T. Bernat

发表

Laser targets compensate for limitations in inertial confinement fusion drivers

J. Kilkenny, A. Nikroo, D. Steinman, 2005 .

Direct Writing Target Structures by Two-Photon Polymerization

Yongfeng Lu, John H. Campbell, J. H. Campbell, 2016 .

Fabrication of Micron-Scale Cylindrical Tubes by Two-Photon Polymerization

Costas P. Grigoropoulos, John H. Campbell, Jae-Hyuck Yoo, 2016 .

Confinement of ignition and yield on the National Ignition Facility

A. Anderson, A. Burnham, T. Bernat, 1996 .

A High-Pressure Filling and Layering Apparatus for Cyrogenic Hohlraums

J. Moody, J. Sater, N. Alexander, 2004 .

The National Direct-Drive Inertial Confinement Fusion Program

P. B. Radha, T. C. Sangster, Gilbert W. Collins, 2018, Nuclear Fusion.

X‐ray imaging of uniform large scale‐length plasmas created from gas‐filled targets on Nova

J. Moody, B. MacGowan, D. Kalantar, 1995 .

The National Direct-Drive Program: OMEGA to the National Ignition Facility

P. B. Radha, T. C. Sangster, D. T. Michel, 2018 .

Cryogenic DT and D2 targets for inertial confinement fusiona)

J. D. Moody, V. A. Smalyuk, J. D. Kilkenny, 2006 .

Numerical Raytrace Verification of Optical Diagnostics of Ice Surface Roughness for Inertial Confinement Fusion Experiments

Gilbert W. Collins, J. Koch, C. Still, 2003 .

Gas‐filled targets for large scale‐length plasma interaction experiments on Nova

Peter A. Amendt, J. D. Moody, D. S. Montgomery, 1995 .

Plastic Deformation and Helium Permeation in Thin Polyimide Windows

S. Carter, T. Bernat, N. Petta, 2009 .

Heat-flux induced changes to multicrystalline D{sub 2} surfaces

Gilbert W. Collins, C. Duriez, E. Mapoles, 2001 .

Thermally induced behavior of liquid mixtures of hydrogen isotopes inside a spherical inertial confinement fusion target

V. Varadarajan, K. Kim, T. Bernat, 1987 .

An analysis of the thermally induced formation of a uniform liquid layer of ternary deuterium–tritium mixture inside a cryogenic spherical shell inertial confinement fusion target

V. Varadarajan, K. Kim, T. Bernat, 1988 .

A general method for the stability analysis of a uniform liquid fuel layer inside a spherical shell inertial confinement fusion target

K. Kim, T. Bernat, R. D. Todd, 1991 .

Applications of holographic interferometry to cryogenic ICF target characterization

D. H. Darling, T. Bernat, J. Sánchez, 1982 .

Temperature effects on the formation of a uniform liquid layer of hydrogen isotopes inside a spherical cryogenic ICF target

D. H. Darling, K. Kim, T. Bernat, 1983 .

An analysis of the stability of a uniform liquid fuel layer inside a spherical-shell cryogenic inertial confinement fusion target

K. Kim, T. Bernat, M. Raja, 1989 .

Self‐consistent numerical model for analyzing thermal layering of liquid mixtures of hydrogen isotopes inside a spherical inertial confinement fusion target

K. Kim, T. Bernat, E. M. Simpson, 1992 .

Status of the development of ignition capsules in the U.S. effort to achieve thermonuclear ignition on the national ignition facility

Arthur Nobile, L. J. Atherton, Stephan A. Letts, 2006 .

Overview of inertial fusion research in the United States

L. J. Atherton, S. Skupsky, B. Yaakobi, 2007 .

Recent advances in indirect drive ICF target physics at LLNL

Gilbert W. Collins, O. Landen, B. MacGowan, 1998 .

Crystal growth and roughening of solid D{sub 2}

Gilbert W. Collins, T. Bernat, B. Kozioziemski, 1997 .

A fusion‐product source

C. Li, R. Petrasso, J. Coleman, 1992 .

The Use of Cryogenic Techniques to Achieve High Sensitivity in Gravitational Wave Detectors

C. DeWitt-Morette, S. Boughn, T. Bernat, 1974 .

Design and performance of cryogenic enclosures for long duration testing of large samples

D. Blair, D. H. Darling, T. Bernat, 1982 .

Behavior of liquid hydrogen inside an ICF target

K. Kim, T. Bernat, L. Mok, 1982 .

The status of the ICF target physics program at Lawrence Livermore National Laboratory

J. Kilkenny, B. Hammel, T. Bernat, 1996 .

Deflection and Burst Properties of Polyimide Windows for High Pressures

T. Bernat, N. Petta, O. Stein, 2018 .

Automated flux pump for energizing high current superconducting loads

T. Bernat, W. Hamilton, D. Blair, 1975 .

Equilibrium of a liquid in a spherical shell caused by gravity, surface tension, and van der Waals forces

K. Kim, T. Bernat, L. Mok, 1985 .

SPECIAL ISSUE ON PLENARY AND INVITED PAPERS FROM ICOPS 2009

James L. Weaver, A. E. Robson, F. Najmabadi, 2010 .

The Science and Technologies for Fusion Energy With Lasers and Direct-Drive Targets

J P Blanchard, J D Sethian, D G Colombant, 2010, IEEE Transactions on Plasma Science.

Lawrence Livermore National Laboratory's activities to achieve ignition by x-ray drive on the National Ignition Facility

John Lindl, Howard T. Powell, Brian J. MacGowan, 1998 .

Lawson Criterion for Ignition Exceeded In An Inertial Fusion Experiment

J. M. Mack, R. S. Craxton, F. M. Munteanu, 2022, 2022 IEEE International Conference on Plasma Science (ICOPS).

Quantitative Analysis of Backlit Shadowgraphy as a Diagnostic of Hydrogen Ice Surface Quality in ICF Capsules

Jeffrey A. Koch, D. N. Bittner, Bruce A. Hammel, 2000 .

The LSU Low Temperature Gravity Wave Experiment

T. Bernat, W. Hamilton, D. Blair, 1977 .

MIT fusion γ‐ray diagnostic development

C. Li, R. Petrasso, J. Coleman, 1992 .

PIXE x rays: From Z =4 to Z =92

C. Li, R. Petrasso, J. Coleman, 1992 .

Theory and Numerical Modelling of the Effects of Ablator Wall and Hohlraum Transfer Gas Thermal Resistances on Deuterium-Tritium Redistribution Rates

W. H. Giedt, Thomas P. Bernat, T. Bernat, 2006 .

Achievement of Target Gain Larger than Unity in an Inertial Fusion Experiment.

J. M. Mack, F. M. Munteanu, J. R. Rygg, 2024, Physical review letters.