Abstract

A lepton collider in the multi-TeV range has the potential to measure the trilinear Higgs self-coupling constant λhhh via the W-fusion mode l + l − ! νl¯lhh. In this paper we do a generator-level study to explore how center-of-mass energy spread, cone size, tracking resolution, and collision energy range affect how precisely a muon collider can measure λhhh in comparison to an e + e − collider. The smaller spread in center-of-mass energy and higher energy range of a muon collider improve cross section while the larger cone required to reduce beam-induced background hinders detection of double-Higgs events. Our results motivate a more detailed study of a multi-TeV muon collider and innovative detector and analysis technologies required for background rejection and precision measurement.

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