Abstract
The ITER tokamak requires diagnostics that on the one hand have a high sensitivity, high spatial and temporal resolution and a high dynamic range, while on the other hand are robust enough to survive in a harsh environment.In recent years significant progress has been made in addressing critical challenges to the development of spectroscopic (but also other) diagnostics. This contribution presents an overview of recent achievements in 4 topical areas: First mirror protection and cleaning, Nuclear confinement, Radiation mitigation strategy for optical and electronic components and Calibration strategies
Original language | English |
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Article number | P08010 |
Journal | Journal of Instrumentation |
Volume | 11 |
Issue number | 8 |
Pages (from-to) | 11 |
ISSN | 1748-0221 |
DOIs | |
Publication status | Published - 2016 |
Keywords
- Instrumentation
- Mathematical Physics
- Nuclear instruments and methods for hot plasma diagnostics
- Plasma diagnostics-charged-particle spectroscopy
- Charged particles
- Magnetoplasma
- Plasma diagnostics
- Radiation protection
- Tokamak devices
- Charged particle spectroscopy
- Critical challenges
- Electronic component
- Harsh environment
- High dynamic range
- Mitigation strategy
- Nuclear instruments
- Spatial and temporal resolutions
- Nuclear reactors
- INSTRUMENTS
- Plasma diagnostics - charged-particle spectroscopy
- Plasma in torus (stellarator, tokamak, etc.)
- Confinement in fusion experiments
- Plasma diagnostic techniques and instrumentation
- Measurement standards and calibration
- Fusion reactor materials
- calibration
- fusion reactor materials
- plasma diagnostics
- plasma toroidal confinement
- fusion reactor diagnostics
- ITER tokamak
- first mirror protection
- nuclear confinement
- radiation mitigation strategy
- optical components
- electronic components
- calibration strategy