1 Introduction 2 Load Flow Analysis 3 Economic Operation of Power Systems 4 Optimal Load Flow 5 Unit Commitment 6 Load Frequency Control 7 Control of Interconnected Systems 8 Voltage and Reactive Power Control 9 Introduction to Advanced Topics

 Introduction  Secure state  Security analysis-linear sensitivity analysis method

 Introduction  Optimal power flow model  Solution of optimal power flow by linear programming

 Introduction-Why we need state estimation in power system  Problem Formulation  Case Study  Advanced topics:  Hybrid Power System State Estimation (with SCADA and PMU)  Placement of Meters  Power System Sensor Network

 Introduction  Phasor Measurement Unit (PMU)  Control based on WAMS  state of arts and development trend

 Introduction  Concept of Reactive power in power system  Control and management of reactive and voltage  Difference between active power & frequency regulation  Importance of voltage control  Measures for voltage control  Rules of reactive compensation and voltage control  Excitation control of generator

 Introduction  Mathematical model  Generator model  Load model  Prime mover model  Governor model  Tie-line model  Automatic Generation Control (AGC:自动发电控制)

 Introduction  Solution of Unit Commitment  Solution of Unit Commitment with Dynamic Programming

 Introduction  Problem formulation  Characteristics of prime mover-generator  Model of economic dispatch and its solution  Economic dispatch considering line loss  Gradient method  Newton method  Dynamic programming  Co-dispatch of thermal and hydro plants

 Development of Power Grid: state of art  Induction to Power System Operation  Operation status and constraints of power network  Power system dispatch  Power system model