#standard-model

#standard-model

Researchers have precisely measured the maximum mass of neutrinos, advancing understanding of subatomic physics and the universe's expansion.

Fundamental particles and their properties are the building blocks of the universe, explaining its complexity despite the simplicity of the Standard Model.

Dark matter and dark energy are essential components to explain discrepancies between observations and traditional cosmic models.

Dark matter exploration encompasses various candidates, detection methods, and theoretical extensions such as ALP and U(1)X models.

Dark matter relic abundance is evaluated using contributions from scalar and fermion components, highlighting constraints from various experiments.

Neutrino oscillation discoveries necessitate physics beyond the Standard Model, highlighting scenarios involving right-handed neutrinos as dark matter candidates.

The study explores a minimal extension of the Standard Model to explain dark matter and neutrino oscillations using ALP-mediated right-handed neutrinos.

The study analyzes various dark matter models, focusing on the constraints of the U(1)X extension of the Standard Model.

A rare kaon decay event observed at CERN may challenge the established Standard Model of particle physics.

CERN scientists observed an extremely rare kaon decay, offering potential insights for testing and expanding the standard model of particle physics.

B-mesons could reveal physics beyond the Standard Model, challenging existing theories with new decay data.