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Articles
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with Citations
to Z. Abou-Assaleh |
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1991 |
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Present state of research into the interaction between
powerful laser radiation and high-temperature plasmas
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V T Tikhonchuk |
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Physics-Uspekhi, Volume 34(1991), Number 10, Pages 903-909
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1991 |
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Applied Physics Letters -- July 29, 1991 -- Volume 59, Issue
5, pp. 534-536 |
Measurement of energy penetration
depth of subpicosecond laser energy into solid density matter
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A. Zigler,
P. G. Burkhalter,
and
D. J. Nagel
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Naval Research Laboratory, Washington, DC 20375
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M. D. Rosen
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Lawrence Livermore Laboratory, Livermore, California 94550
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K. Boyer,
G. Gibson,
T. S. Luk,
A. McPherson,
and
C. K. Rhodes
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University of Illinois at Chicago, P. O. Box 4348, Chicago,
Illinois 60680
(Received 21 January
1991; accepted May 1991)
The energy
penetration depth characteristic of the interaction of intense
subpicosecond (~600 fs) ultraviolet (248 nm) laser
radiation with solid density
material has been experimentally determined. This was
accomplished by using a series of ultraviolet
transmitting targets consisting of a fused silica
(SiO2) substrate coated with an 80–600 nm layer of
MgF2. The measurement of He-like and H-like Si
and Mg lines, as a function of MgF2
thickness, enabled the determination of the energy
penetration depth. It was found that this depth falls
in the range of 250–300 nm for a laser intensity of
~3×1016 W/cm2. Based on numerical
simulations, it is estimated that solid density
material to a depth of ~250 nm is heated to an
electron temperature of ~500 eV.
Applied Physics Letters
is copyrighted by The American Institute of Physics.
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Measurement of energy penetration
depth of subpicosecond laser energy into solid density matter |
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Measurement of energy penetration
depth of subpicosecond laser energy into solid density matter |
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1991 |
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Physics of Fluids B: Plasma Physics -- February 1991 -- Volume
3, Issue 2, pp. 485-491 |
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Non-Maxwellian electron distributions in ionizing plasmas |
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R. Marchand,
J. P. Matte,
and
K. Parbhakar
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INRS-ENERGIE, CP 1020, Varennes, Quebec J3X 1S2, Canada
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(Received 30 May 1990; accepted 16
October 1990)
Electron
kinetics is considered in a plasma in which the distribution
of ion charge stages is far from the coronal equilibrium.
In rapidly ionizing plasmas, radiative cooling and ionization
are found
to cause the electron distribution to deviate significantly from
a Maxwellian. The relevance of such distribution
functions to divertor plasmas near the neutralizer
plate is discussed. Physics of Fluids B: Plasma Physics is
copyrighted by The American Institute of Physics |
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Non-Maxwellian electron
distributions in ionizing plasmas |
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Non-Maxwellian electron
distributions in ionizing plasmas |
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Reference Query Results for
1991PhFlB...3..485M |
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1991 |
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Октябрь
1991 г. Том 161, № 10
УСПЕХИ
ФИЗИЧЕСКИХ НАУК
ИЗ
ТЕКУЩЕЙ ЛИТЕРАТУРЫ
533.9
СОВРЕМЕННОЕ СОСТОЯНИЕ ИССЛЕДОВАНИЙ
ПО
ФИЗИКЕ ВЗАИМОДЕЙСТВИЯ
МОЩНОГО
ЛАЗЕРНОГО ИЗЛУЧЕНИЯ
С
ВЫСОКОТЕМПЕРАТУРНОЙ ПЛАЗМОЙ
В. Т.
Тихончук
(Физический институт им. П.Н. Лебедева АН СССР)
http://data.ufn.ru//ufn91/ufn91_10/129.pdf
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Articles
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Dissertation |
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with Citations to |
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Z. Abou-Assaleh |
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Theoretical Plasma
Physics |
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&
Controlled Thermonuclear Fusion Energy |
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Dissertations |
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Books |
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