Power System Operation and Control--This course provides an in-depth understanding of electric power systems' operation, control, and optimization. It covers the fundamental principles of power system operation, including generation control, frequency control, voltage control, and the economic dispatch of power. Students will also explore the dynamic behavior of power systems, stability considerations, and the impact of modern control techniques.

Course Outline:

1. Introduction to Power System Operation

• Overview of Power Systems

• Structure and Components of Power Systems

• Basic Operation of Power Systems

• Real-Time Operation and Control

2. Economic Dispatch and Unit Commitment

• Economic Dispatch Problem

• Methods of Economic Dispatch

• Unit Commitment Problem

• Solution Techniques for Unit Commitment

• Impact of Transmission Losses on Economic Dispatch

3. Load Frequency Control (LFC)

• Importance of Frequency Control in Power Systems

• Primary and Secondary Frequency Control

• LFC in Single-Area and Multi-Area Power Systems

• Automatic Generation Control (AGC)

• Modeling and Simulation of LFC

4. Voltage Control and Reactive Power Management

• Importance of Voltage Control

• Methods of Voltage Control

• Reactive Power Compensation

• Voltage Stability

• Control Devices: Transformers, Capacitors, Reactors, FACTS Devices

5. Modern Control Techniques in Power Systems

• Introduction to SCADA Systems

• Wide-Area Monitoring Systems (WAMS)

• State Estimation Techniques

• Application of Artificial Intelligence in Power System Control

• Real-Time Monitoring and Control Systems

Power System Dynamics and Stability--. This course is designed to provide advanced knowledge and analytical techniques in the dynamic behavior of power systems, focusing on stability analysis and control.

 Course Outline: 

1. Course Introduction

• Overview of Power System Dynamics

• Importance of Stability in Power Systems

• Historical perspective and case studies of blackouts due to instability

2. Power System Components and Modeling

• Synchronous Machines: Modeling and Dynamics

• Excitation Systems and their Dynamic Models

• Load Models: Static and Dynamic Characteristics

• Transmission Line Models and Reactive Power Compensation

3. Dynamic Equations and System Modeling

• Swing Equation and its Derivation

• Linearization of System Equations

• State-Space Representation of Power Systems

• Small-Signal Stability (Eigenvalue Analysis)

4. Transient Stability Analysis

• Equal Area Criterion

• Numerical Integration Methods for Transient Stability

• Multi-Machine System Stability

• Factors Affecting Transient Stability (Faults, Switching, etc.)

5. Voltage Stability

• Mechanisms of Voltage Collapse

• Voltage Stability Indices

• Reactive Power Management and Control

• Static vs. Dynamic Voltage Stability

6. Frequency Stability

• Mechanisms of Frequency Instability

• Primary and Secondary Frequency Control

• Under-Frequency Load Shedding

• System Frequency Response Models

7. Control of Power System Dynamics

• Automatic Generation Control (AGC)

• Power System Stabilizers (PSS)

• Load Frequency Control (LFC)

• Excitation System Control

8. Advanced Stability Concepts

• Nonlinear System Analysis

• Bifurcation Theory in Power Systems

• Lyapunov Stability Theory

• Direct Methods for Transient Stability Assessment

9. Application of FACTS Devices in Stability Enhancement

• FACTS Devices: Overview and Operation

• Impact of FACTS on Transient and Voltage Stability

• Integration of FACTS in Power System Dynamics

10. Real-Time Stability Monitoring and Control

• Phasor Measurement Units (PMUs) and Wide Area Monitoring Systems (WAMS)

• Real-Time Stability Analysis Tools

• Case Studies on Real-Time Stability Control

11. Renewable Energy Integration and Stability

• Impact of Renewable Energy Sources on System Dynamics

• Stability Challenges with High Penetration of Renewables

• Control Strategies for Grid-Connected Inverters

12. Case Studies and Applications

• Analysis of Historical Blackouts

• Stability Studies for Power System Planning

• Simulation and Analysis of Real-World Power System Events

Power System Analysis--This course provides an in-depth understanding of power system analysis techniques and their applications. It covers advanced topics in load flow studies, fault analysis, stability analysis, and state estimation, with a focus on both theoretical concepts and practical approaches.

Course Outline:

1. Introduction and Review of Power System Fundamentals

• Review of basic power system components (generators, transformers, transmission lines).

• Per-unit system and network modeling.

• Network equations and matrix representation.

2. Load Flow Analysis

• Introduction to load flow analysis.

• Newton-Raphson, Gauss-Seidel, and Fast-Decoupled methods.

• Convergence criteria and handling ill-conditioned systems.

• Power flow in deregulated environments.

3. Fault Analysis

• Types of faults in power systems: symmetrical and asymmetrical faults.

• Symmetrical components and their applications in fault analysis.

• Fault calculation techniques for different types of faults (single line-to-ground, line-to-line, double line-to-ground).

• Impact of faults on system stability and protection schemes.

4. Power System Stability

• Introduction to power system stability.

• Rotor angle stability: transient and small-signal stability.

• Voltage stability and its significance.

• Methods of improving system stability (power system stabilizers, FACTS devices).

5. State Estimation in Power Systems

• Introduction to state estimation and its importance.

• Weighted Least Squares (WLS) method for state estimation.

• Observability analysis and bad data detection.

• Applications of state estimation in power system operation.

6. Advanced Topics in Power System Analysis

• Power system reliability and security.

• Introduction to power system optimization.

• Integration of Renewable Energy Sources and Their Impact on Power System Analysis.

• Emerging trends in power system analysis (smart grids, microgrids).