Multifluid interpenetration mixing in directly driven inertial confinement fusion capsule implosions

Autor:	V. Yu. Glebov, F. J. Marshall, C. W. Cranfill, R. D. Petrasso, G. J. Schmid, Peter Amendt, Christian Stoeckl, C. R. Christensen, P. W. McKenty, Nelson M. Hoffman, C. K. Li, J. A. Frenje, Doug Wilson, G. D. Pollak, R. R. Peterson, N. Izumi, Fredrick Seguin, R. A. Forster
Rok vydání:	2004
Předmět:	Physics Yield (engineering) Mixing (process engineering) Shell (structure) Capsule chemistry.chemical_element Mechanics Condensed Matter Physics chemistry Deuterium Area density Atomic physics Inertial confinement fusion Helium
Zdroj:	Physics of Plasmas. 11:2723-2728
ISSN:	1089-7674 1070-664X
Popis:	Mixing between the shell and fuel in directly driven single shell capsule implosions causes changes in yield, burn history, burn temperature, areal density, x-ray image shape, and the presence of atomic mix. Most observations are consistent with a mix model using the same values of its single free parameter as with indirectly driven single shell and double shell capsules. Greater mixing at lower gas pressure fills reduces capsule yield. Time dependent mixing growth causes truncation of the burn history. This emphasizes early yield from the center of the capsule, raising the observed burn temperature. Mixed fuel areal densities are lower because fuel moves through the shell and the observation weights earlier times when areal density is lower. Shell x-ray emission mixing into the fuel fills in the limb brightened image to produce a central peak. Implosions of 3He filled capsules with a layer of deuterated plastic show substantial atomic mix.
Databáze:	OpenAIRE
Externí odkaz:	https://explore.openaire.eu/search/publication?articleId=doi_________::c9dcf737e785eb9e3e09db0827c82614 https://doi.org/10.1063/1.1667486 Zobrazit plný text záznamu