Home »Electrical Engineering »IIT Delhi » Power System Dynamics



Power System Dynamics

IIT Delhi Course , Prof. M.L.Kothari       Subscribe to feed

Lights off      

Lecture 24: Dynamic modeling of Hydro Turbines and Governors

Embed
Download:   MP4, FLV and 3GP 1922 views

SEE: Guide to Download NPTEL Video Lecture

Lecture Details :

Lecture series on Power System Dynamics by Prof.M.L.Kothari, Department of Electrical Engineering, IIT Delhi. For more details on NPTEL visit http://nptel.iitm.ac.in

Course Description :

Contents:
Introduction to Power System Stability Problem
Solution of Switching Equation
The Equal Area Criterion for Stability
Transient Stability Analysis of a Multi Machine System
Modeling of Synchronous Machine
Synchronous Machine Representation for Stability Studies
Excitation Systems
Modeling of Excitation Systems
Small Signal Stability of a Single Machine Infinite Bus System
Dynamic Modeling of Steam turbines and Governors
Load modeling for Stability Studies
Numerical Integration Methods for Solving a Set of Ordinary Nonlinear Differential Equation
Simulation of Power System Dynamic Response
Dynamic Equivalents for Large Scale Systems
Direct Method of Transient Stability Analysis
Sub Synchronous Oscillations
Voltage Stability
Methods of Improving Stability

Other Resources :

Citation |

Above free video lectures are presented by IIT Delhi, under NPTEL program, there are still 6000+ iit video lectures are available.

Other Electrical Engineering Courses

» check out the complete list of Electrical Engineering Video lectures          

 

Electrical Engineering Lecture Notes

 

Comments

Post your Comments

  1. Lec-1 Introduction to Power System Stability Problem-Part-1
  2. Lec-2 Introduction to Power System Stability Problem-Part-2
  3. Lec-3 Introduction to Power System Stability Problem-Part-3
  4. Lec-4 Solution of Switching Equation
  5. Lec-5 The Equal Area Criterion for Stability-Part-1
  6. Lec-6 The Equal Area Criterion for Stability-Part-2
  7. Lec-7 Transient Stability Analysis of a Multi Machine System
  8. Lec-8 Modeling of Synchronous Machine-Part-1
  9. Lec-9 Modeling of Synchronous Machine-Part-2
  10. Lec-10 Modeling of Synchronous Machine-Part-3
  11. Lec-11 Modeling of Synchronous Machine-Part-4
  12. Lec-12 Synchronous Machine Representation for Stability Studies-Part-1
  13. Lec-13 Synchronous Machine Representation for Stability Studies-Part-2
  14. Lec-14 Excitation Systems-Part-1
  15. Lec-15 Excitation Systems-Part-2
  16. Lec-16 Modeling of Excitation Systems-Part-1
  17. Lec-17 Modeling of Excitation Systems-Part-2
  18. Lec-18 Small Signal Stability of a Single Machine Infinite Bus System-Part-1
  19. Lec-19 Small Signal Stability of a Single Machine Infinite Bus System-Part-2
  20. Lec-20 Small Signal Stability of a Single Machine Infinite Bus System-Part-3
  21. Lec-21 Small Signal Stability of a Single Machine Infinite Bus System-Part-4
  22. Lec-22 Small Signal Stability of a Single Machine Infinite Bus System-Part-5
  23. Lec-23 Dynamic Modeling of Steam turbines and Governors
  24. Lec-24 Dynamic modeling of Hydro Turbines and Governors
  25. Lec-25 Load modeling for Stability Studies
  26. Lec-26 Numerical Integration Methods for Solving a Set of Ordinary Nonlinear Differential Equation
  27. Lec-27 Simulation of Power System Dynamic Response
  28. Lec-28 Dynamic Equivalents for Large Scale Systems-Part-1
  29. Lec-29 Dynamic Equivalents for Large Scale Systems-Part-2
  30. Lec-30 Dynamic Equivalents for Large Scale Systems-Part-3
  31. Lec-31 Direct Method of Transient Stability Analysis-Part-1
  32. Lec-32 Direct Method of Transient Stability Analysis-Part-2
  33. Lec-33 Sub Synchronous Oscillations-Part-1
  34. Lec-34 Sub Synchronous Oscillations-Part-2
  35. Lec-35 Voltage Stability-Part-1
  36. Lec-36 Voltage Stability-Part-2
  37. Lec-37 Voltage Stability-Part-3
  38. Lec-38 Voltage Stability-Part-4
  39. Lec-39 Methods of Improving Stability-Part-1
  40. Lec-40 Methods of Improving Stability-Part-2