G. Thiell

发表

Experimental scaling laws for ablation parameters in plane target–laser interaction with 1.06 μm and 0.35 μm laser wavelengths

B. Meyer, G. Thiell, 1984 .

Laser-plasma interaction physics in multi kilojoule experiments

D. T. Michel, S. Depierreux, P. Masson-Laborde, 2010 .

Improvement of beam nonuniformity smoothing due to x radiation in laser-driven layered targets

M. Decroisette, B. Meyer, G. Thiell, 1984 .

On hydrodynamic energy transfer between two foils of a laser irradiated double-foil target at 0.35 μm wavelength

B. Meyer, G. Thiell, D. Juraszek, 1985 .

Velocity measurements by X-ray backlighting of plane A1 targets irradiated with frequency-tripled Nd-laser pulses

B. Meyer, G. Thiell, X. Fortin, 1983 .

Observation of soft x‐ray emission in the corona of 0.35‐μm laser‐irradiated gold disks

M. Bernard, G. Thiell, F. Garaude, 1991 .

The PHEBUS experimental facility operating at 250 ps and 0·53 μm

M. Andre, A. Adolf, G. Thiell, 1988 .

Determination of energy transport parameters in flat, layered targets irradiated by picosecond Nd-laser pulses

B. Meyer, G. Thiell, M. Louis-Jacquet, 1981 .

Study of preheat effects in ND‐laser irradiated finite Al disk targets

B. Meyer, G. Thiell, G. Morin, 1982 .

Improved Phebus laser performances required for precision laser-target experiments

G. Thiell, J. Bruneau, C. Gouédard, 1998 .

The LIL facility: An experimental tool for laser-matter interaction

G. Thiell, P. Eyharts, H. Graillot, 2006 .

X-ray emission by the rear side of laser-irradiated gold targets

D. Babonneau, A. Decoster, G. Thiell, 1991 .

Review of the soft-X-ray laser research at CEL-V

P. Combis, B. MacGowan, C. Keane, 1991 .

Thermal instabilities as an explanation of jet-like structures observed on laser irradiated thin planar targets at 1·06 μm and 0·35 μm wavelengths

B. Meyer, G. Thiell, 1985 .

Laser smoothing and imprint reduction with a foam layer in the multikilojoule regime.

E Alozy, S Depierreux, D. T. Michel, 2009, Physical review letters.

X-Ray Emission Experiments at 1.06 µm and 0.35 µm

D. Babonneau, G. Thiell, X. Fortin, 1984 .

Laser physics studies with Phebus as part of the megajoule laser project

L. Videau, A. Adolf, G. Thiell, 1999 .

Low-fluence laser-target coupling

P. Combis, B. Meyer, G. Thiell, 1991 .

Long‐pulse N2 uv laser from a N2‐CF4 mixture

G. Thiell, F. Collier, P. Cottin, 1978 .

Experimental study of a liquid cathode arc and comparison with a cathode sheath model

G. Thiell, J. Georges, M. Fabry, 1976 .

Dense‐plasma production by a liquid‐cathode arc

G. Thiell, M. Fabry, A. Rosseler, 1976 .

SPARTUVIX: A time‐resolved XUV transmission grating spectrograph for x‐ray laser research

P. Combis, B. MacGowan, C. Keane, 1988 .

SPARTUVIX II: An improved x-ray ultraviolet spectrograph with temporal and spatial capabilities for indirect drive inertial confinement fusion experiments (abstract)

K. Eidmann, J. Bourgade, J. Bruneau, 1997 .

Generation of 20-TW pulses of picosecond duration using chirped-pulse amplification in a Nd:glass power chain.

G. Mourou, D. Husson, A. Migus, 1991, Optics letters.

Stimulated Raman backscattering with and without optical fiber smoothing technique in 0.53 μm laser‐created plasmas

C. Rousseaux, B. Meyer, G. Thiell, 1995 .