816 papers
This study demonstrates that interfacial hybridization, charge transfer, and strain serve as critical tuning parameters to control competing electronic phases in monolayer VSe, revealing that strong coupling to Au(111) suppresses the charge density wave (CDW) while strain in decoupled regions stabilizes a distinct CDW phase.
This review advocates for integrating biomechanical principles into hernia management by framing abdominal hernias as mechanical failures, thereby guiding the selection of surgical techniques and implants—such as lightweight retrorectus meshes and small-bite suturing—to better mimic native tissue properties and improve patient outcomes.
This paper constructs locally inertial and radially locked reference frames for geodesic observers in stationary axisymmetric dust spacetimes to analyze dust configurations via photon frequency shifts and establish a general relativistic framework for reconstructing spectroscopic and astrometric relative velocities in galactic kinematics.
This paper proposes a new ensemble filtering approach that inherently localizes the analysis probability density function via variational Bayesian optimization and marginal partitioning, thereby eliminating the need for ad-hoc localization techniques while achieving accuracy and computational efficiency comparable to tuned standard EnKF and ETKF methods.
This study presents high-precision excitation functions for proton-induced reactions on natural molybdenum targets in the 13–22 MeV energy range, resolving previous data discrepancies for specific technetium isotopes and providing a comprehensive covariance analysis for medical isotope production.
This paper proposes a singularity-free model of gravitational collapse that replaces the standard Schwarzschild interior with a geometry supported by a cosmological-constant-like stress-energy tensor and a Higgs-like scalar field, resulting in a new theoretical mass-radius limit of while violating the local Principle of Equivalence through a metric sign change across the horizon.
This paper proposes an SIS competition model for conflicting rumors that reveals a novel coexistence mechanism where belief in one rumor paradoxically aids the other, leading to counterintuitive outcomes such as lower infection rates enhancing spread and the spontaneous emergence of majority advantage despite the absence of explicit conformity rules.
Using a cylindrical theory model, this study demonstrates that while neoclassical toroidal viscosity (NTV) has negligible impact on plasma flow at the resonant surface, it significantly alters core rotation profiles and, in conjunction with electromagnetic torque under non-uniform pressure conditions, helps maintain the locked mode state.
This paper establishes a systematic framework for identifying separability structures in stationary, axisymmetric spacetimes with matter fields, using a generalized metric ansatz to derive new rotating black hole and wormhole solutions.
This paper demonstrates that the existing explanation for pushing-induced arrest fails in 3D and proposes a new minimal model where confinement is governed by constant-probability trapping events, enabling the prediction of time-dependent mean-squared displacement across various lattices and dimensions.
This study presents the first experimental characterization of plasma parameters and carbon decontamination rates in microwave resonators used for particle accelerators, utilizing Langmuir probes and quartz crystal microbalances to optimize the in-situ plasma cleaning of superconducting radio frequency cavities.
This paper challenges the common assumption that Mermin's dielectric function inherently satisfies the f-sum rule by identifying a moment-closure problem, demonstrating that the rule is only satisfied under specific constraints on collision frequencies, and highlighting how slow numerical convergence and imaginary components can lead to apparent or actual violations.
This paper presents a unified analytical framework that relaxes restrictive assumptions in contact-tracing models by incorporating partial treatment compliance and triplewise tracing mechanisms, thereby deriving rigorous epidemic threshold conditions that reveal how bypassed treatment can render outbreaks uncontrollable.
This study utilizes molecular dynamics simulations to investigate the flow dynamics of two-dimensional deformable ring particles in a confined channel, revealing how particle stiffness influences flow properties and leads to the effective segregation of soft and hard particles in mixtures.
This paper establishes a theoretical framework for stellarator coil winding surfaces that proves a dichotomy principle for current distributions on toroidal shapes and demonstrates that oppositely oriented currents on piecewise cylindrical surfaces generate center and saddle point regions with predominantly periodic field lines, offering key insights for optimizing coil design.
This paper presents a preliminary lattice QCD study using domain-wall fermions to calculate the time-like pion form factor in the inelastic region by applying LSZ reduction to a three-point correlator, extending beyond the traditional elastic regime.
This paper investigates kink-anti-kink scattering in piece-wise quadratic-linear "Frankensteinian" potentials, proposing an interpretation of these models as free massive theories with threshold-driven pair production and demonstrating a phase-transition-like shift from wave disintegration to oscillon formation based on field thresholds and initial velocities.
This paper introduces an optimal-tuning scheme for multiconfigurational short-range density functional theory (MC-srDFT) that determines the system-specific range-separation parameter via the ionization potential derived from Extended Koopmans' Theorem, significantly improving the accuracy of static and dynamic dipole polarizabilities compared to standard universal parameters.
This paper presents a comprehensive overview of the Muon Endcap 0 (ME0) upgrade for the CMS experiment, detailing its design, production status, and quality assurance procedures aimed at extending forward muon coverage and enhancing reconstruction performance for the High-Luminosity LHC.
This study presents an analytical-numerical coupled model that combines a closed-form analytical solution for droplet impact pressure with finite-element simulations of solid response, achieving over 97% computational cost reduction compared to traditional SPH methods while accurately predicting erosion-relevant quantities like peak pressure and impact force.