Motivated by the experimentally observed deviations from standard model
predictions, we calculate the anomalous magnetic moments $a_=
(g-2)_\alpha$ for $\alpha=e,\mu$ in a neutrino mass model originally proposed
by Babu-Nandi-Tavartkiladze (BNT). We discuss two variants of the model, the
original model plus a minimally extended version with an additional hypercharge
zero triplet scalar. While the original BNT model can explain $a_\mu$, only the
variant with the triplet scalar can explain both experimental anomalies. The
heavy fermions of the model can be produced at the high-luminosity LHC and in
the part of parameter space, where the model explains the experimental
anomalies, it predicts certain specific decay patterns for the exotic fermions.
%0 Generic
%1 arbelaez2020anomalies
%A Arbeláez, Carolina
%A Cepedello, Ricardo
%A Fonseca, Renato M.
%A Hirsch, Martin
%D 2020
%K g-2
%T $(g-2)$ anomalies and neutrino mass
%U http://arxiv.org/abs/2007.11007
%X Motivated by the experimentally observed deviations from standard model
predictions, we calculate the anomalous magnetic moments $a_=
(g-2)_\alpha$ for $\alpha=e,\mu$ in a neutrino mass model originally proposed
by Babu-Nandi-Tavartkiladze (BNT). We discuss two variants of the model, the
original model plus a minimally extended version with an additional hypercharge
zero triplet scalar. While the original BNT model can explain $a_\mu$, only the
variant with the triplet scalar can explain both experimental anomalies. The
heavy fermions of the model can be produced at the high-luminosity LHC and in
the part of parameter space, where the model explains the experimental
anomalies, it predicts certain specific decay patterns for the exotic fermions.
@misc{arbelaez2020anomalies,
abstract = {Motivated by the experimentally observed deviations from standard model
predictions, we calculate the anomalous magnetic moments $a_\alpha =
(g-2)_\alpha$ for $\alpha=e,\mu$ in a neutrino mass model originally proposed
by Babu-Nandi-Tavartkiladze (BNT). We discuss two variants of the model, the
original model plus a minimally extended version with an additional hypercharge
zero triplet scalar. While the original BNT model can explain $a_\mu$, only the
variant with the triplet scalar can explain both experimental anomalies. The
heavy fermions of the model can be produced at the high-luminosity LHC and in
the part of parameter space, where the model explains the experimental
anomalies, it predicts certain specific decay patterns for the exotic fermions.},
added-at = {2020-07-23T10:23:19.000+0200},
author = {Arbeláez, Carolina and Cepedello, Ricardo and Fonseca, Renato M. and Hirsch, Martin},
biburl = {https://www.bibsonomy.org/bibtex/287c46e9ed1dbe85cda8cb52ce45d415c/cmcneile},
description = {$(g-2)$ anomalies and neutrino mass},
interhash = {42c244488be621db8adbd3e90085c10b},
intrahash = {87c46e9ed1dbe85cda8cb52ce45d415c},
keywords = {g-2},
note = {cite arxiv:2007.11007Comment: 23 pages, 14 figures},
timestamp = {2020-07-23T10:23:19.000+0200},
title = {$(g-2)$ anomalies and neutrino mass},
url = {http://arxiv.org/abs/2007.11007},
year = 2020
}