The BRADLEY DEPARTMENT of ELECTRICAL and COMPUTER ENGINEERING

ECE 6354 Power System Dynamics and Control | ECE | Virginia Tech

Graduate PROGRAMS

Course Information

Description

Dynamic modeling, stability analysis, and control of multi-machine power systems. Single-machine dynamic modeling, multi-machine dynamic modeling, network differential-algebraic equations and solution methods, small-signal stability analysis, and design of power system stabilizers.

Why take this course?

Operators and planners for electric power utilities routinely perform dynamic stability analysis to assess the stability margins of their power systems and take preventive actions in case these margins are insufficient. They also design controllers and protection schemes to enable their power systems to dampen instabilities and withstand disturbances. Therefore, it is essential that the students be exposed to these modeling and design tools. This course will expose them to various models, methodologies and simulation techniques for multi-machine systems and their controllers. This topic is not covered in other courses.

Prerequisites

5314

Major Measurable Learning Objectives

  • Derive synchronous machine models
  • Analyze synchronous machine automatic voltage controllers
  • Analyze turbine models and speed governors
  • Derive single machine two-axis and flux-decay dynamic models and study their underlying hypotheses
  • Derive multi-machine power system dynamic models
  • Evaluate and apply numerical solution methods of differential-algebraic equations governing multi-machine power systems
  • Analyze methods of small-signal stability analysis of multi-machine power systems
  • Design power system stabilizers to dampen inter-area modes of oscillation

Course Topics

Topic

Percentage of Course

1. Synchronous machine models 20%
2. Synchronous machine control models 20%
3. Single-machine dynamic models: two-axis and flux-decay models 10%
4. Multi-machine dynamic models 10%
5. Network differential-algebraic equations and solution methods 10%
6. Basic linearization techniques of differential equations 10%
7. Modal analysis and participation factors 10%
8. Design of power system stabilizers 10%