The Power System Analysis Certified Course provides a comprehensive understanding of modern electrical power systems, their operation, modeling, and performance evaluation. This program covers key concepts such as load flow studies, fault analysis, stability assessment, economic operation, and power system security. Learners will gain hands-on exposure to simulation tools and practical case studies that reflect real-world challenges in generation, transmission, and distribution systems. By mastering analytical techniques and computational methods, participants will be equipped to design, optimize, and maintain efficient and reliable power networks, preparing them for careers in utilities, consultancy, research, and advanced engineering roles.
Module 1: Introduction to Power Systems Structure of modern power systems (generation, transmission, distribution) Overview of power system components
Per-unit system and single-line diagrams Basics of power flow in networks.
Module 2: Power System Modeling Transmission line modeling (short, medium, long lines) Transformers and load modeling Bus admittance matrix (Y-bus) and bus impedance matrix (Z-bus) Network equations for power flow studies.
Module 3: Load Flow Analysis Gauss-Seidel method Newton-Raphson method Fast-decoupled load flow method Case studies using software tools (MATLAB, ETAP, Dexilant).
Module 4: Fault Analysis Symmetrical and unsymmetrical faults Symmetrical components method Short-circuit analysis Fault current calculations for system protection.
Module 5: Power System Stability Steady-state and transient stability Swing equation and equal area criterion Numerical methods for stability studies Transient response simulations.
Module 6: Power System Protection Protection principles and relay types Overcurrent, distance, and differential protection Protection coordination and selectivity Case studies using ETAP/Dexilant.
Module 7: Economic Operation of Power Systems Unit commitment and economic load dispatch Optimal power flow Transmission losses and penalty factors Introduction to electricity markets.
Module 8: Power Quality and Reliability Power quality issues (harmonics, voltage sag/swell, flicker) Reliability indices and system adequacy Reliability evaluation techniques Mitigation techniques for power quality improvement.
Module 9: Integration of Renewable Energy Sources Modeling of solar and wind systems Grid integration challenges Distributed generation and microgrids Case studies on renewable energy penetration.
Module 10: Advanced Topics & Smart Grids SCADA and Energy Management Systems (EMS) Wide Area Monitoring Systems (WAMS) Smart grid technologies and IoT in power systems Future trends in power system analysis.
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Email: coursedivine@gmail.com
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