Laser-accelerated ions from layered targets

Gizzi, L. A.; Betti, S.; Förster, E.; Giulietti, A.; Giulietti, Danilo; Kämpfer, T.; Köster, P.; Labate, L.; Levato, T.; Lübcke, A.; Robinson, A. P. L.; Uschmann, I.; Zamponi, F.

doi:10.1016/j.nima.2010.01.065

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Laser-plasma Acceleration Of Charged Particles1

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Cited by 2 publications

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“…When a relativistically intense laser pulse irradiates a thin foil, the laser energy may be efficiently converted to a well-collimated beam of accelerated ions [20,24,25,32,33,67,74,75,78,84,91,95,124,133,158,170,193,244,246,250].…”

Section: Laser-plasma Acceleration Of Charged Particlesmentioning

confidence: 99%

Technical Applications of the Physics of High Energy Densities

Фортов¹

2016

Extreme States of Matter

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Section: Laser-plasma Acceleration Of Charged Particlesmentioning

confidence: 99%

Technical Applications of the Physics of High Energy Densities

Фортов¹

2016

Extreme States of Matter

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5.5–7.5 MeV Proton Generation by a Moderate-Intensity Ultrashort-Pulse Laser Interaction withH2ONanowire Targets

et al. 2011

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We report on the first generation of 5.5-7.5 MeV protons by a moderate-intensity short-pulse laser (∼5×10(17) W/cm(2), 40 fsec) interacting with frozen H(2)O nanometer-size structure droplets (snow nanowires) deposited on a sapphire substrate. In this setup, the laser intensity is locally enhanced by the snow nanowire, leading to high spatial gradients. Accordingly, the nanoplasma is subject to enhanced ponderomotive potential, and confined charge separation is obtained. Electrostatic fields of extremely high intensities are produced over the short scale length, and protons are accelerated to MeV-level energies.

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Laser-accelerated ions from layered targets

Cited by 2 publications

References 60 publications

Technical Applications of the Physics of High Energy Densities

Technical Applications of the Physics of High Energy Densities

5.5–7.5 MeV Proton Generation by a Moderate-Intensity Ultrashort-Pulse Laser Interaction withH2ONanowire Targets

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