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Stefano Atzeni

Researcher at Sapienza University of Rome

Publications -  161
Citations -  5813

Stefano Atzeni is an academic researcher from Sapienza University of Rome. The author has contributed to research in topics: Inertial confinement fusion & Laser. The author has an hindex of 33, co-authored 155 publications receiving 5344 citations. Previous affiliations of Stefano Atzeni include European Atomic Energy Community & École Polytechnique.

Papers
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Studies on shock ignition targets for inertial fusion energy

TL;DR: In this article, one-dimensional and two-dimensional numerical simulations of a simple inertial fusion target with a simple all-DT HiPER baseline target (imploded mass of 0.29 mg) and a simple laser wavelength λ = 0.35 μm (0.25 μm) are considered.
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Fast ignitor target studies for HiPER

TL;DR: The HiPER facility has been proposed recently to demonstrate fast ignition of laser-driven inertial fusion targets as discussed by the authors, which has a 3ω, multi-beam, mult-ns-pulse of about 250 kJ and a 2ω or 3ω ignition beam delivering 70 kJ in about 15 ps.
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Improved robustness study of a shock ignited target, with DUED code including non-local electron transport and 3D laser ray-tracing

TL;DR: In this paper, the 2D DUED laser fusion code has been improved with the inclusion of a 3D laser ray-tracing scheme and a model for non-local electron transport.
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Heavy-ion fusion targets with «diffuse» spherical radiation converter

TL;DR: In this paper, the authors derived the conditions for effective hydrodynamic decoupling and showed that with the use of heavy ions with energy about or below 8 GeV, the beam-to-fuel energy coupling efficiency can be as large as in foreseen conventional hohlraums.
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Target design activities for the European study group: heavy ion ignition facility

TL;DR: In this article, an integrated code that can simulate the entire evolution of a target with complex structure has been proposed to evaluate the feasibility of heavy ion-driven inertial confinement fusion ignition with beam energy below 2 MJ.