Contents & References of Investigating the dynamic stability of the expansion turbine power plant generator in the presence of power electronics
List:
Abstract..1
Chapter One: Introduction
1-1 Introduction..3
1-2 Expansion Turbine..3
1-3 Expansion Turbine Generator..4
1-4 Fact Tools..5
1-4-1 Controller FACT:..6
Chapter Two: Expansion Turbine
2-1 Introduction:..8
2-2 Types of Turbine..8
2-3 Expansion Turbine..9
2-3-1 Advantages of using Expansion Turbine.10
2-3-2 Structure of Expansion Turbine..10
2-3-3 necessary features in the design of the expansion turbine. 11
2-3-4 The main parts of an expansion turbine power plant. 12
2-3-4-1 Ball valve..13
2-3-4-2 Safety trip valve (STV.14
2-3-4-3 Preheater). 2-3-4-4 Regulator. 15 5-4-3-2 Turbine. 16 2-3-4-6 Shaft and gearbox. 17 2-3-4-7 Generator. 20 2-3-4-8 Reheater. 21
Chapter: 3-1. Introduction.. 22
3-2. Introduction of asynchronous generator.. 23
3-2-1 Advantages of asynchronous generator.. 25
3-2-2 Disadvantages of asynchronous generator.. 25
3-2-3. Speed. 26
3-2-4 generator working point..26
3-2-5 Asynchronous generator connected to the grid (GCIG). 27
3-2-7 Economic advantages of asynchronous generator. Fact
4-1 Introduction ..31
4-2. Characteristics of static compensators. 31
4-2-1. Ideal static compensator. 31
3-2-2. Structure of SVC..33
4-2-2-1. SVC dynamic model ..36
3-2-3. STATCOM structure ..38
Chapter Five: Stability improvement methods
5-1 Introduction..41
5-2 Amount of reactive power consumed by asynchronous generator.41
5-3 Review of different methods of compensating the reactive power of the expansion turbine generator.43
5-4 Different modes studied.43
5-4- 1 The set of different modes examined in the project. 43
Chapter 6: Simulation
6-1 Introduction..46
6-2 System assumptions for simulation. 46
6-2-1 Parameters set for simulation elements. Fact in a stable way. 6-3-2 Network simulation with SVC next to the generator in a stable way. 6-3-3 Network simulation with a STATCOM next to the generator in a stable way.
6-3-5 network simulation with SVC next to the generator considering a symmetrical three-phase short circuit at the generator terminal..64
6-3-6 network simulation with a STATCOM next to the generator considering a symmetrical three-phase short circuit at the generator terminal. Fact, taking into account the momentary interruption of gas input turbine. 70 6-3-7 Network simulation with SVC next to the generator, taking into account momentary interruption of gas input turbine. Turbine..76
Chapter Seven: Conclusions and Suggestions
7-1 Simulation results for the steady state of the generator and turbine.80
7-1-1 Simulation results in the steady state of the generator and turbine without the presence of fact devices and in the presence of fact devices on the generator terminal voltage..80
7-1-2 Simulation results in the steady state of the generator and Turbine without the presence of fake devices and in the presence of fake devices on the reactive power of the generator terminal. 82
7-2 Simulation results for the three-phase symmetrical short circuit condition at the generator terminal. 83
7-2-1 Simulation results in the symmetrical three-phase short circuit condition at the generator terminal without the presence of devices
Fact and in the presence of fake devices on the terminal voltage 83. 7-2-2 Simulation results in the case of three-phase symmetrical short circuit at the generator terminal in the presence of SVC on reactive power.86
7-3-1 The results of the simulation of momentary interruption of the gas entering the turbine without the presence of fact devices and in the presence of fact devices on the generator terminal voltage. 87
7-3-2 The simulation results of momentary interruption of the gas entering the turbine without the presence of fact devices and in the presence of
fact devices on the reactive power. 88
Conclusion General.
Suggestions.
List of references.92
Source:
Mirsalim, Mojtabi, "Electric machines and transformers," Amirkabir University of Technology Publishing Center, first edition, 1379.
Qazi, Reza, "Reactive power control in systems Elektriki," Mashhad University Press, 1371
Catalogs related to Neka Power Plant expansion turbine project
English sources
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