858 papers
This paper systematically investigates how moisture content, pore structure, and coal rank influence the microwave dielectric constant of coal, revealing that these dielectric response laws can effectively characterize coal's structural properties, water migration, and deformation-fracture processes to support microseismic monitoring and rock burst prediction in coal mines.
This paper demonstrates that top-down fabricated ~400 nm AlGaN UV-C nanopixel arrays significantly enhance external quantum efficiency and power density by reducing threading dislocations and improving transverse-magnetic light extraction compared to planar counterparts, establishing a scalable pathway for high-performance deep UV emitters.
This paper proposes LAMP, a dual-branch framework that integrates a spectral sequence encoder with a frozen large language model via an Align-then-Fuse module to achieve superior multi-task spectral prediction for Au-GaN metasurfaces by leveraging complementary contextual representations.
This paper introduces a task-dependent Fisher-information framework to demonstrate that squeezed light-field microscopy (SLIM) significantly outperforms full Fourier light-field microscopy in 3D volumetric imaging efficiency by optimizing the allocation of detector bandwidth resources for both sparse and dense scenes.
This study investigates the effects of buoyancy and velocity slip on the squeezing flow of a ternary hybrid nanofluid containing Nickel, magnetite, and diamond nanoparticles with gyrotactic microorganisms between two convectively heated circular disks, utilizing the Homotopy Analysis Method and numerical simulations to demonstrate that buoyancy accelerates surface velocity while velocity slip enhances local skin friction, mass transfer, and microorganism density.
This study investigates thermoelastic damping in carbon nanotube and graphene platelet-reinforced functionally graded microplates by developing a comprehensive size-dependent model incorporating nonlocal strain gradient theory, surface effects, and three-phase-lag heat conduction, revealing that hybrid reinforcement patterns, surface elasticity, and thermal parameters significantly influence damping behavior to guide the design of advanced microdevices.
This paper establishes a self-consistent analytical model demonstrating that trapped oil droplets in capillary tubes can be unpinned and mobilized via non-resonant second-order acoustic streaming, revealing an optimal operational frequency that inversely scales with transmission distance to minimize power requirements while maximizing transport velocity in geological formations.
This paper proposes and experimentally demonstrates a new class of robust corner states in photonic crystals that achieve strong localization and disorder resilience through local geometric tuning of trivial structures, operating independently of global symmetries or nontrivial topology.
This study investigates the thermodynamic and magnetic properties of electrons in anisotropic diluted semimagnetic semiconductor quantum dots under a magnetic field, revealing a low-temperature Schottky anomaly in specific heat and a transition of Mn ions from antiferromagnetic to paramagnetic behavior as the concentration increases.
This paper presents measurements of the complex dielectric constant for plasma-sprayed Al2O3-TiO2 and Cr2O3 coatings across the 75 to 220 GHz frequency range using free-space reflectivity analysis, providing essential data for high-power millimeter-wave applications such as JT-60SA tokamak diagnostics.