Electric Power System Stability - Fundamentals

This course delves into the crucial aspects of electric power system stability and steady-state performance. You'll gain a comprehensive understanding of how various controllers and operating conditions impact the overall health and reliability of power grids.

We'll explore a wide range of topics, including:

• Steady-State Performance and Equilibrium: Learn to model, simulate, and analyze power systems under normal operating conditions.
• Power System Stability Studies: Investigate various stability scenarios, encompassing both steady-state and electromechanical transient phenomena.
• Enhancing Power System Stability: Discover practical methods and measures to improve the resilience and robustness of power systems.
• Excitation and Speed Control Systems: Analyze and evaluate the performance of power systems equipped with different excitation and speed control strategies.
• Stability Criteria & Performance Prediction: Apply different stability criteria to analyze and predict the performance of simplified power system models.

Throughout the course, we'll emphasize the practical application of concepts, incorporating the use of industry-standard software tools like PSAT and ETAP to validate theories and solve real-world power system stability problems.

Upon completion, you will be able to:

1. Model, Simulate, and Analyze: Effectively model, simulate, and analyze electric power systems affected by steady-state and electromechanical transient phenomena.
2. Mitigation Techniques: Study the effects of power system problems in steady-state and transient conditions and propose effective mitigation techniques.
3. Control System Analysis: Perform, analyze, and evaluate steady-state and transient conditions in power systems with diverse excitation and speed control systems.
4. Performance Analysis: Analyze and predict the performance of simplified power systems using various stability criteria.
5. Stability Enhancement: Understand various stability phenomena, apply appropriate analytical approaches, and implement strategies to enhance power system stability levels.
6. Software Application: Utilize software tools like PSAT and ETAP to effectively solve complex power system stability challenges.