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TNSA in the ultra-high contrast regime

T Ceccotti, A Lévy, F Réau, H Popescu, P Monot, E Lefebvre, Ph Martin2008年Plasma Physics and Controlled FusionIF 2.2出版社

We present some of the results obtained when an ultra-high-intensity (∼5 × 1018W cm−2), ultra-high contrast (>1010) laser pulse interacts with thins foils. Under such conditions, protons accelerated by the target normal sheat acceleration mechanism are observed from both sides of the target and show quasi-symmetric features which have been corroborated by extensive 1D and 2D particle-in-cell simulations. Moreover, we show that due to the very steep gradient of the laser-irradiated surface, the Brunel effect is the main laser energy coupling mechanism.

日本語訳

本稿では、超高強度(∼5 × 10¹⁸ W cm⁻²)、超高コントラスト(>10¹⁰)のレーザーパルスが薄膜と相互作用した際に得られた結果の一部を提示する。このような条件下では、ターゲット法線シース加速機構によって加速された陽子が、ターゲットの両側から観測され、準対称的な特徴を示す。この結果は、大規模な1次元および2次元の粒子インセルシミュレーションによって裏付けられている。さらに、レーザー照射表面の非常に急峻な密度勾配により、ブルネル効果が主要なレーザーエネルギー結合機構であることを示す。

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