S3 and D4 3HDMs with an extra singlet RH neutrino realize discrete dark matter plus scoto-seesaw neutrino masses, fitting oscillation data under CP conservation.
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4 Pith papers cite this work, alongside 22 external citations. Polarity classification is still indexing.
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KamLAND finds 7 events consistent with background in 9+ kton-year exposure using NN classification and sets 90% CL DSNB flux upper limits of 38-43 cm^{-2} s^{-1} plus model-independent antineutrino flux bounds below 13.3 MeV.
A neural network trained only on gamma-ray pulses rejects alpha events in a BEGe germanium detector by a 90%-CL factor of >2.7×10^4 while preserving >80% of the single-site signal proxy.
The NEXT-100 detector operates in a virtually radon-free environment, with radon-induced backgrounds reduced to ~4×10⁻⁵ counts/(keV·kg·yr) after topological selection, one order of magnitude below total radiogenic background expectations.
citing papers explorer
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Neutrino Masses and Dark Matter Stability in 3HDMs with Minimal Non-Abelian Discrete Symmetries
S3 and D4 3HDMs with an extra singlet RH neutrino realize discrete dark matter plus scoto-seesaw neutrino masses, fitting oscillation data under CP conservation.
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Search for Diffuse Supernova Neutrino Background in the Full KamLAND Dataset with Neural-Network-Based Event Classification
KamLAND finds 7 events consistent with background in 9+ kton-year exposure using NN classification and sets 90% CL DSNB flux upper limits of 38-43 cm^{-2} s^{-1} plus model-independent antineutrino flux bounds below 13.3 MeV.
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Pulse shape discrimination for $\alpha$ event rejection in BEGe-type high-purity germanium detectors
A neural network trained only on gamma-ray pulses rejects alpha events in a BEGe germanium detector by a 90%-CL factor of >2.7×10^4 while preserving >80% of the single-site signal proxy.
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Radon-induced backgrounds in the NEXT-100 experiment
The NEXT-100 detector operates in a virtually radon-free environment, with radon-induced backgrounds reduced to ~4×10⁻⁵ counts/(keV·kg·yr) after topological selection, one order of magnitude below total radiogenic background expectations.