Modeling of NIC Symcap and THD Experiments Using High Resolution Integrated Hohlraum-Capsule Simulations
ORAL
Abstract
We have developed a capability to do very high spatial resolution 2D integrated hohlraum-capsule simulations using the Hydra code. Surface perturbations for all ablator layer surfaces and the DT ice layer are calculated explicitly up to mode 30 or 100. The effects of the fill tube, grooves in the ice layer, and surface defects on the ablator are included via models extracted from higher resolution calculations. High wave number mix is included through a mix model. Measured backscatter and a model for crossbeam energy transfer are included to enable a best estimate of the drive asymmetry for each shot. We have applied this model to National Ignition Campaign (NIC) experiments from the fall of 2009 and more recent symmetry capsule and cryogenic layered tritium-hydrogen-deuterium (THD) experiments. We compare the measured x-ray and neutron diagnostic signatures to the simulated diagnostic signatures extracted from the model.
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Authors
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O.S. Jones
LLNL
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J. Milovich
LLNL, Lawrence Livermore National Laboratory
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M.M. Marinak
LLNL, Lawrence Livermore National Laboratory
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S.M. Sepke
LLNL, Lawrence Livermore National Laboratory
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Mehul Patel
LLNL, Lawrence Livermore National Laboratory
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N.B. Meezan
LLNL, Lawrence Livermore National Laboratory
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Debbie Callahan
LLNL, Lawrence Livermore National Laboratory
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R.P.J. Town
LLNL, Lawrence Livermore National Laboratory
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S. Glenzer
LLNL, Lawrence Livermore National Laboratory
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M. Schneider
LLNL
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Steve Langer
LLNL
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D.H. Munro
LLNL
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Brian Spears
LLNL
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P.T. Springer
LLNL
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M.J. Edwards
LLNL, Lawrence Livermore National Laboratory
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D. Wilson
LANL
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George Kyrala
LANL
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J. Kline
LANL