Power Network Analysis

Participants should join this course to gain a clear and practical understanding of power system analysis and protection. It prepares students for industry roles, higher studies, and competitive exams by covering both classical concepts and modern smart grid challenges.

• Introduction

• Basic Circuit Principles – Phasor Diagrams

• Basic Circuit Principles – Power in 1 Φ AC Circuit

• Basic Circuit Principles – Power in 3 Φ AC Circuit

• Transformers and Per Unit Analysis – Basics of Transformers

• Transformers and Per Unit Analysis – Basic and 3 Φ Transformers

• Transformers and Per Unit Analysis – Per Unit Analysis

• Transformers and Per Unit Analysis – Example

• Synchronous Generators – Basics of 3 Φ Machines

• Synchronous Generators – Induced EMF, Armature Reaction

• Transmission Line Parameters – Capacitance of 3 Φ Lines, Effects of Earth

• Synchronous Generators – Power Expressions and Capability Curves

• Synchronous Generators – Capability Curves

• Synchronous Generators – Real and Reactive Power Control

• Synchronous Generators – Economic Dispatch

• Synchronous Generators – Parallel Operation

• Transmission Line Parameters – Line Resistance

• Transmission Line Parameters – Inductance Due to Internal Flux

• Transmission Line Parameters – Inductance Between Points Outside the Conductor

• Transmission Line Parameters – Magnetic Flux Linkage of a Conductor in a Group of Conductors

• Transmission Line Parameters – Inductance of 3 Φ Lines

• Transmission Line Parameters – Capacitance Evaluation

• Transmission Line Parameters – Capacitance of 3 Φ Lines, Effects of Earth

• Transmission Line Parameters – Use of Tables for Reactance Calculation and Example

• Transmission Line Models and Performance – Basics, Two-Port Networks