activity
20242026
collaborators

6 papers

physics.plasm-ph2026

Understanding and Quantifying Banana Coil Magnetic Fields and Forces for Enhanced Optimisation

Annika Zettl, Tobias Schuett, Sophia Henneberg

The optimised tokamak-stellarator hybrid concept (Henneberg and Plunk 2024) has the potential to combine tokamak and stellarator advantages to achieve magnetically confined fusion.…

physics.plasm-ph2025

Characterisation of X- and O-points in Wendelstein 7-X with respect to coil currents

Robert Davies, Christopher B. Smiet, Charlotte Batzdorf +3

This work analyses vacuum magnetic field topology in Wendelstein 7-X (W7-X) with respect to changes in the current in the superconducting coils. We develop a fast automated scheme…

physics.plasm-ph2025

The topology of non-resonant stellarator divertors

Robert Davies, Christopher B. Smiet, Alkesh Punjabi +2

We apply topological methods to better understand how the magnetic field in the stellarator edge can be diverted away from the confined region. Our primary method is calculating th…

physics.plasm-ph2024

Exploring novel compact quasi-axisymmetric stellarators

Tobias M. Schuett, Sophia A. Henneberg

The new class of compact quasi-axisymmetric stellarators with a wide range of field periods offers the unique potential to combine the advantages of the two leading magnetic confin…

physics.plasm-ph2024

A compact stellarator-tokamak hybrid

S. A. Henneberg, G. G. Plunk

Tokamaks and stellarators are the leading two magnetic confinement devices for producing fusion energy, begging the question of whether the strengths of the two could be merged int…

physics.plasm-ph2024

Quasi-isodynamic stellarators with low turbulence as fusion reactor candidates

Alan G. Goodman, Pavlos Xanthopoulos, Gabriel G. Plunk +7

The stellarator is a type of fusion energy device that - if properly designed - could provide clean, safe, and abundant energy to the grid. To generate this energy, a stellarator m…