Can we really detect relic neutrinos?

Y. Cheipesh, I. Ridkokasha, V. Cheianov, A. Boyarsky
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引用次数: 0

Abstract

Detecting relic neutrinos is a longstanding goal in fundamental physics. Experimentally, this goal is extremely challenging as the required energy resolution is defined by the tiny neutrino masses (\sim∼ 10 meV). The current consensus is that sufficient statistics together with a clean spectrum could only be achieved if beta decayers are attached to a solid state substrate. However, this inevitably imposes irreducible intrinsic limitations on the energy resolution coming from Heisenberg’s uncertainty principle. This limitation appears to be critical for the currently accepted decayer - Tritium. Here, we analyze the state of the art approaches to mitigate this limitation and conclude that the most promising solution is to change Tritium for a heavier emitter. We find that the two suitable candidates are ^{171}171Tm, ^{63}63Ni.
我们真的能探测到残留的中微子吗?
探测残余中微子是基础物理学的一个长期目标。实验上,这一目标极具挑战性,因为所需的能量分辨率是由微小的中微子质量(\sim ~ 10 meV)定义的。目前的共识是,只有将β衰变体附着在固态衬底上,才能获得充分的统计数据和干净的光谱。然而,这不可避免地对来自海森堡测不准原理的能量分辨率施加了不可约的内在限制。这一限制对于目前公认的十余年元素氚来说是至关重要的。在这里,我们分析了缓解这一限制的最先进方法的状态,并得出结论,最有希望的解决方案是将氚改为更重的发射器。我们发现两个合适的候选者是^{171}171Tm, ^{63}63Ni。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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