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引用次数: 0
摘要
标准模型(SM)的缺陷促使其扩展以适应新的预期现象,如暗物质和中微子质量。然而,由于存在更多的自由参数以及额外的现象学,这种扩展通常更为复杂。了解当前的理论和实验约束如何单独或集体地影响新模型的参数空间,对于实现可检验的预测和旨在解决某些问题的有针对性的模型构建至关重要。我们提出了一种综合方法,即使用深度学习(Deep Learning,DL)对以实单子增强的双希格斯双子模型(N2HDM)为代表的理论和实验限制进行多标签分类(MLC)。这种方法可以推广到 SM 以外的任何扩展。
Multi-label Classification of Parameter Constraints in BSM Extensions using Deep Learning
The shortcomings of the Standard Model (SM) motivate its extension to
accommodate new expected phenomena, such as dark matter and neutrino masses.
However, such extensions are generally more complex due to the presence of a
larger number of free parameters as well as additional phenomenology.
Understanding how current theoretical and experimental constraints,
individually and collectively, affect the parameter spaces of new models is of
utmost importance in achieving testable predictions and targeted model-building
that aims to solve certain issues. We present a comprehensive approach of using
Deep Learning (DL) for the multi-label classification (MLC) of theoretical and
experimental limits on the two-Higgs doublet model augmented by a real singlet
(N2HDM), as a representative case. This approach can be generalized to any
extension beyond the SM.