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terry.bib
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% This file was created with JabRef 2.6.
% Encoding: UTF8
@BOOK{cmake,
title = {Mastering CMake 4th Edition},
publisher = {Kitware, Inc.},
year = {2008},
author = {Martin, Ken and Hoffman, Bill},
address = {USA},
crossref = {sl},
isbn = {1930934203, 9781930934207}
}
@ARTICLE{Ahlborn1984,
author = {Ahlborn,Boye},
title = {Comments on ?A simple model of ion beam heated ICF targets? by R.
G. Evans},
journal = {Laser and Particle Beams},
year = {1984},
volume = {2},
pages = {121-121},
number = {01},
abstract = { ABSTRACT In a recent study R. G. Evans developed an analytic model
for ICF targets heated by heavy ion beams in order to show the differences
to laser beam heating. However, these differences are really not
very pronounced. In fact, Evans' model should be directly applicable
to describe exploding pusher foil targets. In addition, Evans' scaling
law for the ablation pressure PA with target density ρ0 and
particle beam intensity Ib,is identical to the scaling found for
laser targets with tamped flow (Ahlborn, 1981). },
doi = {10.1017/S0263034600000653},
eprint = {http://journals.cambridge.org/article_S0263034600000653},
file = {Ahlborn1984.pdf:Ahlborn1984.pdf:PDF},
url = {http://dx.doi.org/10.1017/S0263034600000653}
}
@ARTICLE{Ahlborn1981,
author = {B Ahlborn and M H Key},
title = {Scaling laws for laser driven exploding pusher targets},
journal = {Plasma Physics},
year = {1981},
volume = {23},
pages = {435},
number = {5},
abstract = {An analytic model based on shock waves is used to describe the maximum
density rho F , maximum temperature T F and minimum radius R F obtained
in the laser driven implosion of a gas filled spherical shell target
of shell thickness Delta T, shell radius R and initial gas density
rho 1 . The scaling behaviour rho F approximately rho 1 2 5/, rho
F R f approximately rho 1 3 5/R and T F approximately ( alpha E 0
/M) rho 1 -2 5/, is obtained, where E 0 is the laser energy, M is
the shell mass, and alpha is the hydrodynamically useful fraction
of the laser energy. Instantaneous uniform heating of the shell is
assumed in order to describe implosions of the 'exploding pusher'
type.},
file = {Ahlborn1981.pdf:Ahlborn1981.pdf:PDF},
url = {http://stacks.iop.org/0032-1028/23/i=5/a=005}
}
@MISC{pytables,
author = {Francesc Alted and Ivan Vilata and others},
title = {{PyTables}: Hierarchical Datasets in {Python}},
year = {2002--},
url = {http://www.pytables.org/}
}
@ARTICLE{Aono1968,
author = {Osamu Aono},
title = {Various Expressions of the Kinetic Equation for a Plasma},
journal = {The Physics of Fluids},
year = {1968},
volume = {11},
pages = {341-345},
owner = {mrterry},
timestamp = {2009.04.14}
}
@ARTICLE{Aono1962,
author = {Aono, Osamu},
title = {Fluctuations in a Plasma II: The Numerical Factor of in the Coulomb
Logarithm},
journal = {Journal of the Physical Society of Japan},
year = {1962},
volume = {17},
pages = {853-864},
owner = {mrterry},
timestamp = {2009.04.15}
}
@ARTICLE{Arista1985,
author = {N R Arista},
title = {Low-velocity stopping power of semidegenerate quantum plasmas},
journal = {Journal of Physics C: Solid State Physics},
year = {1985},
volume = {18},
pages = {5127-5134},
number = {26},
abstract = {The energy loss of a slow charged particle in a semidegenerate plasma
is calculated using analytical approximations. Previous results obtained
by various authors are compared with these calculations. An analytical
expression describes the stopping power for low velocities, over
a wide range of plasma densities and temperatures. The description
applies from the cold limit of solid state plasmas to the hot and
dilute extreme of Tokamak plasmas.},
file = {Arista1985.pdf:Arista1985.pdf:PDF},
owner = {mterry},
timestamp = {2007.11.01},
url = {http://stacks.iop.org/0022-3719/18/5127}
}
@ARTICLE{Arista1983,
author = {N R Arista and W Brandt},
title = {On the slowing down of charged particles in an electron gas: an extension
to the Fermi-Teller formula},
journal = {Journal of Physics C: Solid State Physics},
year = {1983},
volume = {16},
pages = {L1217-L1220},
number = {36},
abstract = {An expression is obtained for the low-velocity stopping power of an
electron plasma in thermal equilibrium, which applies for all degrees
of plasma degeneracy. In the limit of high densities the result agrees
with the Fermi-Teller approximation for a cold plasma, and with a
previous approximation of Skupsky (1977) for all degeneracies. It
gives better agreement with the Lindhard-Winther result (1964) at
lower (metallic) densities for cold plasmas, and it also agrees with
a previous result of Arista and Brandt (1981) in the opposite limit
of dilute nondegenerate plasmas.},
file = {Arista1983.pdf:Arista1983.pdf:PDF},
owner = {mterry},
timestamp = {2007.11.01},
url = {http://stacks.iop.org/0022-3719/16/L1217}
}
@ARTICLE{Arista1981,
author = {Arista, N\'estor R. and Brandt, Werner },
title = {Energy loss and straggling of charged particles in plasmas of all
degeneracies},
journal = {Phys. Rev. A},
year = {1981},
volume = {23},
pages = {1898--1905},
number = {4},
month = {Apr},
doi = {10.1103/PhysRevA.23.1898},
file = {Arista1981.pdf:Arista1981.pdf:PDF},
numpages = {7},
owner = {mterry},
timestamp = {2007.11.01}
}
@BOOK{Atzeni2004,
title = {The Physics of Inertial Fusion},
publisher = {Oxford University Press Inc},
year = {2004},
author = {Stefano Atzeni and Meyer-ter-Vehn, J\"urgen},
owner = {mrterry},
timestamp = {2008.02.28}
}
@ARTICLE{Atzeni2011,
author = {S Atzeni and A Schiavi and A Marocchino},
title = {Studies on the robustness of shock-ignited laser fusion targets},
journal = {Plasma Physics and Controlled Fusion},
year = {2011},
volume = {53},
pages = {035010},
number = {3},
abstract = {Several aspects of the sensitivity of a shock-ignited inertial fusion
target to variation of parameters and errors or imperfections are
studied by means of one-dimensional and two-dimensional numerical
simulations. The study refers to a simple all-DT target, initially
proposed for fast ignition (Atzeni et al 2007 Phys. Plasmas 7 052702)
and subsequently shown to be also suitable for shock ignition (Ribeyre
et al 2009 Plasma Phys. Control. Fusion [/0741-3335/51] 51 015013
). It is shown that the growth of both Richtmyer–Meshkov and Rayleigh–Taylor
instability (RTI) at the ablation front is reduced by laser pulses
with an adiabat-shaping picket. An operating window for the parameters
of the ignition laser spike is described; the threshold power depends
on beam focusing and synchronization with the compression pulse.
The time window for spike launch widens with beam power, while the
minimum spike energy is independent of spike power. A large parametric
scan indicates good tolerance (at the level of a few percent) to
target mass and laser power errors. 2D simulations indicate that
the strong igniting shock wave plays an important role in reducing
deceleration-phase RTI growth. Instead, the high hot-spot convergence
ratio (ratio of initial target radius to hot-spot radius at ignition)
makes ignition highly sensitive to target mispositioning.},
url = {http://stacks.iop.org/0741-3335/53/i=3/a=035010}
}
@TECHREPORT{petsc-user-ref,
author = {Satish Balay and Jed Brown and and Kris Buschelman and Victor Eijkhout
and William D. Gropp and Dinesh Kaushik and Matthew G. Knepley and
Lois Curfman McInnes and Barry F. Smith and Hong Zhang},
title = {{PETS}c Users Manual},
institution = {Argonne National Laboratory},
year = {2011},
number = {ANL-95/11 - Revision 3.2}
}
@ARTICLE{Baldwin1962,
author = {David E. Baldwin},
title = {Close Collisions in a Plasma},
journal = {Physics of Fluids},
year = {1962},
volume = {5},
pages = {1523-1530},
number = {12},
doi = {10.1063/1.1706561},
file = {Baldwin1962.pdf:Baldwin1962.pdf:PDF},
publisher = {AIP},
url = {http://link.aip.org/link/?PFL/5/1523/1}
}
@ARTICLE{Balescu1960,
author = {R. Balescu},
title = {Irreversible Processes in Ionized Gases},
journal = {Physics of Fluids},
year = {1960},
volume = {3},
pages = {52-63},
number = {1},
doi = {10.1063/1.1706002},
file = {Balescu1960.pdf:Balescu1960.pdf:PDF},
owner = {mrterry},
publisher = {AIP},
timestamp = {2008.03.28},
url = {http://link.aip.org/link/?PFL/3/52/1}
}
@ARTICLE{Balescu1960a,
author = {Balescu, R.},
title = {Transport Equation of a Plasma},
journal = {Rev. Mod. Phys.},
year = {1960},
volume = {32},
pages = {719--721},
number = {4},
month = {Oct},
doi = {10.1103/RevModPhys.32.719},
file = {Balescu1960a.pdf:Balescu1960a.pdf:PDF},
numpages = {2},
owner = {mrterry},
publisher = {American Physical Society},
timestamp = {2008.03.28}
}
@ARTICLE{Bangerter1982,
author = {R. O. Bangerter and J. W. -K. Mark and A. R. Thiessen},
title = {Heavy ion inertial fusion: Initial survey of target gain versus ion-beam
parameters},
journal = {Physics Letters A},
year = {1982},
volume = {88},
pages = {225 - 227},
number = {5},
doi = {DOI: 10.1016/0375-9601(82)90233-X},
file = {:Bangerter1982.pdf:PDF},
issn = {0375-9601},
url = {http://www.sciencedirect.com/science/article/B6TVM-46S5XVP-4HK/2/1c0b1f9694d7b3941b6b0cb8c977b43c}
}
@ARTICLE{Bangerter1977,
author = {Bangerter, R O and Meeker, D. J.},
title = {Charged Particle Fusion Targets},
journal = {UCRL},
year = {1977},
volume = {79875},
file = {:Bangerter1977.pdf:PDF},
owner = {terry10},
timestamp = {2011.04.29}
}
@ARTICLE{Bangerter1976,
author = {Bangerter, R O and Meeker, D. J.},
title = {Ion Beam Inertial Fusion Target Designs},
journal = {UCRL},
year = {1976},
volume = {78474},
file = {:Bangerter1976.pdf:PDF},
owner = {terry10},
timestamp = {2011.04.29}
}
@ARTICLE{Barletta1985,
author = {Barletta,W. A. and Fawley,W. M. and Judd,D. L. and Mark,J. W-K. and
Yu,S. S.},
title = {Heavy ion inertial fusion: Interface between target gain, accelerator
phase space and reactor beam transport revisited},
journal = {Laser and Particle Beams},
year = {1985},
volume = {3},
pages = {41-49},
number = {01},
abstract = { ABSTRACT Recently revised estimates of target gain have added additional
optimistic inputs to the interface between targets, accelerators
and fusion chamber beam transport. But it remains valid that neutralization
of the beams in the fusion chamber is useful if ion charge state
Z > 1 or if > 1 kA per beamlet is to be propagated. Some engineering
and economic considerations favor higher currents. },
doi = {10.1017/S0263034600001257},
eprint = {http://journals.cambridge.org/article_S0263034600001257},
url = {http://dx.doi.org/10.1017/S0263034600001257}
}
@ARTICLE{Basko1999,
author = {M.M. Basko},
title = {A 6 MJ spherical hohlraum target for heavy ion inertial fusion},
journal = {Nuclear Fusion},
year = {1999},
volume = {39},
pages = {1031},
number = {8},
abstract = {A new target option for energy applications of heavy ion inertial
fusion is analysed. It has a spherical hohlraum and is irradiated
by ion beams along the directions of the zeros of the fourth Legendre
polynomial P 4 . The target performance is simulated with a 1-D three
temperature hydrodynamics code and with a 2-D view factor code. Its
efficiency is shown to depend crucially on the structure of the hohlraum
wall, which, simultaneously, plays the role of the X¬?ray converter.
For an optimized pulse power profile, a 1-D energy gain of G = 78
is calculated with an input energy of E dr = 6.1¬?MJ in the form
of 5¬?GeV 209 Bi ions focused on the target sphere with an outer
radius of R = 6.37¬?mm.},
file = {:Basko1999.pdf:PDF},
url = {http://stacks.iop.org/0029-5515/39/i=8/a=307}
}
@ARTICLE{Basko1993b,
author = {M.M. Basko},
title = {Symmetry of illumination and implosion of hotraum targets for heavy
ion inertial fusion},
journal = {Nuclear Fusion},
year = {1993},
volume = {33},
pages = {615},
number = {4},
abstract = {The symmetry of implosion of the hotraum target that has been proposed
by J. Meyer-ter-Vehn and the author is analysed in the case when
the target is driven by a nonspherical ensemble of heavy ion beams.
The ion beams, each with a final focus radius r bf ?â? R (R is the
target radius), are all assumed to irradiate the target at the same
angle ?± 0 and symmetrically with respect to the equatorial plane.
Separate one dimensional (1-D) simulations for the pole and equator
target sectors indicate that the l = 2 mode in the asymmetry of fuel
implosion vanishes for ?± 0 ?âà 36¬?. The l = 4 mode can also be
eliminated by adjusting the ion current profile across each beam.
It is conjectured that the higher asymmetry modes with l ?â? 6 will
be smoothed out by radiative symmetrization to ##IMG## [http://ej.iop.org/icons/Entities/lesssim.gif]
{lesssim} 1%. A 1-D average (over the target latitude) energy gain
of G = 57 is calculated},
file = {:Basko1993b.pdf:PDF},
url = {http://stacks.iop.org/0029-5515/33/i=4/a=I08}
}
@ARTICLE{Basko1992,
author = {M.M. Basko},
title = {High gain DT targets for heavy ion beam fusion},
journal = {Nuclear Fusion},
year = {1992},
volume = {32},
pages = {1515},
number = {9},
abstract = {In a parametric study of reactor size DT targets driven by beams of
heavy ions it was found that spark ignition and high energy gains
can be achieved in four-layer single-shell targets irradiated by
a nonshaped box pulse of 10 GeV 209 Bi ions. With an input energy
of E in ?âà 6 MJ delivered in t in ?⧠10 ns, one-dimensional energy
gains of G ##IMG## [http://ej.iop.org/icons/Entities/gtrsim.gif]
{gtrsim} 400 are possible in the optimum cases. It is shown that,
to obtain spark ignition and high energy gain, two conditions must
be necessarily met: (1) a high enough implosion velocity, U ?àû ##IMG##
[http://ej.iop.org/icons/Entities/gtrsim.gif] {gtrsim} 6.2 ?ó 10
7 ?© -1/2 cm/s, must be reached, and (2) the fuel compression must
be accomplished with a low enough pusher/fuel mass ratio, M p /M
DT ##IMG## [http://ej.iop.org/icons/Entities/lesssim.gif] {lesssim}
5-7 (?© is a dimensionless parameter determined by the density distribution
in the compressed target core). It was found also that when the ##IMG##
[http://ej.iop.org/icons/Entities/langle.gif] {langle} ?Å?îr ##IMG##
[http://ej.iop.org/icons/Entities/rangle.gif] {rangle} of the cold
part of the compressed fuel is ##IMG## [http://ej.iop.org/icons/Entities/simeq.gif]
{simeq} 2-5 g/cm 2 , the main portion of the fuel is ignited owing
to the heating by 14 MeV neutrons emitted from the central hot region},
file = {:Basko1992.pdf:PDF},
url = {http://stacks.iop.org/0029-5515/32/i=9/a=I02}
}
@ARTICLE{Basko1993a,
author = {M M Basko},
title = {Physics and prospects of inertial confinement fusion},
journal = {Plasma Physics and Controlled Fusion},
year = {1993},
volume = {35},
pages = {B81},
number = {SB},
abstract = {Some key physical aspects of the inertial confinement fusion (ICF)
are discussed. The minimum scale of ICF microexplosions is determined
by the ability to implode spherical shells with high radial convergence
ratios C R and high initial aspect ratios A R0 . The attainable values
of C R are limited by large-scale drive asymmetries, while the values
of A R0 are constrained by the Rayleigh-Taylor instability. Under
the indirect drive approach to ICF, it is easier to achieve the required
uniformity of the drive pressure, but the penalty is a factor 4-5
reduction of the target energy gain as compared to the direct drive
option. Spark ignition is a crucial issue for indirect drive targets
(at least for those to be used in power reactors), while the targets
driven directly by heavy ion beams could, in principle, utilize a
less demanding volume ignition scheme.},
file = {:Basko1993a.pdf:PDF},
url = {http://stacks.iop.org/0741-3335/35/i=SB/a=006}
}
@ARTICLE{Basko2002,
author = {M. M. Basko and J. A. Maruhn and T. Schlegel},
title = {Hydrodynamic instability of shells accelerated by direct ion beam
heating},
journal = {Physics of Plasmas},
year = {2002},
volume = {9},
pages = {1348-1356},
number = {4},
doi = {10.1063/1.1462634},
file = {:Basko2002.pdf:PDF},
keywords = {plasma instability; Rayleigh-Taylor instability; plasma beam injection
heating; plasma simulation},
publisher = {AIP},
url = {http://link.aip.org/link/?PHP/9/1348/1}
}
@ARTICLE{Basko1993,
author = {Basko, M. M. and Meyer-ter-Vehn, J.},
title = {Hotraum target for heavy ion inertial fusion},
journal = {Nuclear Fusion},
year = {1993},
volume = {33},
pages = {601},
number = {4},
abstract = {A new version of indirect drive target is proposed for heavy ion inertial
fusion (HIIF), in which the cavity for radiative symmetrization is
filled with a low density low Z material and is called a 'hotraum'.
When heated to a temperature T ?â? 100 eV, the hotraum becomes transparent
to thermal X-rays and ensures radiative smoothing of the energy flux
which implodes the fuel capsule enclosed in the cavity. Ion beams
are focused on the full target cross-section and deposit their energy
in the high Z casing and in the outer region of the hotraum. The
initial target configuration is spherical and requires no special
orientation in the reactor chamber. Enhanced hydrodynamic efficiency
of the capsule implosion, resulting from tamped ablation inside the
hotraum, compensates for the high losses in the hotraum and leads
to a beam-to-fuel energy coupling of about 5% and target gains in
the range of 50-100. Hydrodynamic mapping of deposition nonuniformities
onto the fusion capsule can be avoided by fast initial heating of
the hotraum. A regime is found in which the ablating capsule insulates
itself from hydrodynamic disturbances in the hotraum. The low density
required for the hotraum fill allows stopping ranges of up to 100
mg/cm 2 , corresponding to 6 GeV 209 Bi ions},
file = {:Basko1993.pdf:PDF},
url = {http://stacks.iop.org/0029-5515/33/i=4/a=I07}
}
@ARTICLE{swig,
author = {Beazley,, D. M.},
title = {Automated scientific software scripting with {SWIG}},
journal = {Future Gener. Comput. Syst.},
year = {2003},
volume = {19},
pages = {599--609},
number = {5},
address = {Amsterdam, The Netherlands, The Netherlands},
doi = {http://dx.doi.org/10.1016/S0167-739X(02)00171-1},
issn = {0167-739X},
publisher = {Elsevier Science Publishers B. V.}
}
@INCOLLECTION{berger96,
author = {M.J. Berger and R. Wang},
title = {Multiple-Scattering Angular Deflections and Energy-Loss Straggling},
booktitle = {Monte Carlo Transport of Electrons and Photons},
publisher = {Plenum Press},
year = {1987},
editor = {Theodore M. Jenkins, Walter R. Nelson, and Alessandro Rindi}
}
@INCOLLECTION{berger63,
author = {Martin J. Berger},
title = {Monte Carlo Calculation of the Penetration and Diffusion of Fast
Charged Particles},
booktitle = {Methods in Computational Physics, Volume 1},
publisher = {Academic Press},
year = {1963},
editor = {Berni Alder and Sidney Fernbach and Manuel Rotenberg}
}
@ARTICLE{Bethe1933,
author = {H. A. Bethe},
journal = {Handb. Physik},
year = {1933},
volume = {24/I},
pages = {491},
owner = {matt},
timestamp = {2008.03.16}
}
@ARTICLE{Bethe1930,
author = {Bethe, H. A.},
journal = {Ann. Physik},
year = {1930},
volume = {5},
pages = {325},
owner = {matt},
timestamp = {2008.03.16}
}
@ARTICLE{Betti2010,
author = {R. Betti and P. Y. Chang and B. K. Spears and K. S. Anderson and
J. Edwards and M. Fatenejad and J. D. Lindl and R. L. McCrory and
R. Nora and D. Shvarts},
title = {Thermonuclear ignition in inertial confinement fusion and comparison
with magnetic confinement},
journal = {Physics of Plasmas},
year = {2010},
volume = {17},
pages = {058102},
number = {5},
eid = {058102},
doi = {10.1063/1.3380857},
keywords = {cryogenics; explosions; laser fusion; plasma pressure; plasma temperature},
numpages = {10},
publisher = {AIP},
url = {http://link.aip.org/link/?PHP/17/058102/1}
}
@ARTICLE{Betti2005,
author = {R. Betti and C. Zhou},
title = {High-density and high-rho R fuel assembly for fast-ignition inertial
confinement fusion},
journal = {Physics of Plasmas},
year = {2005},
volume = {12},
pages = {110702},
number = {11},
eid = {110702},
doi = {10.1063/1.2127932},
keywords = {fusion reactor fuel; fusion reactor ignition; plasma inertial confinement;
explosions; fusion reactor design; fusion reactor targets},
numpages = {4},
publisher = {AIP},
url = {http://link.aip.org/link/?PHP/12/110702/1}
}
@ARTICLE{Betti2007,
author = {Betti, R. and Zhou, C. D. and Anderson, K. S. and Perkins, L. J.
and Theobald, W. and Solodov, A. A.},
title = {Shock Ignition of Thermonuclear Fuel with High Areal Density},
journal = {Phys. Rev. Lett.},
year = {2007},
volume = {98},
pages = {155001},
number = {15},
month = {Apr},
doi = {10.1103/PhysRevLett.98.155001},
file = {Betti2007.pdf:Betti2007.pdf:PDF},
numpages = {4},
publisher = {American Physical Society}
}
@ARTICLE{bielajew96,
author = {Alex F. Bielajew},
title = {A Hybrid multiple-scattering theory for electron-transport Monte
Carlo calculations},
journal = {Nuclear Instruments and Methods in Physics Research B},
year = {1996},
volume = {111},
pages = {195-208},
doi = {10.1016/0168-583X(95)01337-7},
file = {bielajew96.pdf:bielajew96.pdf:PDF}
}
@ARTICLE{bielajew94,
author = {Alex F. Bielajew},
title = {Plural and multiple small-angle scattering from a screened Rutherford
cross section},
journal = {Nuclear Instruments and Methods in Physics Research B},
year = {1994},
volume = {86},
pages = {257-269},
doi = {10.1016/0168-583X(94)95288-4},
file = {bielajew94.pdf:bielajew94.pdf:PDF}
}
@ARTICLE{Bohr1915,
author = {Niels Bohr},
title = {On the Decrease of Velocity of Swiftly Moving Electrified Particles
in passing through Matter},
journal = {Philosophical Magazine},
year = {1915},
volume = {30},
pages = {581-612},
owner = {mrterry},
timestamp = {2008.03.03}
}
@ARTICLE{bosch92,
author = {H. S. Bosch and G. M. Hale},
title = {Improved Formulas for Fusion Cross-Sections and Thermal Reactivities},
journal = {Nuclear Fusion},
year = {1992},
volume = {32},
pages = {611},
doi = {10.1088/0029-5515/32/4/I07},
file = {bosch92.pdf:bosch92.pdf:PDF}
}
@INCOLLECTION{Braginskii1965,
author = {S. I. Braginskii},
title = {Transport Processes in a Plasma},
booktitle = {Reviews of Plasma Physics},
publisher = {Consultants Bureau},
year = {1965},
editor = {M. A. Leontovich},
volume = {1},
pages = {205-311},
file = {Braginskii1965.pdf:Braginskii1965.pdf:PDF},
owner = {mrterry},
timestamp = {2008.03.04}
}
@ARTICLE{brown06,
author = {Lowell S. Brown and Dean L Preston and Robert L Singleton Jr},
title = {Plasma stopping power including subleading order},
journal = {Journal of Physics},
year = {2006},
volume = {39},
pages = {4667-4670},
doi = {http://dx.doi.org/10.1088/0305-4470/39/17/S54},
file = {brown06.pdf:brown06.pdf:PDF}
}
@ARTICLE{Brown2005,
author = {Lowell S. Brown and Dean L. Preston and Robert L. Singleton Jr.},
title = {Charged particle motion in a highly ionized plasma},
journal = {Physics Reports},
year = {2005},
volume = {410},
pages = {237-333},
abstract = {A recently introduced method utilizing dimensional continuation is
employed to compute the energy loss rate for a non-relativistic particle
moving through a highly ionized plasma. No restriction is made on
the charge, mass, or speed of this particle. It is, however, assumed
that the plasma is not strongly coupled in the sense that the dimensionless
plasma coupling parameter g=e2?D/4?T is small, where ?D is the Debye
wave number of the plasma. To leading and next-to-leading order in
this coupling, dE/dx is of the generic form Click to view the MathML
source. The precise numerical coefficient out in front of the logarithm
is well known. We compute the constant C under the logarithm exactly
for arbitrary particle speeds. Our exact results differ from approximations
given in the literature. The differences are in the range of 20%
for cases relevant to inertial confinement fusion experiments. The
same method is also employed to compute the rate of momentum loss
for a projectile moving in a plasma, and the rate at which two plasmas
at different temperatures come into thermal equilibrium. Again these
calculations are done precisely to the order given above. The loss
rates of energy and momentum uniquely define a Fokker?Planck equation
that describes particle motion in the plasma. The coefficients determined
in this way are thus well-defined, contain no arbitrary parameters
or cutoffs, and are accurate to the order described. This Fokker?Planck
equation describes the straggling?the spreading in the longitudinal
position of a group of particles with a common initial velocity and
position?and the transverse diffusion of a beam of particles. It
should be emphasized that our work does not involve a model, but
rather it is a precisely defined evaluation of the leading terms
in a well-defined perturbation theory.},
doi = {10.1016/j.physrep.2005.01.001},
file = {Brown2005.pdf:Brown2005.pdf:PDF},
owner = {mrterry},
timestamp = {2008.03.28}
}
@ARTICLE{Brown2007,
author = {Brown, Lowell S. and Singleton, Robert L.},
title = {Temperature equilibration rate with Fermi-Dirac statistics},
journal = {Phys. Rev. E},
year = {2007},
volume = {76},
pages = {066404},
number = {6},
month = {Dec},
doi = {10.1103/PhysRevE.76.066404},
numpages = {21},
publisher = {American Physical Society}
}
@ARTICLE{Brown2001,
author = {Lowell S. Brown and Laurence G. Yaffe},
title = {Effective field theory for highly ionized plasmas},
journal = {Physics Reports},
year = {2001},
volume = {340},
pages = {1 - 164},
number = {1-2},
abstract = {We examine the equilibrium properties of hot, non-relativistic plasmas.
The partition function and density correlation functions of a plasma
with several species are expressed in terms of a functional integral
over electrostatic potential distributions. This is a convenient
formulation for performing a perturbative expansion. The theory is
made well-defined at every stage by employing dimensional regularization
which, among other virtues, automatically removes the unphysical
(infinite) Coulomb self-energy contributions. The leading order,
field-theoretic tree approximation automatically includes the effects
of Debye screening. No further partial resummations are needed for
this effect. Subleading, one-loop corrections are easily evaluated.
The two-loop corrections, however, have ultraviolet divergences.
These correspond to the short-distance, logarithmic divergence which
is encountered in the spatial integral of the Boltzmann exponential
when it is expanded to third order in the Coulomb potential. Such
divergences do not appear in the underlying quantum theory - they
are rendered finite by quantum fluctuations. We show how such divergences
may be removed and the correct finite theory obtained by introducing
additional local interactions in the manner of modern effective quantum
field theories. We compute the two-loop induced coupling by exploiting
a non-compact su(1, 1) symmetry of the hydrogen atom. This enables
us to obtain explicit results for density-density correlation functions
through two-loop order and thermodynamic quantities through three-loop
order. The induced couplings are shown to obey renormalization group
equations, and these equations are used to characterize all leading
logarithmic contributions in the theory. A linear combination of
pressure plus energy and number densities is shown to be described
by a field-theoretic anomaly. The effective Lagrangian method that
we employ yields a simple demonstration that, at long distance, correlation
functions have an algebraic fall off (because of quantum effects)
rather than the exponential damping of classical Debye screening.
We use the effective theory to compute, easily and explicitly, this
leading long-distance behavior of density correlation functions.
The presentation is pedagogical and self-contained. The results for
thermodynamic quantities at three-loop [or O(n5/2)] order, and for
the leading long-distance forms of correlation functions, agree with
previous results in the literature, but they are obtained in a novel
and simple fashion using the effective field theory. In addition
to the new construction of the effective field theory for plasma
physics, we believe that the results we report for the explicit form
of correlation functions at two-loop order, as well as the determination
of higher-order leading-logarithmic contributions, are also original.},
doi = {DOI: 10.1016/S0370-1573(00)00068-5},
file = {Brown2001.pdf:Brown2001.pdf:PDF},
issn = {0370-1573},
keywords = {Non-relativistic plasma thermodynamics},
url = {http://www.sciencedirect.com/science/article/B6TVP-41S4T83-2/2/22a7a4e70e56642f68f4c99f57e34210}
}
@ARTICLE{Brown1972,
author = {Brown, M. D. and Moak, C. D.},
title = {Stopping Powers of Some Solids for 30-90-MeV $U238$ Ions},
journal = {Phys. Rev. B},
year = {1972},
volume = {6},
pages = {90--94},
number = {1},
month = {Jul},
doi = {10.1103/PhysRevB.6.90},
file = {Brown1972.pdf:Brown1972.pdf:PDF},
numpages = {4},
publisher = {American Physical Society}
}
@ARTICLE{Brown1997,
author = {Brown,S. R. and Haines,M. G.},
title = {Transport in partially degenerate, magnetized plasmas. Part 1. Collision
operators},
journal = {Journal of Plasma Physics},
year = {1997},
volume = {58},
pages = {577-600},
number = {04},
abstract = { ABSTRACT The quantum Boltzmann collision operator is expanded to
yield a degenerate form of the Fokker–Planck collision operator.
This is analysed using Rosenbluth potentials to give a degenerate
analogue of the Shkarofsky operator. The distribution function is
then expanded about an equilibrium Fermi–Dirac distribution
function using a tensor perturbation formulation to give a zeroth-order
and a first-order collision operator. These equations are shown to
satisfy the relevant conservation equations. It is shown that the
distribution function relaxes to a Fermi–Dirac form through
electron–electron collisions. },
doi = {10.1017/S0022377897006041},
eprint = {http://journals.cambridge.org/article_S0022377897006041},
file = {Brown2000.pdf:Brown2000.pdf:PDF},
owner = {mrterry},
timestamp = {2008.03.04},
url = {http://journals.cambridge.org/action/displayAbstract?fromPage=online&aid=18221&fulltextType=RA&fileId=S0022377897006041}
}
@ARTICLE{Brueckner1974,
author = {Brueckner, Keith A. and Jorna, Siebe},
title = {Laser-driven fusion},
journal = {Rev. Mod. Phys.},
year = {1974},
volume = {46},
pages = {325--367},
number = {2},
month = {Apr},
doi = {10.1103/RevModPhys.46.325},
file = {Brueckner1974.pdf:Brueckner1974.pdf:PDF},
numpages = {42},
owner = {mterry},
timestamp = {2007.10.31}
}
@ARTICLE{Brysk1974,
author = {H Brysk},
title = {Electron-ion equilibration in a partially degenerate plasma},
journal = {Plasma Physics},
year = {1974},
volume = {16},
pages = {927-932},
number = {10},
abstract = {Expressions are derived for the energy loss rate of a fast ion to
electrons as it slows down in a plasma of arbitrary electron degeneracy
and for the equilibration of the ions and electrons in the plasma.},
doi = {10.1088/0032-1028/16/10/005},
file = {Brysk1974.pdf:Brysk1974.pdf:PDF},
owner = {mterry},
timestamp = {2007.11.01},
url = {http://stacks.iop.org/0032-1028/16/927}
}
@ARTICLE{brysk73,
author = {H Brysk},
title = {Fusion neutron energies and spectra},
journal = {Plasma Physics},
year = {1973},
volume = {15},
pages = {611-617},
number = {7},
abstract = {The interaction of two Maxwellian distributions of particles will
differ from the interaction of the two particles at their respective
Maxwell averages if the strength of the interaction varies significantly
with energy over the widths of the distributions. This effect is
considered here in particular for fusion (both D-T and D-D) for the
mean energy of the reacting particles as a function of temperature
and for the spectrum of the neutrons produced.},
doi = {10.1088/0032-1028/15/7/001},
file = {brysk73.pdf:brysk73.pdf:PDF},
url = {http://stacks.iop.org/0032-1028/15/611}
}
@ARTICLE{Brysk1975,
author = {Brysk, H and Campbell, P. M. and Hammerling, P.},
title = {Thermal Conduction in Laser Fusion},
journal = {Plasma Physics},
year = {1975},
volume = {17},
pages = {473-484},
doi = {10.1088/0032-1028/17/6/007},
file = {Brysk1975.pdf:Brysk1975.pdf:PDF},
owner = {mrterry},
timestamp = {2008.03.10}
}
@ARTICLE{Phipps1988,
author = {C. R. Phipps, Jr. and T. P. Turner and R. F. Harrison and G. W. York
and W. Z. Osborne and G. K. Anderson and X. F. Corlis and L. C. Haynes
and H. S. Steele and K. C. Spicochi and T. R. King},
title = {Impulse coupling to targets in vacuum by KrF, HF, and CO[sub 2] single-pulse
lasers},
journal = {Journal of Applied Physics},
year = {1988},
volume = {64},
pages = {1083-1096},
number = {3},
doi = {10.1063/1.341867},
keywords = {LASERPRODUCED PLASMA; PULSE TECHNIQUES; ABLATION; MATHEMATICAL MODELS;
SOLIDS; PHYSICAL RADIATION EFFECTS; LASER RADIATION; CARBON DIOXIDE
LASERS; KRYPTON FLUORIDE LASERS},
publisher = {AIP},
url = {http://link.aip.org/link/?JAP/64/1083/1}
}
@ARTICLE{Cereceda2000,
author = {Carlo Cereceda and Claude Deutsch and Michel De Peretti and Michel
Sabatier and Hrachya B. Nersisyan},
title = {Dielectric response function and stopping power of dense magnetized
plasma},
journal = {Physics of Plasmas},
year = {2000},
volume = {7},
pages = {2884-2893},
doi = {10.1063/1.874138},
file = {Cereceda2000.pdf:Cereceda2000.pdf:PDF},
owner = {mterry},
timestamp = {2007.10.29}
}
@ARTICLE{Chandrasekhar1949,
author = {Chandrasekhar, S.},
title = {Brownian Motion, Dynamical Friction, and Stellar Dynamics},
journal = {Reviews of Modern Physics},
year = {1949},
volume = {21},
pages = {383-388},
owner = {mrterry},
timestamp = {2008.03.04}
}
@BOOK{Chandrasekhar1942,
title = {Principles of Stellar Dynamics},
publisher = {University of Chicago Press},
year = {1942},
author = {Chandrasekhar, S.},
owner = {mrterry},
timestamp = {2008.03.04}
}
@ARTICLE{Chang2010,
author = {Chang, PY. and Betti, R. and Spears, B. K. and Anderson, K. S. and
Edwards, J. and Fatenejad, M. and Lindl, J. D. and McCrory, R. L.
and Nora, R. and Shvarts, D.},
title = {Generalized Measurable Ignition Criterion for Inertial Confinement
Fusion},
journal = {Phys. Rev. Lett.},
year = {2010},
volume = {104},
pages = {135002},
month = {Apr},
doi = {10.1103/PhysRevLett.104.135002},
file = {Chang2010.pdf:Chang2010.pdf:PDF},
issue = {13},
numpages = {4},
publisher = {American Physical Society},
url = {http://link.aps.org/doi/10.1103/PhysRevLett.104.135002}
}
@BOOK{Chapman1953,
title = {Mathematical Theory of Nonuniform Gases},
publisher = {Cambridge University Press},
year = {1953},
author = {Sydney Chapman and T. G. Cowling},
owner = {mrterry},
timestamp = {2008.03.04}
}
@INPROCEEDINGS{VisIt,
author = {Hank Childs AND Eric S. Brugger AND Kathleen S. Bonnell AND Jeremy
S. Meredith AND Mark Miller AND Brad J. Whitlock AND Nelson Max},
title = {A Contract-Based System for Large Data Visualization},
booktitle = {Proceedings of IEEE Visualization 2005},
year = {2005},
pages = {190--198},
abstract = {VisIt is a richly featured visualization tool that is used to visualize
some of the largest simulations ever run. The scale of these simulations
requires that optimizations are incorporated into every operation
VisIt performs. But the set of applicable optimizations that VisIt
can perform is dependent on the types of operations being done. Complicating
the issue, VisIt has a plugin capability that allows new, unforeseen
components to be added, making it even harder to determine which
optimizations can be applied. We introduce the concept of a contract
to the standard data flow network design. This contract enables each
component of the data flow network to modify the set of optimizations
used. In addition, the contract allows for new components to be accommodated
gracefully within VisIt's data flow network system. },
eventtime = {October 23--25, 2005},
journal = {IEEE Visualization 2005},
keywords = {large data, data flow networks, contract-based system},
location = {Minneapolis, Minnesota}
}
@ARTICLE{scalapack,
author = {J. Choi and J. Demmel and I. Dhillon and J. Dongarra and S. Ostrouchov
and A. Petitet and K. Stanley and D. Walker and R.C. Whaley},
title = {ScaLAPACK: a portable linear algebra library for distributed memory
computers — design issues and performance},
journal = {Computer Physics Communications},
year = {1996},
volume = {97},
pages = {1 - 15},
number = {1–2},
note = {<ce:title>High-Performance Computing in Science</ce:title>},
abstract = {This paper outlines the content and performance of ScaLAPACK, a collection
of mathematical software for linear algebra computations on distributed
memory computers. The importance of developing standards for computational
and message passing interfaces is discussed. We present the different
components and building blocks of ScaLAPACK. This paper outlines
the difficulties inherent in producing correct codes for networks
of heterogeneous processors. We define a theoretical model of parallel
computers dedicated to linear algebra applications: the Distributed
Linear Algebra Machine (DLAM). This model provides a convenient framework
for developing parallel algorithms and investigating their scalability,
performance and programmability. Extensive performance results on
various platforms are presented and analyzed with the help of the
DLAM. Finally, this paper briefly describes future directions for
the ScaLAPACK library and concludes by suggesting alternative approaches
to mathematical libraries, explaining how ScaLAPACK could be integrated
into efficient and user-friendly distributed systems.},
doi = {10.1016/0010-4655(96)00017-3},
issn = {0010-4655},
url = {http://www.sciencedirect.com/science/article/pii/0010465596000173}
}
@ARTICLE{Collins2012,
author = {T. J. B. Collins and J. A. Marozas and K. S. Anderson and R. Betti