汞泡破裂引起的微冲击损伤

M. Futakawa, T. Naoe, H. Kogawa, H. Date, Y. Ikeda
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引用次数: 8

摘要

高功率中子源散裂靶正在世界范围内不断发展。水银靶将安装在J-PARC的材料科学与生命设施,这将促进创新科学。汞靶会受到汞中质子轰击产生的压力波。压力波的传播引起汞的空化,对靶血管造成局部冲击损伤。冲击侵蚀是决定目标寿命的关键问题。研制了电磁冲击试验机MIMTM,用于再现局部冲击侵蚀损伤并评估损伤形成。此外,还进行了液滴冲击分析,研究了孤立坑廓形与微射流速度的关系。我们证实了深度/半径值适用于估算微射流速度,在560W的MIMTM中,相当于1MW质子束注入的速度约为~ 102m/s。
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Micro-Impact Damage Caused by Mercury Bubble Collapse
High-power spallation targets for neutron sources are being developed in the world. Mercury target will be installed at the material science and life facility in J-PARC, which will promote innovative science. The mercury target will be subjected to the pressure wave caused by proton bombarding in the mercury. The pressure wave propagation induces the cavitation in mercury that imposes localized impact damage on the target vessel. The impact erosion is a critical issue to decide the lifetime of target. An electromagnetic impact testing machine, MIMTM, was developed to reproduce the localized impact erosion damage and evaluate the damage formation. Additionally, droplet impact analyses were carried out to investigate the correlation between isolate pit profile and micro-jet velocity. We confirmed that the value of depth/radius was applicable to estimate micro-jet velocity, and the velocity at 560W in MIMTM equivalent to 1MW proton beam injection was ∼ 102m/s approximately.
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