Why there is something rather than nothing: Matter from weak interactions

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Abstract

We show how the baryon number of the universe may be created by anomalous weak interactions during a first-order weak phase transition, in both conventional two-Higgs doublet models and in the supersymmetric standard model. The process we analyze involves non-equilibrium charge transport during the phase transition. Given current estimates of anomalous baryon violation rates, the models we examine are capable of producing a baryon-to-entropy ratio as large as ρB/s {reversed tilde equals} 10-6 for maximal CP violation and optimal phase transition characteristic - many orders of magnitude larger than found with previously proposed mechanisms. Thus the observed value ρB/s {reversed tilde equals} 10-10 can be easily explained by weak interaction physics in a manner that may eventually be experimentally verifiable. © 1992.

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Nelson, A. E., Kaplan, D. B., & Cohen, A. G. (1992). Why there is something rather than nothing: Matter from weak interactions. Nuclear Physics, Section B, 373(2), 453–478. https://doi.org/10.1016/0550-3213(92)90440-M

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