78 / 2023-04-13 09:09:13
High Power Nanosecond Laser for Dynamic Shock Compression
Pulse shaped,Nanosecond laser,High pressure physics,Dynamic Shock Compression
摘要录用
Olivier Zabiolle / Amplitude Laser
Dynamic Compression allows scientists to experimentally simulate the high pressure and high temperature conditions existing at the core of exoplanets, in order to elucidate the structure, composition, history and dynamics of new materials naturally unavailable on Earth.



Traditional methods dedicated to Dynamic Shock Compression include static compression, (e.g., diamond anvil cells) and explosives and light-gas guns. However this methods are either limited in achievable pressure or they produce too high temperatures.



High-power lasers allow for the first time for the reliable and exact energy deposition at a high compression without inducing excessive heating. High power lasers are being established as state-of-the-art tools to push the frontiers of high-pressure research giving rise to Laser Driven Dynamic Compression approach.



Specific requirements are demanded to this kind of laser: high-energy, first-class beam quality, versatile pulse shaping capability and high repetition rate.



It is in this context that Amplitude has developed, manufactured, and delivered (European Synchrotron Radiation Facility, Los Alamos National laboratory) the Premiumlite-Glass laser for Laser Driven Dynamic Shock Compression.



We will present in this paper this laser capable of delivering up to 200J at 0.1Hz at 1053nm. The laser uses an innovative amplifier technology based on an active mirror disk amplifier module. Disk amplifiers modules are flashlamp-pumped in order to offer a cost-effective solution. Thanks to a specific front-end, the pulsewidth can vary from a few ns to 15ns with a high resolution (125 ps) programmable pulse shape. Peak power can reach up to 25GW with triangular, t2, t3 pulse shapes.



We will continue by presenting our perspective of scaling the above-mentioned technology to kJ-class laser with a repetition rate of 1 shot per minute and our other solutions based on rod technology capable of delivering up to 100J in a single pulse.
重要日期
  • 会议日期

    06月05日

    2023

    06月09日

    2023

  • 04月30日 2023

    提前注册日期

  • 05月01日 2023

    摘要截稿日期

  • 05月01日 2023

    摘要录用通知日期

  • 05月01日 2023

    初稿截稿日期

  • 05月31日 2023

    注册截止日期

主办单位
等离子体物理重点实验室
北京师范大学天文系
承办单位
Matter and Radiation at Extremes期刊
中国工程物理研究院流体物理研究所
北京应用物理与计算数学研究所
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