Experimental investigation of fast transients in the MAST-U Super-X divertor and its relation to the SOL
Lead Research Organisation:
University of York
Department Name: Physics
Abstract
The supervisors for my project within the Fusion CDT are Dr. Istvan Cziegler (University of York), Dr. Kevin Verhaegh (UKAEA), and Dr. Chris Bowman (UKAEA). Under their supervision, I will be researching divertor diagnostics in the MAST-U.
I've been interested in nuclear fusion since I learned about it during my GCSEs. However, during my A-Levels and undergraduate degree at the University of Bath, I didn't have the opportunity to study it again. When I went to do my Master's at the University of Strathclyde, I revived my interest in fusion research, and as a result I chose to do my MSc project in simulating a Gaussian beam-based plasma turbulence diagnostic for the MAST-U and apply for a project within the CDT.
The role of a divertor in a magnetically confined fusion reactor is as a power exhaust and heat management component of the vessel, as well as other critical functions such as minimising plasma contamination and managing plasma-edge instabilities. My work as part of the Fusion CDT will be experimental and simulation work in divertor diagnostics for efficient power exhaust of the MAST-U, studying burn-through dynamics of edge-localised modes (ELMs) and other high-power transients as a function of divertor topology, and researching the behaviour of divertor filaments. The aim is to develop and experimentally verify simulations that more accurately predict plasma-edge behavior in the reactor and explore analysis techniques for alternative divertor concepts (ADCs).
I've been interested in nuclear fusion since I learned about it during my GCSEs. However, during my A-Levels and undergraduate degree at the University of Bath, I didn't have the opportunity to study it again. When I went to do my Master's at the University of Strathclyde, I revived my interest in fusion research, and as a result I chose to do my MSc project in simulating a Gaussian beam-based plasma turbulence diagnostic for the MAST-U and apply for a project within the CDT.
The role of a divertor in a magnetically confined fusion reactor is as a power exhaust and heat management component of the vessel, as well as other critical functions such as minimising plasma contamination and managing plasma-edge instabilities. My work as part of the Fusion CDT will be experimental and simulation work in divertor diagnostics for efficient power exhaust of the MAST-U, studying burn-through dynamics of edge-localised modes (ELMs) and other high-power transients as a function of divertor topology, and researching the behaviour of divertor filaments. The aim is to develop and experimentally verify simulations that more accurately predict plasma-edge behavior in the reactor and explore analysis techniques for alternative divertor concepts (ADCs).
People |
ORCID iD |
| Sanjana Reddy (Student) |
Studentship Projects
| Project Reference | Relationship | Related To | Start | End | Student Name |
|---|---|---|---|---|---|
| EP/Y035062/1 | 31/03/2024 | 29/09/2032 | |||
| 2928862 | Studentship | EP/Y035062/1 | 15/09/2024 | 14/09/2028 | Sanjana Reddy |