Optimization and coil development for a tabletop HTS pair plasma stellarator
POSTER
Abstract
Due to the low availability of antimatter, EPOS will be small (~10-liter plasma volume) and will take advantage of precise quasisymmetry to ensure good particle confinement and reach plasma densities (𝑎/𝜆𝐷 > 10). Typical stellarator coil tolerances become even more difficult at small size, but this can be improved with a 3D-printed multi-coil support shell and stochastic optimization. The ~2-T, steady-state magnetic field will be generated by non-insulated rare-earth barium copper oxide (ReBCO) coils. To enable this, we are designing, manufacturing, and testing a series of coils; these range from planar manufacturing demos to a full-size, full-current, non-planar coil cooled to 20K. Including these requirements has motivated the use of single-stage optimization with stochastic, finite-build coils to balance the small device size, construction tolerances, and HTS strain limits.
Presenters
-
Jason Smoniewski
Max Planck Institute for Plasma Physics
Authors
-
Jason Smoniewski
Max Planck Institute for Plasma Physics
-
Pedro F Gil
Max Planck Institute for Plasma Physics
-
Paul Huslage
Max Planck Institute for Plasma Physics
-
Elisa Buglione-Ceresa
Technical Univerisity of Munich
-
Elizabeth von Schoenberg
Concordia University
-
Diego Orona
Massachusetts Institute of Technology
-
Dylan Schmeling
Columbia University
-
Diogo Mendonça
Technische Universität München, Technical University of Munich
-
Robert Lürbke
Max Planck Institute for Plasma Physics
-
Stefan Buller
Princeton University, University of Maryland
-
Rogerio Jorge
Department of Physics, University of Wisconsin-Madison, Madison, Wisconsin 53706, USA, University of Wisconsin - Madison
-
E. V Stenson
Max Planck Institute for Plasma Physics, IPP