Magnetized Shock-Driven Implosion Platform at Omega for studies of Magnetized Transport Physics in Inertial Fusion Implosions
ORAL
Abstract
External magnetic fields applied to an inertial confinement fusion (ICF) implosion make the fuel ions gyrate around the B-field lines, which can improve the probability for fusion and potentially boost fusion energy gain. With recent advances facilitating the generation of very high B-fields, it is essential to experimentally investigate and characterize the effects of strong magnetization on the dynamics and symmetry of an ICF implosion. We have developed an experimental platform at the Omega laser facility for producing plasma conditions with the electrons and ions both strongly magnetized, suitable for the studies of magnetized transport properties in high-energy-density plasmas. The first observation [1] of how a strong, 500 kG, externally applied B-field increases the mode-2 asymmetry in these shock-heated ICF implosions will be discussed. Strongly magnetized electrons (ωeτe ≫ 1) and ions (ωiτi > 1) in the implosion restrict the cross-field heat transport necessary for lateral distribution of the laser and shock heating from the implosion pole to waist, causing an enhanced mode-2 asymmetry. This work was supported in part by the US DOE, the National Laser Users Facility and Laboratory for Laser Energetics.
*This work is supported in part by the U.S. DOE grant DENA0003868, National Laser Users Facility grant DE-NA0003938. Laboratory for Laser Energetics subaward SUB00000056/ GR530167/AWD00002510 under DOE gant DENA0003856 and EUROfusion grant 101052200
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Publication:[1] A. Bose et al., Phys. Rev. Lett. 128, 195002 (2022), "Effect of Strongly Magnetized Electrons and Ions on Heat Flow and Symmetry of Inertial Fusion Implosions" [2] A. Bose et. al., in preparation, "Magnetized Shock-Driven Implosion Platform at Omega for studies of Magnetized Transport Physics in Inertial Fusion Implosions"
Presenters
Arijit Bose
University of Delaware
U Delaware
Authors
Arijit Bose
University of Delaware
U Delaware
Jonathan L Peebles
Laboratory for Laser Energetics, University of Rochester
UR-LLE
Christopher A Walsh
Lawrence Livermore National Laboratory
LLNL
Lawrence Livermore Natl Lab
Johan A Frenje
Massachusetts Institute of Technology MIT
PSFC, MIT
MIT
Massachusetts Institute of Technology
Neel V Kabadi
University of Rochester
LLE
MIT
Laboratory of Laser Energetics
Patrick J Adrian
Massachusetts Institute of Technology (MIT)
MIT
Massachusetts Institute of Technology
Graeme D Sutcliffe
Massachusetts Institute of Technology
Maria Gatu-Johnson
MIT
Massachusetts Institute of Technology MI
Massachusetts Institute of Technology
Cameron A Frank
University of Delaware
Jonathan R Davies
University of Rochester
UR-LLE
LLE
Laboratory for Laser Energetics
Laboratory for Laser Energetics, University of Rochester
Riccardo Betti
University of Rochester
University of Rochester, Laboratory for Laser Energetics
Laboratory for Laser Energetics, U. of Rochester
Laboratory for Laser Energetics, University of Rochester
Vladimir Y Glebov
Lab for Laser Energetics
University of Rochester
Laboratory for Laser Energetics, University of Rochester
Frederic J Marshall
University of Rochester
Sean P Regan
Laboratory for Laser Energetics, University of Rochester
University of Rochester
Laboratory for Laser Energetics, U. of Rochester
Christian Stoeckl
University of Rochester
Laboratory for Laser Energetics, U. of Rochester
Laboratory for Laser Energetics, University of Rochester
Mike M Campbell
Laboratory for Laser Energetics
University of Rochester
Laboratory for Laser Energetics of the University of Rochester
LLE
Laboratory for Laser Energetics, University of Rochester