering |
| Phase and Gain Margin | Video | Video describes how to find the gain and phase margin on the Bode plot for a system |
Standard Handbook of Electronic Engineering |
Modern Control
| Relevant Material | Type | Description | Source |
|---|---|---|---|
| Eigenvalue Assignment Design |
Text | Illustration of state space design by using eigenvalue assignment |
Standard Handbook of Electronic Engineering |
| Eigenvalue Assignment Design | Video | Video demonstrates state space design by using eigenvalue assignment |
Standard Handbook of Electronic Engineering |
| Linear Quadratic Regulator | Text | Minimize the quadratic cost by designing a linear quadratic regulator for a system |
Standard Handbook of Electronic Engineering |
| Linear Quadratic Regulator Problem | Video | Video demonstrates how to use a Linear Quadratic Regulator on a control system |
Standard Handbook of Electronic Engineering |
Robust Control Systems
| Relevant Material | Type | Description | Source |
|---|---|---|---|
| System Stability |
Video | Video describes how to design a controller to stabilize an unstable system with uncertain parameters |
Standard Handbook of Electronic Engineering |
