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Collisional particle-in-cell modeling for energy transport accompanied by atomic processes in dense plasmas

机译:在高密度等离子体中进行能量传输并伴随原子过程的碰撞细胞内建模

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摘要

Fully relativistic collisional Particle-in-Cell (PIC) code, PICLS, has been developed to study extreme energy density conditions produced in intense laser-solid interaction. Recent extensions to PICLS, such as the implementation of dynamic ionization, binary collisions in a partially ionized plasma, and radiative losses, enhance the efficacy of simulating intense laser plasma interaction and subsequent energy transport in resistive media. Different ionization models are introduced and benchmarked against each other to check the suitability of the model. The atomic physics models are critical to determine the energy deposition and transport in dense plasmas, especially when they consist of high Z (atomic number) materials. Finally we demonstrate the electron transport simulations to show the importance of target material on fast electron dynamics.
机译:已开发出完全相对论的碰撞式单元内粒子(PIC)代码PICLS,用于研究在强烈的激光与固体相互作用中产生的极端能量密度条件。 PICLS的最新扩展,例如实现动态电离,部分电离的等离子体中的二元碰撞以及辐射损耗,增强了模拟强烈的激光等离子体相互作用以及随后在电阻介质中传输能量的功效。引入了不同的电离模型并相互进行了基准测试,以检查模型的适用性。原子物理学模型对于确定密集等离子体中的能量沉积和传输至关重要,特别是当它们由高Z(原子序数)材料组成时。最后,我们演示了电子传输模拟,以显示目标材料对快速电子动力学的重要性。

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