Accurate descriptions of laser power coupling to the plasma and electron energy transport are crucial for designing shock-ignition targets and assessing their robustness (in particular with regard to laser and positioning errors). To this purpose, the 2D DUED laser fusion code has been improved with the inclusion of a 3D laser ray-tracing scheme and a model for non-local electron transport. 2D simulations with the upgraded code are presented; the dependence of the fusion yield vs target displacement is studied. Two different irradiation configurations are considered.
Improved robustness study of a shock ignited target, with DUED code including non-local electron transport and 3D laser ray-tracing / Atzeni, Stefano; Marocchino, Alberto; Schiavi, Angelo. - In: JOURNAL OF PHYSICS. CONFERENCE SERIES. - ISSN 1742-6596. - ELETTRONICO. - 688:(2016). (Intervento presentato al convegno The eight international conference on Inertial Fusion Sciences and Applications tenutosi a Nara, Japan nel September 8-13, 2013) [10.1088/1742-6596/688/1/012005].
Improved robustness study of a shock ignited target, with DUED code including non-local electron transport and 3D laser ray-tracing
ATZENI, Stefano;MAROCCHINO, ALBERTO;SCHIAVI, ANGELO
2016
Abstract
Accurate descriptions of laser power coupling to the plasma and electron energy transport are crucial for designing shock-ignition targets and assessing their robustness (in particular with regard to laser and positioning errors). To this purpose, the 2D DUED laser fusion code has been improved with the inclusion of a 3D laser ray-tracing scheme and a model for non-local electron transport. 2D simulations with the upgraded code are presented; the dependence of the fusion yield vs target displacement is studied. Two different irradiation configurations are considered.File | Dimensione | Formato | |
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