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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
  • Classical Control
  • Modern Control
  • Robust Control Systems

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

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