CERN Accelerating science

Preprint
Report number	arXiv:2203.05010
Title	New Ideas in Baryogenesis: A Snowmass White Paper
Author(s)	Elor, Gilly (U. Mainz, PRISMA ; Mainz U.) ; Harz, Julia (Munich, Tech. U.) ; Ipek, Seyda (Carleton U.) ; Shakya, Bibhushan (DESY) ; Blinov, Nikita (Victoria U.) ; Co, Raymond T. (Minnesota U., Theor. Phys. Inst.) ; Cui, Yanou (UC, Riverside) ; Dasgupta, Arnab (Brookhaven) ; Davoudiasl, Hooman (Pittsburgh U.) ; Elahi, Fatemeh (U. Mainz, PRISMA ; Mainz U.) ; Fridell, Kåre (Munich, Tech. U.) ; Ghalsasi, Akshay (Brookhaven) ; Harigaya, Keisuke (CERN) ; Hati, Chandan (Munich, Tech. U.) ; Huang, Peisi (Nebraska U.) ; Maleknejad, Azadeh (CERN) ; McGehee, Robert (Michigan U.) ; Morrissey, David E. (TRIUMF) ; Schmitz, Kai (CERN) ; Shamma, Michael (TRIUMF) ; Shuve, Brian (Harvey Mudd Coll.) ; Tucker-Smith, David (Williams Coll.) ; van de Vis, Jorinde (DESY) ; White, Graham (Tokyo U., IPMU)
Imprint	2022-03-09
Note	Contribution to Snowmass 2021. Solicited white paper from TF08. v2: includes additional contributions
Presented at	2021 Snowmass Summer Study, Seattle, WA, United States, 11 - 20 July 2021, pp.
Subject category	hep-ex ; Particle Physics - Experiment ; astro-ph.CO ; Astrophysics and Astronomy ; hep-ph ; Particle Physics - Phenomenology
Abstract	The Standard Model of Particle Physics cannot explain the observed baryon asymmetry of the Universe. This observation is a clear sign of new physics beyond the Standard Model. There have been many recent theoretical developments to address this question. Critically, many new physics models that generate the baryon asymmetry have a wide range of repercussions for many areas of theoretical and experimental particle physics. This white paper provides an overview of such recent theoretical developments with an emphasis on experimental testability.
Other source	Inspire
Copyright/License	preprint: (License: CC0 1.0)