Glow discharges and tokamaks /
Clasificación: | Libro Electrónico |
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Otros Autores: | |
Formato: | Electrónico eBook |
Idioma: | Inglés |
Publicado: |
Hauppauge, N.Y. :
Nova Science Publishers,
©2010.
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Colección: | Physics research and technology.
|
Temas: | |
Acceso en línea: | Texto completo |
Tabla de Contenidos:
- GLOW DISCHARGES AND TOKAMAKS
- GLOW DISCHARGES AND TOKAMAKS
- Contents
- Preface
- Automatic Control Systems in Tokamak Plasmas: Current Status and Needs
- Abstract
- 1. Introduction
- II. Preliminaries
- A. Classical Automatic Control
- 1. The concept of feedback control
- 2. Topics of importance in system control
- 3. The PID controller
- B. Modern Control Strategies
- 1. Adaptive control
- 2. Optimal control
- 3. Stochastic control
- 4. Robust control
- 2. Intelligent control
- C. The Tokamak Fusion Device
- 1. Anatomy of a tokamak2. Experimental results
- D. Physics Modelling of Tokamak Plasmas
- 1. Plasma equilibrium and stability
- 2. Auxiliary heating and diagnostics
- III. Overview of Feedback Control in Tokamak Plasmas
- A. Short History of Tokamak Automatic Control
- B. Classes of Problems Requiring Feedback Control
- IV. Plasma Equilibrium Control
- A. Plasma Shape Identification
- B. Control of the Plasma Shape and Position
- 1. Modelling the plasma-vessel-coil interaction
- 2. Radial position and shape control
- 3. The problem of vertical stabilizationC. Integrated Control Solutions
- V. Feedback Control of Mhd Instabilities
- A. The Problem of Resistive Wall Modes
- 1. Model of the RWM instability
- 2. Methods of stabilization
- B. Suppression of Neoclassical Tearing Modes
- 1. The modified Rutherford equation
- 2. Stabilization by current drive
- C. Edge Localized Modes
- VI. Other Tokamak Control Issues
- A. Controlling the Plasma Profiles
- B. Off-Normal Effects
- VII. Conclusion
- Acknowledgments
- References
- Lower Hybrid Current Drive Experiments in the HT-7 TokamakAbstract
- 1. Experimental Setup
- 2. LHCD Efficiency
- 2.1. CD Efficiency
- 2.2. OH-RF Synergy Current Drive
- 3. Improved LHCD Efficiency by IBW Heating
- 4. Hot Electrical Conductivity in LHCD Plasmas
- 5. LHCD for High Performance Experiment
- 6. Behaviors of Fast Electrons in LHCD Plasmas
- 6.1. Transport of Fast Electrons
- 6.2. Photon Temperature of Fast Electrons Distribution
- 6.3. Oscillations in the FEB Emissions
- a. Inverted sawtooth-like oscillation
- B. sawtooth-like oscillationAcknowledgments
- References
- Principles and Application of Small Size Divertor Tokamak Plasma Edge
- Abstract
- Nomenclature
- Introduction
- 1. The Concept of the Tokamak Device
- 2. The Plasma Edge
- 2.1. Importance of the plasma edge behaviour
- 2.2. Controlling the plasma Edge
- 3. Basic Transport Equations (Fluid Equations)
- 3.1. Particle balance equation
- 3.2. Parallel momentum balance for ions
- 3.3. Parallel momentum balance for electrons
- 3.4. Current continuity equation