X. Luo

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

Research reveals WTAP's crucial role in regulating immune response via m6A modification.

Study measures how muon neutrinos interact with argon, advancing our understanding of particle physics.

Research reveals how water and temperature affect plant carbon absorption.

A look into SBND's efforts to detect and study neutrinos.

Researchers enhance neutrino energy estimates using deep learning techniques.

This article discusses a method to detect neutrons in neutrino interactions using secondary protons.

This study examines how positively charged kaons interact with argon in high-energy experiments.

Research reveals how pions and muons interact with argon atoms, enhancing detection methods.

CIGB-300 shows promise in overcoming drug resistance in lung cancer treatment.

scELMo utilizes large language models to analyze single-cell data effectively.

New methods improve energy measurement in liquid argon time projection chambers for particle physics.

CHEER offers guidelines for clear reporting of AI tools in healthcare studies.

Discover how FeSe superconductors hold promise for future technologies through intrinsic pinning.

Scientists analyze MicroBooNE findings to shed light on elusive neutrinos.