How charges and masses create the Universe around usFundamental particles and their properties are the building blocks of the universe, explaining its complexity despite the simplicity of the Standard Model.
How small are the fundamental particles of the Universe?Understanding matter involves discovering components that can no longer be divided, defining them as 'fundamental' particles.
How charges and masses create the Universe around usFundamental particles and their properties are the building blocks of the universe, explaining its complexity despite the simplicity of the Standard Model.
How small are the fundamental particles of the Universe?Understanding matter involves discovering components that can no longer be divided, defining them as 'fundamental' particles.
Does dark matter interact non-gravitationally at all?Dark matter and dark energy are essential components to explain discrepancies between observations and traditional cosmic models.
Appendices on Our Dark Matter Study | HackerNoonDark matter exploration encompasses various candidates, detection methods, and theoretical extensions such as ALP and U(1)X models.
The Phenomenology of Dark Matter Explained | HackerNoonDark matter relic abundance is evaluated using contributions from scalar and fermion components, highlighting constraints from various experiments.
Dark Matter Through ALP Portal: An Introduction | HackerNoonNeutrino oscillation discoveries necessitate physics beyond the Standard Model, highlighting scenarios involving right-handed neutrinos as dark matter candidates.
Dark Matter Research: Everything That We Analyzed | HackerNoonThe study explores a minimal extension of the Standard Model to explain dark matter and neutrino oscillations using ALP-mediated right-handed neutrinos.
Studying a Two-Component Dark Matter Model: An Introduction | HackerNoonThe study explores a unified model for dark matter and neutrino mass within a U(1)X extension of the standard model.
Does dark matter interact non-gravitationally at all?Dark matter and dark energy are essential components to explain discrepancies between observations and traditional cosmic models.
Appendices on Our Dark Matter Study | HackerNoonDark matter exploration encompasses various candidates, detection methods, and theoretical extensions such as ALP and U(1)X models.
The Phenomenology of Dark Matter Explained | HackerNoonDark matter relic abundance is evaluated using contributions from scalar and fermion components, highlighting constraints from various experiments.
Dark Matter Through ALP Portal: An Introduction | HackerNoonNeutrino oscillation discoveries necessitate physics beyond the Standard Model, highlighting scenarios involving right-handed neutrinos as dark matter candidates.
Dark Matter Research: Everything That We Analyzed | HackerNoonThe study explores a minimal extension of the Standard Model to explain dark matter and neutrino oscillations using ALP-mediated right-handed neutrinos.
Studying a Two-Component Dark Matter Model: An Introduction | HackerNoonThe study explores a unified model for dark matter and neutrino mass within a U(1)X extension of the standard model.
Physicists Just Observed An Extremely Rare Event That Could Shake Up the Foundation of Modern PhysicsA rare kaon decay event observed at CERN may challenge the established Standard Model of particle physics.
Something Wild Just Happened at the CERN Particle AcceleratorCERN scientists observed an extremely rare kaon decay, offering potential insights for testing and expanding the standard model of particle physics.
How B-mesons are threatening to break the Standard ModelB-mesons could reveal physics beyond the Standard Model, challenging existing theories with new decay data.
Physicists Just Observed An Extremely Rare Event That Could Shake Up the Foundation of Modern PhysicsA rare kaon decay event observed at CERN may challenge the established Standard Model of particle physics.
Something Wild Just Happened at the CERN Particle AcceleratorCERN scientists observed an extremely rare kaon decay, offering potential insights for testing and expanding the standard model of particle physics.
How B-mesons are threatening to break the Standard ModelB-mesons could reveal physics beyond the Standard Model, challenging existing theories with new decay data.
Why the number "1/137" appears everywhere in natureThe Universe is uniquely defined by its laws, fundamental constants, and initial conditions, shaping the reality we observe.
Ultra-precise particle measurement thrills physicists: 'The standard model is not dead'The CMS experiment at LHC confirms the W boson mass aligns with the standard model, dispelling doubts regarding previous anomaly observations.
Ultra-Precise Particle Measurement Narrows Pathway to New Physics'The CMS experiment's measurement of the W boson confirms the standard model, countering previous anomalies and reaffirming established physics.
Ultra-precise particle measurement thrills physicists: 'The standard model is not dead'The CMS experiment at LHC confirms the W boson mass aligns with the standard model, dispelling doubts regarding previous anomaly observations.
Ultra-Precise Particle Measurement Narrows Pathway to New Physics'The CMS experiment's measurement of the W boson confirms the standard model, countering previous anomalies and reaffirming established physics.
The one cosmic secret that demands a new particle colliderThe Universe is mainly composed of normal matter, raising unresolved questions about why there's a lack of antimatter.
The Role of the 24-Cell in Space-Time Quanta and Quantum Computing | HackerNoonThe proposed idea suggests that space-time quanta may be represented by the 24-cell structure, providing insights into the fundamental nature of particles and mass creation.
China could start building world's biggest particle collider in 2027China plans to build a US$5 billion particle smasher, beating Europe's proposed facility in cost and speed.