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Neutrino Properties Deduced from the Study of Lepton Number Violating Processes at Low and High Energies

机译:从Lepton Number的研究中推断的中微子属性违反了低能量的过程

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There is nowadays a significant progress in understanding the neutrino properties. The results of the neutrino oscillation experiments have convincingly showed that neutrinos have mass and oscillate, in contradiction with the Standard Model (SM) assumptions, and these are the first evidences of beyond SM physics. However, fundamental properties of the neutrinos like their absolute mass, their character (are they Dirac or Majorana particles?), their mass hierarchy, the number of neutrino flavors, etc., still remain unknown. In this context there is an increased interest in the study of the lepton number violating (LNV) processes, since they could complete our understanding on the neutrino properties. Since recently, the neutrinoless double beta decay was considered the only process able to distinguish between Dirac or Majorana neutrinos and to give a hint on the absolute mass of the electron neutrino. At present, the increased luminosity of the LHC experiments makes feasible the search of LNV processes at high energy as well. In this lecture I will make a brief review on our present knowledge of the neutrino properties, on the present status of the double-beta decay studies and on the first attempts to search LNV processes at LHC.
机译:如今在理解中性学性质时存在重大进展。中微子振荡实验的结果令人信服地表明,中微子有质量和振荡,与标准模型(SM)假设矛盾,这些是超越SM物理学的首次证据。然而,中微子的基本属性像他们的绝对质量一样,它们的性格(它们是狄拉姆或马来撒颗粒?),它们的质量等级,中微子味道的数量仍然是未知的。在这种情况下,对违反(LNV)流程的Lepton号的研究有所增加,因为他们可以完成我们对中微子属性的理解。从最近,中微子双β腐烂被认为是能够区分Dirac或Majorana Neverrinos的唯一过程,并在电子中性的绝对质量上给出暗示。目前,LHC实验的亮度增加,也可以在高能量下搜索LNV过程。在本讲座中,我将简要审查我们对中微粒性属性的现状,对双β衰变研究的现状以及第一次在LHC搜索LNV进程的尝试。

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