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Analysis

This paper explores the lepton flavor violation (LFV) and diphoton signals within the minimal Left-Right Symmetric Model (LRSM). It investigates how the model, which addresses parity restoration and neutrino masses, can generate LFV effects through the mixing of heavy right-handed neutrinos. The study focuses on the implications of a light scalar, H3, and its potential for observable signals like muon and tauon decays, as well as its impact on supernova signatures. The paper also provides constraints on the right-handed scale (vR) based on experimental data and predicts future experimental sensitivities.
Reference

The paper highlights that the right-handed scale (vR) is excluded up to 2x10^9 GeV based on the diphoton coupling of H3, and future experiments could probe up to 5x10^9 GeV (muon experiments) and 6x10^11 GeV (supernova observations).

Analysis

This paper explores an extension of the Standard Model to address several key issues: neutrino mass, electroweak vacuum stability, and Higgs inflation. It introduces vector-like quarks (VLQs) and a right-handed neutrino (RHN) to achieve these goals. The VLQs stabilize the Higgs potential, the RHN generates neutrino masses, and the model predicts inflationary observables consistent with experimental data. The paper's significance lies in its attempt to unify these disparate aspects of particle physics within a single framework.
Reference

The SM+$(n)$VLQ+RHN framework yields predictions consistent with the combined Planck, WMAP, and BICEP/Keck data, while simultaneously ensuring electroweak vacuum stability and phenomenologically viable neutrino masses within well-defined regions of parameter space.