Latest Articles for Experimental Physics

ATLAS explores the potential existence of supersymmetry using advanced particle collision data.

An overview of light-matter interactions and the limitations of the Jaynes-Cummings model.

Researchers investigate the interplay of quantum scars and non-Hermitian properties.

New models improve predictions of rare radioactive decay processes.

Exploring entanglement changes after sudden splits in quantum systems.

A study on the interactions of light and nucleons for deeper insights into matter.

Module-0 showcases innovative detection technology for studying challenging neutrino particles.

Research reveals key insights on phase transitions of Rydberg atoms.

ORENS technique improves quantum state measurement accuracy amid hardware challenges.

Investigating jettiness provides insights into particle interactions in high-energy collisions.

A method to prepare two-species ion crystals using a linear Paul trap.

Research reveals universal behavior in unitary Fermi gases using fictitious particles.

This article examines events with missing transverse momentum and jets in high-energy collisions.

This research investigates top-quark pair production involving isolated photons and its implications.

Research reveals how atomic arrays emit light under strong illumination.

Research explores spin-orbit interactions and their impact on the Josephson effect.

ATLAS experiment reveals significant findings on electroweak production processes.

Research reveals how imperfections affect the behavior of dipolar Bose gases.

Researchers study photon BEC responses to disturbances, revealing complex behaviors.

Investigating (anti)neutrino-nucleon scattering to reveal weak interactions in particle physics.

Research reveals how THz pulses change superconducting properties through precise chirp control.

A look at how color structures affect particle interactions and their implications.

This study improves our understanding of meson production during heavy-ion collisions.

Exploring how time delays impact interactions between light and atoms in waveguide quantum electrodynamics.

Exploring how noise affects changes in fluid flow behaviors and patterns.

This study investigates cLFV in top quark interactions using data from the LHC.

A look into how magnetic fields influence particle behavior in heavy-ion collisions.

Research explores flux noise in SQUIDs and its implications for quantum computing.

Examining neutron decay reveals insights into particle interactions and potential new physics.

BHAC-QGP simulation tool enhances understanding of heavy-ion collisions and quark-gluon plasma.

Discover how nuclear shadowing affects particle interactions in high-energy physics.

The sTED improves neutron detection efficiency and accuracy in high flux environments.

Investigating particle collisions to uncover fundamental physics and new phenomena.

Exploring how 1D patterns impact the electronic behavior of the Lieb lattice.

Study of nucleon interactions reveals key insights through effective range parameters.

This article explores the decay processes and properties of the -meson.

Scientists study new quarks using the 2-Higgs Doublet Model to enhance particle detection.

Recent findings on MoTe challenge existing theories in condensed matter physics.

Investigating the role of axion-like particles in particle physics and the strong CP issue.

Investigating vector-like leptons could resolve significant questions in particle physics.