Towards recognizing the light facet of the Higgs Boson
arXiv:1912.12532 · doi:10.1088/2632-2153/aba8e6
Abstract
The Higgs boson couplings to bottom and top quarks have been measured and agree well with the Standard Model predictions. Decays to lighter quarks and gluons, however, remain elusive. Observing these decays is essential to complete the picture of the Higgs boson interactions. In this work, we present the perspectives for the 14 TeV LHC to observe the Higgs boson decay to gluon jets assembling convolutional neural networks, trained to recognize abstract jet images constructed embodying particle flow information, and boosted decision trees with kinetic information from Higgs-strahlung events. We show that this approach might be able to observe Higgs to gluon decays with a significance of around improving significantly previous prospects based on cut-and-count analysis. An upper bound of at 95\% confidence level after 3000 fb of data is obtained using these machine learning techniques.
17 pages, 7 figures and 4 tables. Version accepted for publication in Machine Learning Science and Technology
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