TY - JOUR A1 - Deutsch, Claude A1 - Maynard, Gilles A1 - Chabot, Marin A1 - Gardes, Daniel A1 - Della-Negra, Serge A1 - Bimbot, René A1 - Rivet, Marie-France A1 - Fleurier, Claude A1 - Couillaud, Christophe A1 - Hoffmann, Dieter H. H. A1 - Wahl, H. A1 - Weyrich, Karin A1 - Rosmej, Olga N. A1 - Tahir, Naeem Ahmad A1 - Jacoby, Joachim A1 - Ogawa, Masao A1 - Oguri, Yoshiyuki A1 - Hasegawa, Jun A1 - Sharkov, Boris Y. A1 - Golubev, Alexey A. A1 - Fertman, Alexander A1 - Fortov, Vladimir E. A1 - Mintsev, Victor T1 - Ion stopping in dense plasma target for high energy density physics T2 - The open plasma physics journal N2 - The basic physics of nonrelativistic and electromagnetic ion stopping in hot and ionized plasma targets is thoroughly updated. Corresponding projectile-target interactions involve enhanced projectile ionization and coupling with target free electrons leading to significantly larger energy losses in hot targets when contrasted to their cold homologues. Standard stoppping formalism is framed around the most economical extrapolation of high velocity stopping in cold matter. Further elaborations pay attention to target electron coupling and nonlinearities due to enhanced projectile charge state, as well. Scaling rules are then used to optimize the enhanced stopping of MeV/amu ions in plasmas with electron linear densities nel ~ 10 18 -10 20 cm -2 . The synchronous firing of dense and strongly ionized plasmas with the time structure of bunched and energetic multicharged ion beam then allow to probe, for the first time, the long searched enhanced plasma stopping and projectile charge at target exit. Laser ablated plasmas (SPQR1) and dense linear plasma columns (SPQR2) show up as targets of choice in providing accurate and on line measurements of plasma parameters. Corresponding stopping results are of a central significance in asserting the validity of intense ion beam scenarios for driving thermonuclear pellets. Other applications of note feature thorium induced fission, novel ion sources and specific material processing through low energy ion beams. Last but not least, the given ion beam-plasma target interaction physics is likely to pave a way to the production and diagnostics of warm dense matter (WDM). KW - ion stopping KW - dense plasma target KW - heavy ion fusion KW - HEDP KW - inertial confinement fusion KW - projectile effective charge Y1 - 2013 UR - http://publikationen.ub.uni-frankfurt.de/frontdoor/index/index/docId/28720 UR - https://nbn-resolving.org/urn:nbn:de:hebis:30:3-287205 SN - 1876-5343 N1 - © Deutsch et al.; Licensee Bentham Open. This is an open access article licensed under the terms of the Creative Commons Attribution Non-Commercial License (http://creativecommons.org/licenses/by-nc/3.0/) which permits unrestricted, non-commercial use, distribution and reproduction in any medium, provided the work is properly cited VL - 3 SP - 88 EP - 115 PB - Bentham Open CY - Sharjah [u.a.] ER -