Bulletin of the American Physical Society
60th Annual Meeting of the APS Division of Plasma Physics
Volume 63, Number 11
Monday–Friday, November 5–9, 2018; Portland, Oregon
Session UP11: Poster Session VIII: MST; DIII-D Tokamak; SPARC, C-Mod, and High Field Tokamaks; HBT-EP; Transport and LPI in ICF Plasmas, Hydrodynamic Instability; HEDP Posters; Space and Astrophysical Plasmas (2:00pm-5:00pm)
Thursday, November 8, 2018
OCC
Room: Exhibit Hall A1&A
Abstract ID: BAPS.2018.DPP.UP11.69
Abstract: UP11.00069 : The high field tokamak path to fusion energy: C-Mod to SPARC to ARC*
Presenter:
Earl Marmar
(Massachusetts Inst of Tech-MIT)
Authors:
Earl Marmar
(Massachusetts Inst of Tech-MIT)
Dan Brunner
(Commonwealth Fusion Systems)
Martin J Greenwald
(Massachusetts Inst of Tech-MIT)
Zachary S Hartwig
(Massachusetts Inst of Tech-MIT)
Amanda Hubbard
(Massachusetts Inst of Tech-MIT)
James Irby
(Massachusetts Inst of Tech-MIT)
Brian LaBombard
(Massachusetts Inst of Tech-MIT)
Joseph Minervini
(Massachusetts Inst of Tech-MIT)
Robert Mumgaard
(Commonwealth Fusion Systems)
Brandon Sorbom
(Commonwealth Fusion Systems)
Elizabeth Tolman
(Massachusetts Inst of Tech-MIT)
Dennis Whyte
(Massachusetts Inst of Tech-MIT)
Anne White
(Massachusetts Inst of Tech-MIT)
Stephen Wukitch
(Massachusetts Inst of Tech-MIT)
MIT PSFC Magnetic Fusion Experiments Team
(Massachusetts Inst of Tech-MIT)
Applying results from the world-wide tokamak experimental databases, we map out a path to realizing fusion energy using the high magnetic field tokamak approach. With conservative assumptions about H-mode confinement, a pre-conceptual design for a net energy gain D-T facility, SPARC, yields Q>2, and possibly much higher, in a medium scale, conventional aspect ratio tokamak with R≈1.6m, BT=12T. The I-mode regime should also be accessible, and could yield similar or higher performance. SPARC will use high-field, high temperature REBCO superconductors to access burning plasma regimes. Extrapolation to a somewhat larger, slightly lower-field design, ARC[1], can produce on the order of 500 MW of fusion power, and would put electricity on the grid. The extrapolation to SPARC relies heavily on the high-field results from Alcator C-Mod. We present details of the SPARC design, and consider physics challenges in operational regimes and limits, heating, fast particle instability drive, and divertor power and particle handling.
[1] B.N. Sorbom, et al., Fus. Eng. Des. 100(2015)378.
*This work supported by US DOE and Commonwealth Fusion Systems.
To cite this abstract, use the following reference: http://meetings.aps.org/link/BAPS.2018.DPP.UP11.69
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