| Literature DB >> 25793822 |
X Vaisseau1, A Debayle2,3,4, J J Honrubia2, S Hulin1, A Morace5, Ph Nicolaï1, H Sawada5, B Vauzour1, D Batani1, F N Beg5, J R Davies6, R Fedosejevs7, R J Gray8, G E Kemp9, S Kerr7, K Li10, A Link11, P McKenna8, H S McLean11, M Mo7, P K Patel11, J Park11, J Peebles5, Y J Rhee12, A Sorokovikova5, V T Tikhonchuk1, L Volpe1, M Wei13, J J Santos1.
Abstract
Energy loss in the transport of a beam of relativistic electrons in warm dense aluminum is measured in the regime of ultrahigh electron beam current density over 2×10^{11} A/cm^{2} (time averaged). The samples are heated by shock compression. Comparing to undriven cold solid targets, the roles of the different initial resistivity and of the transient resistivity (upon target heating during electron transport) are directly observable in the experimental data, and are reproduced by a comprehensive set of simulations describing the hydrodynamics of the shock compression and electron beam generation and transport. We measured a 19% increase in electron resistive energy loss in warm dense compared to cold solid samples of identical areal mass.Entities:
Year: 2015 PMID： 25793822 DOI： 10.1103/PhysRevLett.114.095004
Source DB: PubMed Journal: Phys Rev Lett ISSN： 0031-9007 Impact factor: 9.161