1434 papers
Hep-Ex explores the fascinating intersection where particle physics meets experimental reality. This field investigates how scientists build massive detectors and accelerate particles to test the fundamental laws of nature, turning abstract theories into measurable data. It is the rigorous process of searching for new particles or forces that could reshape our understanding of the universe, often requiring years of collaboration and engineering.
At Gist.Science, we ensure these discoveries become accessible to everyone. We process every new preprint in this category directly from arXiv, generating both plain-language explanations for curious readers and detailed technical summaries for specialists. Our goal is to bridge the gap between complex experimental results and public understanding without losing scientific nuance.
Below are the latest papers in Hep-Ex, freshly summarized and ready for you to explore.
This paper introduces iHOMER, an iterative method combining Bayesian neural networks and uncertainty-aware regression to extract well-calibrated Lund fragmentation functions from experimental data by systematically addressing latent phase space biases and quantifying uncertainties.
This paper demonstrates that utilizing the unique polarization of baryons produced in decays at the FCC-ee, despite comparable statistical sensitivity to LHCb Upgrade II for individual observables, significantly improves constraints on the Wilson coefficients and through a broader set of accessible angular observables.
This paper describes the design and construction of the BUTTON-30, a 30-tonne hybrid detector installed 1.1 km underground at the Boulby Laboratory to evaluate the potential of simultaneous Cherenkov and scintillation light detection for neutrino interactions in a low-background environment.
The ReD experiment utilized a compact dual-phase argon Time Projection Chamber irradiated by neutrons to model-independently measure the ionization yield of argon for nuclear recoils between 2 and 10 keV, revealing higher yields at lower energies than previously observed and extending experimental coverage crucial for detecting low-mass Dark Matter.
The MicroBooNE collaboration presents the first single-differential electron-neutrino charged-current cross-section measurements on argon with final-state protons, reporting a total cross section of that shows good agreement with standard neutrino event generator predictions.
This paper presents the first experimental measurement of the strong interaction scattering parameters for the and systems using femtoscopic correlation functions from Pb--Pb collisions at TeV recorded by ALICE, providing crucial benchmarks for low-energy chiral QCD dynamics.
Using data collected by the SND detector at the VEPP-2000 collider, this paper presents a precise measurement of the cross section in the 0.56–1.1 GeV energy range, yielding improved resonance parameters and a refined calculation of the leading-order hadronic contribution to the muon magnetic anomaly.
This paper proposes a minimal multi-TeV quark-lepton unification framework with inverse seesaw neutrino masses, analyzes current experimental constraints on lepton flavor violation, and demonstrates that upcoming conversion experiments at Fermilab are crucial for testing this theory.
This paper presents a parameter-economical, unified quark-diquark effective mass framework calibrated on baryon spectroscopy and meson splittings to systematically predict the spectra of heavy tetraquarks and pentaquarks while naturally incorporating heavy-quark spin and flavor symmetries.
This paper proposes a covariant orbital-spin decomposed amplitude using massive canonical-spinor variables to streamline partial wave analysis of complex decay chains, a method validated by consistent results in the TF-PWA framework for the decay.