Course Description
Power System Analysis Training Course provides a comprehensive understanding of how electrical power systems behave under both normal and faulted conditions. Modern power systems require accurate modeling and analysis to ensure stability, reliability, and efficient operation across generation, transmission, and distribution networks.
This Power System Analysis Training Course explains key analytical concepts such as phasors, per-unit systems, and symmetrical components in a clear and practical manner. Participants will learn how to model system components including transmission lines, transformers, generators, and loads, enabling a deeper understanding of system performance.
The training course also focuses on real-world applications such as power flow analysis, short circuit calculations, and transient stability assessment. By combining theory with practical examples and simulations, participants will gain the confidence to analyze complex power systems and make informed operational and planning decisions.
What you will achieve
Power System Analysis Course objectives focus on developing strong analytical and problem-solving skills for modeling and evaluating electrical power systems. Participants will gain the ability to apply theoretical concepts to real operational scenarios.
By the end of this training course, participants will be able to:
- Perform three-phase power system calculations using phasor and per-unit methods
- Model key system components including transmission lines, transformers, generators, and loads
- Conduct power flow analysis and interpret system operating conditions
- Apply symmetrical component theory to analyze unbalanced faults
- Perform short circuit calculations using sequence networks
- Understand transient stability concepts including the equal-area criterion
How the course is delivered
Power System Analysis Course uses a structured and practical learning approach to ensure participants develop both theoretical understanding and applied analytical skills. The training course combines technical instruction with real-world problem-solving techniques.
Participants will engage in instructor-led sessions covering system modeling, power flow, fault analysis, and stability concepts. Workshops provide hands-on experience in solving calculations using phasor analysis and per-unit systems.
Case studies and simulations help visualize system behavior under different operating conditions, including contingencies and faults. Visual tools and animations simplify complex concepts such as symmetrical components and transient stability. This approach ensures participants gain practical skills to analyze, model, and optimize power systems effectively.
Designed for
Power System Analysis Training Course is designed for professionals involved in the planning, design, and operation of electrical power systems. It supports individuals seeking to strengthen their analytical capabilities and system understanding.
This training course will benefit:
- Engineers and technicians new to the power industry
- Intermediate professionals working in system planning and operation
- Individuals involved in generation, transmission, and distribution systems
- Professionals integrating renewable energy into existing grids
- Engineers aiming to optimize power system performance
Daily programme
- Time domain and phasor domain
- Phasor math
- Per-unit calculations
- Basic three-phase power calculations
- Transmission line parameter computation
- Modeling transformers, generators, and loads
- Components of AC power
- Building the Y
- bus
- and Z
- bus
- matrices
- Power flow equations
- Solution methods
- Software simulations
- Interpreting power flow results
- Load, generation, and area control error (ACE)
- Frequency bias
- Economic dispatch of generation
- Network behavior and contingencies
- Analyzing unbalanced power systems
- Symmetrical component theory
- Development of symmetrical components
- Sequence current behavior
- Detailed delta-wye transformer analysis
- Modeling sequence impedances
- Construction of sequence networks
- Analyzing harmonics as sequence currents
- Modeling faults with sequence networks
- Short circuit current calculations
- Open circuit current calculations
- Fault current versus incident energy – arc flash hazard
- Power system dynamics
- Equal-area criterion for transient stability
Certification & accreditation
BII Certificate of Completion
BII Certificate of Completion Upon successful completion, participants receive a BII Development Institute Certificate of Completion with a unique reference code that is independently verifiable. Our certificates are recognised internationally and reflect successful completion of your chosen programme.
