858 papers
This paper introduces a fast, nondestructive readout architecture utilizing real-time, site-resolved adaptive protection and continuous photon counting to reduce qubit measurement latency to 15 μs, enabling a 1.7 kHz clock rate and over 120 consecutive circuit rounds in a 100-qubit neutral-atom array, thereby overcoming the primary bottleneck to fault-tolerant quantum computation.
This paper proposes a QCD-based framework where gravity emerges from a regularized gluon condensate, naturally explaining the hierarchy of Newton's constant, resolving gravitational singularities via a cosmological bounce and regular black hole cores, and predicting specific testable deviations from general relativity.
This paper proposes a phenomenological framework suggesting that energy absorbed by a black hole can transiently perturb near-horizon quantum correlations, leading to slight, state-dependent deviations from the standard thermal Hawking radiation spectrum through non-Markovian effects modeled via an open-system approach.
This study reveals that electrostatic charges generated during the spin-dry process significantly degrade the passivation quality of doped polysilicon tunnel oxide structures in silicon solar cells, but this damage can be effectively reversed by implementing an enhanced spin-dry protocol involving brief deionized-water immersion to neutralize the accumulated charges.
This paper presents a unified electrodynamical framework based on effective susceptibility and Green's functions to describe plasmon resonances in nanostructures, highlighting their role in local field enhancement and their application in advanced biosensors for observing antigen-antibody interactions.
This study introduces photomodulated electron energy-loss spectroscopy (EELS) in an optically coupled scanning transmission electron microscope to directly image angstrom-scale photocarrier localization at oxygen-vacancy surface traps in rhodium-doped strontium titanate nanoparticles, thereby elucidating defect-induced mechanisms that hinder solar water-splitting efficiency.
This study numerically investigates the magnetized flow of a silver-titanium oxide hybrid nanofluid over a curved elastic surface, revealing that magnetic fields reduce velocity while viscous dissipation and thermal slip significantly enhance heat transfer, with the hybrid system outperforming mono-nanofluids.
This paper reports two designs of concentric micro-ring resonators that utilize intermodal coupling to generate frequency combs with opposite dispersion signs, demonstrating the system's ability to support tri-stable continuous wave states and co-propagating bright-dark solitons through a modified Ikeda map analysis.
This paper experimentally demonstrates the operational quantum speed limit (OQSL) on a photonic system, revealing that mixed states can evolve faster than pure states and that increasing impurity can accelerate quantum evolution, thereby overcoming the limitations of traditional lower-bound QSL tools to uncover true physical behaviors.
This study proposes a new general form of the one-dimensional weight function for edge cracks, which is successfully applied to derive a highly accurate Mode I weight function for radial edge cracks in a solid circular disk, enabling efficient and precise stress intensity factor evaluations under arbitrary tensile loading conditions.