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Supersymmetric Proton Decay Revisited

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abstract

Encouraged by the advent of a new generation of underground detectors---JUNO, DUNE and Hyper-Kamiokande---that are projected to improve significantly on the present sensitivities to various baryon decay modes, we revisit baryon decay in the minimal supersymmetric SU(5) GUT. We discuss the phenomenological uncertainties associated with hadronic matrix elements and the value of the strong coupling $\alpha_s$---which are the most important---the weak mixing angle $\theta_W$, quark masses including one-loop renormalization effects, quark mixing and novel GUT phases that are not visible in electroweak interaction processes. We apply our analysis to a variety of CMSSM, super- and sub-GUT scenarios in which soft supersymmetry-breaking parameters are assumed to be universal at, above and below the GUT scale, respectively. In many cases, we find that the next generation of underground detectors should be able to probe models with sparticle masses that are ${\cal O}(10)$~TeV, beyond the reach of the LHC.

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Proton decay matrix elements on PACS configurations

hep-lat · 2025-01-23 · conditional · novelty 6.0

A preliminary lattice QCD calculation of twelve proton decay matrix elements at the physical pion mass with Wilson-clover fermions, using updated RI renormalization, agrees mostly with the RBC continuum results.

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  • Proton decay matrix elements on PACS configurations hep-lat · 2025-01-23 · conditional · none · ref 4 · internal anchor

    A preliminary lattice QCD calculation of twelve proton decay matrix elements at the physical pion mass with Wilson-clover fermions, using updated RI renormalization, agrees mostly with the RBC continuum results.