ECE 430 Power System Analysis
Department of Electrical & Computer
Engineering
University of Alberta
Course Instructor: Prof. Venkata Dinavahi
Office: DICE 11-356
Email: d i n a v a h i @ u a l b e r t a . c a
Office hours: Fri 2-4PM.
Course website: E-Class
- ``Power System Analysis and Design- Fifth Edition'' by
J. D. Glover, M. S. Sarma, and T. J. Overbye, Brooks/Cole, Thompson
Learning, 2012.
The concept and calculation of resistance, inductance and
capacitance of a power line; concept of three-phase line
parameters and phase coupling; Concepts of Transposition,
and Bundling, and their impact on Line Parameters
and Operation; Multiple circuit AC lines; Compensation Techniques; Flexible AC
Transmission Systems (FACTS); HVDC transmission;
Series R-L circuit transients; Three-phase short-circuit (unloaded synchronous machine); Power system three-phase short circuits; Bus impedance matrix; Circuit breaker and fuse selection
Definition of symmetrical components; Sequence networks of impedance loads; Sequence networks of series impedances; Sequence networks of three-phase lines; Sequence networks of rotating machines; Per-unit sequence models of three-phase two-winding transformers; Per-unit sequence models of three-phase three-winding transformers; Power in sequence networks.
Direct solution of linear algebraic equations (Gauss Elimination);
Iterative solution of linear algebraic equations (Jacobi and
Gauss-Seidel); Iterative solution to non-linear algebraic equations
(Newton-Raphson); Introduction to PowerWorld Software; Power flow
problem; Power flow solution be Gauss-Seidel; Power flow solution by
Newton-Raphson; Control of power flow; sparsity techniques; Fast
decoupled load flow
Generator Voltage Control; Turbine-Governor Control; Load Frequency
Control (LFC); Economic Dispatch (ED); Coordination of LFC with ED
Introduction to power market; EMS and SCADA; Tele-control Schemes.
System representation; Single-line-to-ground fault; Line-to-line fault; Double-line-to-ground fault; Sequence bus impedance matrices.
EE 330 Fundamentals of Power Engineering
