497 papers
This paper applies an effective field theory formalism to two-meson tau decays, concluding that future experiments with 5% precision on modes can test the maximum allowed CP rate asymmetry to either validate or refute the BaBar anomaly in decays.
This paper proposes that neutron stars, formed in core-collapse supernovae with early-Universe-like temperatures, can produce and retain freeze-in dark matter which subsequently annihilates to inject energy, thereby offering a unique method to constrain extremely weakly coupled dark matter models with scattering cross-sections as low as through observable late-time heating signatures.
This paper employs the Basis Light-Front Quantization framework to provide the first theoretical predictions of kaon subleading-twist transverse-momentum-dependent parton distribution functions by explicitly accounting for the interference between quark-antiquark and quark-antiquark-gluon Fock sectors, while also presenting twist-2 and twist-3 collinear parton distribution functions that align well with recent global analyses.
This paper investigates energy-momentum tensor form factors and spatial spin density distributions in the nucleon using a quantized Skyrme model with vector mesons, demonstrating that while global nucleon properties remain invariant, the choice of pseudogauge (canonical versus Belinfante) significantly alters the local interpretation of spin and momentum densities.
This paper demonstrates that in neutron stars, collisional decoherence causes neutron-to-mirror-neutron transitions to undergo rapid exponential relaxation rather than oscillations, thereby keeping the admixture of mirror neutrons negligible compared to ordinary neutrons.
This paper proposes leveraging high-energy colliders as quantum machines to advance quantum simulations in collider physics, specifically demonstrating applications in identifying causal structures within multiloop vacuum amplitudes and performing high-dimensional function integration to develop fully fledged quantum event generators.
The study validates the PACIAE 4.0 model's reliability in describing particle production in proton-antiproton collisions and demonstrates that initial-state baryon-number differences significantly enhance low-energy nucleon production while having negligible effects at high energies or for high-multiplicity particles.
This paper presents a forecast study demonstrating that a stacking analysis of very-high-energy gamma-ray observations from active galactic nuclei located behind galaxy clusters can probe Axion-Like Particle dark matter in the $10^{-8}10^{-7}6\times10^{-13}^{-1}$.
This paper proposes an amortized simulation-based inference method using neural posterior estimation for gravitational-wave ringdown analysis, demonstrating that it achieves statistically consistent parameter estimates orders of magnitude faster than traditional Markov-chain methods while revealing that transient noise contamination significantly biases mass and spin estimates, particularly when glitches occur during the signal's tail.
This paper proposes that the Dark Technicolour paradigm, utilizing the Extended Most Attractive Channel hypothesis across three confining gauge sectors, revitalizes conventional Technicolour dynamics to generate Standard Model fermion masses and resolve the Flavor Problem through a hierarchical structure of multifermion condensates.
This paper introduces a novel class of critical unstable qubits characterized by orthogonal energy and decay-width vectors, revealing their unique coherence-decoherence oscillations and defining anharmonicity observables to quantify these effects within neutral-meson systems.
This paper presents an automated interface between the FlexibleSUSY framework and HiggsTools/Lilith, enabling the direct validation of global Higgs sector agreement with experimental data for both supersymmetric and non-supersymmetric BSM models, including those with CP-violation and invisible decays.
This paper investigates neutrino flavor evolution in high-flux astrophysical environments like supernovae and neutron star mergers, demonstrating that non-forward scattering and many-body dynamics lead to rapid energy and flavor equilibration, which significantly impacts nucleosynthesis and terrestrial neutrino observations.
This paper uses infinite matrix product state techniques to demonstrate that coupling a quantized axion field to the massive Schwinger model in a Hamiltonian lattice gauge theory dynamically relaxes the effective -angle to a CP-conserving minimum, thereby providing a nonperturbative, quantum-hardware-ready solution to the strong CP problem.
This paper presents a coherent S-matrix treatment of the entire neutrino experimental chain that reveals non-factorizable corrections arising from spin and angular correlations, which introduce significant systematic shifts in energy spectra and enable the direct measurement of Majorana CP phases, thereby challenging the standard factorization assumption crucial for next-generation precision neutrino physics.
This paper presents the first lattice QCD study of -meson nucleon scattering at the physical point using the HAL QCD method, revealing that while the interaction features a short-range repulsive core and a shallow attractive pocket with the channel being more attractive than , no bound states (pentaquarks) are found in either isospin channel.
This paper presents a simulation-based inference pipeline combining a physics-informed graph neural network with a normalizing flow to achieve sub-degree angular resolution and well-calibrated uncertainties for reconstructing the arrival directions of ultra-high-energy cosmic rays using sparse radio arrays.
This paper demonstrates that gluon Bose enhancement in the nuclear wave function significantly increases the cross section for incoherent diffractive dijet production when the jets have equal and aligned transverse momenta, an effect that persists and is amplified by JIMWLK evolution in both dilute and dense regimes.
This paper investigates the phenomenology of a light charged Higgs boson ($110 < m_{H^\pm} < 170Z'$ boson, analyzing its production mechanisms at the LHC, current experimental constraints from ATLAS and CMS, and its interplay with dark matter properties.
This paper proposes a Standard Model extension featuring three non-zero hypercharge triplets under a gauge symmetry, demonstrating that the model can simultaneously satisfy vacuum stability up to the Planck scale, perturbative unitarity up to $10^{12}$ GeV, and a strongly first-order electroweak phase transition with detectable gravitational wave signatures at LISA and BBO.