630 papers
Hep-Lat, short for High Energy Physics – Lattice, explores the fundamental forces of nature by simulating particle interactions on a digital grid. Instead of relying solely on abstract equations, researchers in this field use powerful computers to model how quarks and gluons bind together, offering deep insights into the structure of matter that are often impossible to derive analytically.
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Below are the latest papers in High Energy Physics – Lattice, curated directly from arXiv and ready for you to explore.
This paper proposes and validates an empirical precision extrapolation method to achieve high-precision -gauge fixing in lattice QCD, successfully reproducing -dependent renormalization constants for local quark bilinear operators up to with 0.3% accuracy.
Using QCD sum rules, this study investigates the hadronic tensor molecule , calculating its mass and decay width to propose it as a viable candidate for the experimentally observed resonance .
This paper presents the first extraction of the unpolarised gluon transverse-momentum-dependent parton distribution from LHC Higgs-boson production data by fitting ATLAS and CMS measurements within a TMD factorisation framework that includes NLL accuracy and linearly polarised gluon contributions.
This study utilizes large-volume lattice QCD simulations at the flavor-symmetric SU(3) point to identify bound states corresponding to the , , and resonances, subsequently employing Unitary Chiral Perturbation Theory to trace their pole trajectories to the physical point.
This paper proposes three sample-efficient classical shadow protocols for lattice gauge theory that leverage gauge symmetry to achieve exponential improvements in sample complexity over symmetry-agnostic methods, offering a blueprint for simulating more general lattice gauge models.
This paper introduces and validates a formally correct machine-learning-based global proposal mechanism for Monte Carlo sampling in SU(2) lattice gauge theory, demonstrating its ability to reproduce target ensembles and achieve modest efficiency gains in hybrid configurations while serving as a proof-of-principle foundation for future extensions to larger lattices and non-Abelian theories.
This paper proposes a novel framework modeling topological phases of matter by embedding code-based Narain conformal field theories into critical lattice quantum field theory, utilizing Lie algebra constructions to demonstrate emergent fermionic excitations with Dirac cones characteristic of the Haldane model.
This paper combines lattice QCD, effective field theories, and multimessenger constraints to model first-order QCD phase transitions in neutron stars, predicting distinctive signatures such as twin star branches and delayed gravitational-wave frequency shifts that, while marginally consistent with current data, offer testable predictions for next-generation detectors like the Einstein Telescope.
Motivated by recent HAL QCD simulations, this study employs a first-principles few-body framework to predict the existence of deeply and moderately bound -mesic nuclei (, , and ), demonstrating that strong short-range attraction in the channel is the key binding mechanism.
This paper argues that CP is conserved in strong interactions because topological quantization arises from taking the infinite spacetime volume limit before summing over topological sectors, a reasoning the authors demonstrate is consistent with steepest-descent path integral constructions and robust against various objections regarding theta-parameters and instanton approximations.