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Heavy fermions and two loop electroweak corrections to $b\rightarrow s+\gamma$

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arxiv 1005.4543 v1 pith:LAYZK4JN submitted 2010-05-25 hep-ph

classification hep-ph
keywords loopcorrectionselectroweakfermionsgammaheavyrightarrowcouplings
verification ladder T0 review T1 audit T2 compute T3 formal

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abstract

Applying effective Lagrangian method and on-shell scheme, we analyze the electroweak corrections to the rare decay $b\rightarrow s+\gamma$ from some special two loop diagrams in which a closed heavy fermion loop is attached to the virtual charged gauge bosons or Higgs. At the decoupling limit where the virtual fermions in inner loop are much heavier than the electroweak scale, we verify the final results satisfying the decoupling theorem explicitly when the interactions among Higgs and heavy fermions do not contain the nondecoupling couplings. Adopting the universal assumptions on the relevant couplings and mass spectrum of new physics, we find that the relative corrections from those two loop diagrams to the SM theoretical prediction on the branching ratio of $B\rightarrow X_{_s}\gamma$ can reach 5% as the energy scale of new physics $\Lambda_{_{\rm NP}}=200$ GeV.

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  1. The Higgs boson decay $h \rightarrow bs$ in the NB-LSSM

    hep-ph 2026-07 conditional novelty 4.0 of 10

    Under B̄ o Xsγ constraints, NB-LSSM parameters can raise Br(h o bs) to ~10^{-5}, orders of magnitude above the SM, while remaining consistent with Higgs mass and signal strengths.

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