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Testing R-parity with Geometry

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arxiv 1512.00854 v1 pith:XB3LLGB3 submitted 2015-12-02 hep-th hep-phmath.AG

classification hep-thhep-phmath.AG
keywords r-parityvacuumbilinearfieldsfundamentalgeometricalgeometryhiggs
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We present a complete classification of the vacuum geometries of all renormalizable superpotentials built from the fields of the electroweak sector of the MSSM. In addition to the Severi and affine Calabi-Yau varieties previously found, new vacuum manifolds are identified; we thereby investigate the geometrical implication of theories which display a manifest matter parity (or R-parity) via the distinction between leptonic and Higgs doublets, and of the lepton number assignment of the right-handed neutrino fields. We find that the traditional R-parity assignments of the MSSM more readily accommodate the neutrino see-saw mechanism with non-trivial geometry than those superpotentials that violate R-parity. However there appears to be no geometrical preference for a fundamental Higgs bilinear in the superpotential, with operators that violate lepton number, such as \nu H\bar{H}, generating vacuum moduli spaces equivalent to those with a fundamental bilinear.

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  1. Vacuum Geometry of the Standard Model

    hep-th 2025-06 conditional novelty 7.0 of 10

    The vacuum moduli space of the MSSM is shown to consist of three rational components of dimensions 1, 15, and 29 via Gröbner basis computations.

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