Modeling of laser-driven proton radiography of dense matter

Laser-driven MeV proton beams are highly suitable for quantitative diagnosis of density profiles in dense matter by employing them as a particle probe in a point-projection imaging scheme. Via differential scattering and stopping, the technique allows to detect density modulations in dense compresse...

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Bibliographic Details
Main Authors: Kar, S, Borghesi, M, Audebert, P, Benuzzi-Mounaix, A, Boehly, T, Hicks, D, Koenig, M, Lancaster, K, Lepape, S, Mackinnon, A, Norreys, P, Patel, P, Romagnani, L
Format: Journal article
Language:English
Published: 2008
Description
Summary:Laser-driven MeV proton beams are highly suitable for quantitative diagnosis of density profiles in dense matter by employing them as a particle probe in a point-projection imaging scheme. Via differential scattering and stopping, the technique allows to detect density modulations in dense compressed matter with intrinsic high spatial and temporal resolutions. The technique offers a viable alternative/complementary route to more established radiographic methods. A Monte-Carlo simulation package, MPRM, has been developed in order to quantify the density profile of the probed object from the experimentally obtained proton radiographs. A discussion of recent progress in this area is presented on the basis of analysis of experimental data, which has been supported by MPRM simulation. © 2008 Elsevier B.V. All rights reserved.