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Matrix Element Method at NLO for (anti-)$\mathbf{k_t}$-jet algorithms
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abstract
In this article, we present a method to calculate a posteriori event weights at next-to-leading-order (NLO) QCD accuracy for a given jet event defined by the (anti-)$k_t$ algorithm relying on the conventional $2\to 1$ recombination. This is an important extension compared to existing Monte-Carlo tools which generate jet events together with the corresponding weight but do not allow one to calculate the weight for a given event. The method can be used to generate unweighted events distributed according to the fixed-order NLO cross section. In addition, the method allows one to calculate NLO accurate weights for events recorded by experiments. The potential of this ability is illustrated by applying the Matrix Element Method (MEM) to single top-quark events generated with POWHEG in combination with Pythia. For the first time, a systematic study of parton shower effects within the MEM is provided. The method is completely general and can be applied to arbitrary LHC processes.
Forward citations
Cited by 2 Pith papers
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Exploring BSM Higgs couplings in single top-quark production
A simulated LHC analysis shows that the Matrix Element Method could extract the top-Higgs CP-mixing angle to about one degree with 300 inverse femtobarns, and a 5-sigma discovery would need about 20 inverse femtobarns...
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Towards a generic implementation of matrix-element maximisation as a classifier in particle physics
Matrix-element maximisation classifies ttH events with 60-85% of the significance of the traditional integration-based MEM while being up to two orders of magnitude faster.
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