Power System Analysis

1. Training Introduction

Power system analysis is fundamental for planning, operation, and reliability assessment of electrical networks. It involves studying the behavior of power systems under steady-state and dynamic conditions, analyzing faults, stability, and performance and ensuring secure operation.

This programme equips participants with theoretical knowledge and practical skills to perform load flow studies, fault analysis, stability assessment, and network optimization, preparing them for roles in utilities, consulting, and energy planning.

 

2. Training Objective

By the end of this programme, participants will be able to:

1. Understand fundamental concepts of power system analysis.
2. Perform load flow and network modeling.
3. Conduct short-circuit and fault analysis.
4. Analyze power system stability and dynamic behavior.
5. Apply reactive power and voltage control techniques.
6. Utilize simulation tools for network optimization and performance assessment.
7. Recommend solutions for reliability, efficiency, and operational improvement.

 

3. Targeted Group

The programme is suitable for:

• Power system engineers and planners
• Grid operators and control room personnel
• Transmission and distribution engineers
• Protection and relay engineers
• Energy consultants and technical analysts
• Graduate students in electrical engineering or power systems

 

4. Course Duration

• Total Duration: 2 Weeks
• Weekly Commitment: 16 Hours (Lectures + Labs + Exercises)

Total Learning Hours: ~40–45 hours

 

5. Training Methodology

Blended learning approach combining:

• Instructor-led theoretical sessions
• Hands-on labs and simulation exercises
• Real-world case studies and problem-solving exercises
• Group workshops and scenario-based exercises
• Assignments and exercises using simulation software
• Capstone project integrating analysis techniques

Assessment includes quizzes, lab reports, assignments, and a final capstone project.

 

6. Course Modules & Content

Module 1 — Fundamentals of Power Systems

• Overview of generation, transmission, and distribution systems
• System components and interconnections
• Electrical quantities and phasor representation
• Introduction to power system modeling

Activity: Create a simple network model using phasor diagrams

 

Module 2 — Network Modeling & Per-Unit System

• Representation of transmission lines, transformers, and loads
• Per-unit system calculations and advantages
• Single-line diagrams and network data preparation
• Equivalent circuits for analysis

Exercise: Model a sample network using per-unit system

 

Module 3 — Load Flow Analysis

• Power flow equations and solution methods (Gauss-Seidel, Newton-Raphson)
• Bus types and load flow modeling
• Voltage profile and power loss analysis
• Interpretation of load flow results

Lab: Perform load flow analysis on a sample network

 

Module 4 — Short-Circuit & Fault Analysis

• Types of faults: symmetrical and unsymmetrical
• Fault current calculation methods
• Protective device coordination and selection
• Impact of faults on system stability and protection

Exercise: Conduct fault analysis for line and transformer faults

 

Module 5 — Power System Stability

• Types of stability: rotor angle, voltage, and frequency stability
• Dynamic behavior of synchronous machines
• Small-signal and transient stability analysis
• Stability improvement techniques

Workshop: Simulate transient stability response to disturbances

 

Module 6 — Reactive Power & Voltage Control

• Importance of reactive power in system operation
• Voltage regulation techniques
• Compensation methods (shunt, series, FACTS devices)
• Reactive power planning for reliability

Lab: Evaluate voltage control using reactive power compensation

 

Module 7 — Advanced Analysis & Simulation

• Contingency analysis and N-1 criterion
• Power system optimization techniques
• Integration of renewables and distributed generation in analysis
• Simulation software tools and case studies

Activity: Optimize a network considering load and generation constraints

 

Module 8 — Capstone Project: Integrated Power System Analysis

• Apply concepts to a real or simulated network
• Perform load flow, fault, and stability analysis
• Evaluate voltage, reactive power, and performance indicators
• Present findings and recommendations

Deliverable: Capstone report and presentation

 

7. Expected Outcomes

Participants completing this programme will:

✔ Understand power system modeling and analysis principles
✔ Conduct load flow, fault, and stability studies
✔ Apply reactive power and voltage control techniques
✔ Utilize simulation tools for system performance assessment
✔ Evaluate operational reliability and propose improvement measures
✔ Integrate renewable energy into system analysis
✔ Present comprehensive power system analysis solutions

 

8. Certificate of Completion

Participants who:

• Attend at least 80% of sessions
• Complete all module exercises and lab assignments
• Submit and present the capstone project

will receive a Certificate of Completion from:

FOTADE Training, Research and Resource Development Centre

Certificate Includes:

• Participant’s Full Name
• Programme Title: Power System Analysis
• Duration & Completion Date
• Summary of Skills Acquired
• Official Seal & Signature of Programme Director