T
T. W. Phillips
Researcher at Lawrence Livermore National Laboratory
Publications - 75
Citations - 4932
T. W. Phillips is an academic researcher from Lawrence Livermore National Laboratory. The author has contributed to research in topics: Laser & Inertial confinement fusion. The author has an hindex of 30, co-authored 75 publications receiving 4688 citations.
Papers
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A CVD diamond ion temperature diagnostic for the National Ignition Facility
G. J. Schmid,N. Izumi,Jeffrey A. Koch,R. A. Lerche,Michael J. Moran,H. S. Park,T. W. Phillips,R. E. Turner,V. U. Glebov,T. C. Sangster,C. Stoeckl +10 more
Book ChapterDOI
Nuclear Diagnostics of ICF
N. Izumi,R. A. Lerche,Michael J. Moran,T. W. Phillips,T. C. Sangster,G. J. Schmid,M. A. Stoyer,L. Disdier,J. L. Bourgade,A. Rouyer,R. K. Fisher,R. R. Berggren,S. E. Caldwell,J. R. Faulkner,Joseph M. Mack,John A. Oertel,C. S. Young,V. Yu. Glebov,Paul A. Jaanimagi,D. D. Meyerhofer,J. M. Soures,Christian Stoeckl,J. A. Frenje,C. K. Li,R. D. Petrasso +24 more
TL;DR: In inertial confinement fusion (ICF), a high temperature and high density plasma is produced by the spherical implosion of a small capsule as mentioned in this paper, where a spherical target capsule is irradiated uniformly by a laser beam (direct irradiation) or x-rays from a high Z enclosure (hohlraum) that was irradiated by laser or ion beams (indirect irradiation).
Journal ArticleDOI
Ignition X-ray imager for laser-fusion research at the national ignition facility
TL;DR: In this article, the feasibility and performance of an Ignition X-Ray Imager to be used on cryogenic DT implosions at the National Ignition Facility (NIF) were analyzed.
Diagnostics for Fast Ignition Science
Andrew MacPhee,Kramer Akli,Farhat Beg,Cui Chen,H. Chen,Robert Clarke,D. S. Hey,Richard R. Freeman,Andreas Kemp,M. H. Key,J King,Sebastien LePape,A. Link,T Ma,N Nakamura,Dustin Offermann,Ovchinnikov,P. K. Patel,T. W. Phillips,Richard B. Stephens,Richard Town,M. S. Wei,L VanWoerkom,A. J. Mackinnon +23 more
TL;DR: In this paper, a suite of diagnostics is presented to characterize energy transport and deposition during and following laser-plasma interactions at extremely high intensities in both planar and conical targets.