在多特斯拉磁场中运行正常导电射频腔进行介子电离冷却:可行性论证

D. Bowring, A. Bross, P. Lane, M. Leonova, A. Moretti, D. Neuffer, R. Pasquinelli, D. Peterson, M. Popovic, D. Stratakis, K. Yonehara, A. Kochemirovskiy, Y. Torun, C. Adolphsen, L. Ge, A. Haase, Z. Li, D. Martin, M. Chung, D. Li, T. Luo, B. Freemire, A. Liu, M. Palmer
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引用次数: 12

摘要

电离冷却是产生明亮介子光束的首选方法。这种冷却技术需要在直流电磁磁铁的多特斯拉场内运行正常的导电、射频(RF)加速腔。在这些条件下,腔体对射频击穿的敏感性增加,这可能会损坏通道元件并限制通道长度和传输效率。我们提出了一种解决强磁场击穿问题的方法。我们首次报道了在高于50 MV/m的梯度和3特斯拉的外磁场下稳定的高真空铜腔工作。这消除了以前在电离冷却通道设计中固有的重大技术风险。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Operation of normal-conducting rf cavities in multi-Tesla magnetic fields for muon ionization cooling: A feasibility demonstration
Ionization cooling is the preferred method for producing bright muon beams. This cooling technique requires the operation of normal conducting, radio-frequency (RF) accelerating cavities within the multi-tesla fields of DC solenoid magnets. Under these conditions, cavities exhibit increased susceptibility to RF breakdown, which can damage channel components and imposes limits on channel length and transmission efficiency. We present a solution to the problem of breakdown in strong magnetic fields. We report, for the first time, stable high-vacuum, copper cavity operation at gradients above 50 MV/m and in an external magnetic field of three tesla. This eliminates a significant technical risk that has previously been inherent in ionization cooling channel designs.
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