1338 papers
This study experimentally demonstrates that intrinsic carrier-lattice interactions in heavily doped gallium arsenide significantly enhance near-field radiative heat transfer by more than doubling the flux compared to undoped samples through a coupled plasmonic-phononic response, offering a new pathway for tunable thermal management in nanoelectronics.
This study establishes an experimentally constrained multiscale framework revealing that hydrogen-helium coupling in iron-based fusion materials drives cavity-mediated deformation through a complementary mechanism where helium-induced internal pressurization sustains stress concentration while interfacial hydrogen facilitates defect activation by lowering interstitial formation energies.
This paper numerically implements and validates the Elster et al. reformulation of the 3D Faddeev equation, demonstrating that eliminating moving logarithmic singularities yields results with superior internal consistency compared to previous methods, particularly above the three-body breakup threshold.
This study employs a machine-learned deep potential framework to demonstrate how vacancy-dependent copper migration governs post-implantation redistribution in silicon, offering a significantly more accurate predictive model for annealed depth profiles than traditional methods.
This paper presents a voltage-divider-based probe method for measuring the sheet resistance of copper foils and thin films, demonstrating its effectiveness in providing reproducible results for micrometer-thick samples and enabling measurements of nanometer-thick films where conventional four-point probe techniques fail.
This study demonstrates that solvent-free co-evaporation enables the creation of a vertically compositional 2D/3D interface in perovskite/silicon tandem solar cells, achieving a record 30.93% efficiency and exceptional long-term stability by eliminating bulky organic cations while ensuring coherent crystal connectivity and suppressing defect formation.
This paper presents a probe-aware small-data inverse design workflow that successfully identifies and experimentally validates an optimized Au/ITO hybrid nanopillar geometry for enhanced free-space second-harmonic generation, attributing the performance boost to localized plasmonic and interface fields rather than epsilon-near-zero effects.
This paper demonstrates the first magnet-free, reconfigurable alterspin photonic system in the visible-to-near-infrared range by utilizing an all-dielectric photonic crystal with a liquid droplet to dynamically control the alterspin texture without magnetic bias.
This paper proposes a phase-field regularised 2D discrete model that combines bond interactions with a nodal phase field to reduce lattice orientation bias in dynamic crack propagation, demonstrating its effectiveness through numerical simulations of the Kalthoff–Winkler test, a tensioned plate, and cylinder fragmentation.
The paper proposes a room-temperature, deep-subwavelength plasmon polariton atomic cavity nano-detector that enables miniaturized, multiparameter, and ultrafast terahertz detection and imaging, particularly in the high-frequency regime above 0.3 THz.