858 papers
This paper demonstrates a high-performance, heterogeneously integrated GaAsSb/Si SACM photodiode that overcomes interfacial transport challenges to achieve strong carrier injection and a maximum gain of 86, establishing a promising platform for scalable, high-sensitivity short-wave infrared detection on silicon.
This paper demonstrates a scalable spintronic platform using dual ferromagnetic spin injections into monolayer graphene to achieve continuous vector control of spin accumulation, thereby enabling the direct implementation of Heisenberg-inspired probabilistic computing architectures for low-power, non-Boolean applications.
This paper presents improved correlations for the static dielectric constant of para- and ortho-hydrogen over a temperature range of 1 to 1000 K by recalculating low-density contributions with modern ab initio methods and developing new functional representations based on an extensive review of experimental data, thereby significantly enhancing accuracy for cryogenic and liquid states compared to previous models.
This study demonstrates that the Modified Hyperbolic Sine plus Monkman–Grant (MHS+MG) model outperforms both constrained and unconstrained quadratic Larson–Miller Parameter (LMP) models in predicting the oxidation-corrected creep rupture life of Grade 23 steel by offering superior accuracy, stability, and physically consistent stress–life trends across a wide temperature range.
This paper proposes Distinguishability Geometry as a first-principles framework that derives phase transitions as discontinuous changes in the structural invariants of state distinguishability, thereby naturally emerging the Landau order parameter and predicting experimentally verified sensor-dependent transition temperatures that challenge classical thermodynamic assumptions.
This paper reports the successful fabrication and comprehensive characterization of self-supporting, enriched 94,98,100Mo targets with variable areal densities using a novel single evaporation technique, specifically designed for low-energy heavy-ion fusion experiments at the Inter University Accelerator Center.
This paper proposes a parameter-free, three-dimensional geometric model based on intersecting spheres and phase closure that successfully predicts the fine-structure constant with high precision, offering a direct experimental test for whether electromagnetic coupling is fundamentally constrained by geometric phase coherence.
This study demonstrates that longitudinal compositional interfaces in Co/CoNi/Ni nanowires serve as an independent design parameter to engineer spin-wave spectra by reorganizing magnetic energy landscapes and enabling continuous frequency tuning through mode hybridization and localization, without altering device geometry.
This paper presents a physics-informed generative inverse design framework that couples a voxel-based variational autoencoder with a formation-energy-constrained Wasserstein generative adversarial network to efficiently discover and validate stable vanadium oxide crystal candidates, significantly increasing the yield of thermodynamically stable structures compared to random sampling while reducing the computational burden of first-principles screening.
This study demonstrates that doping MgB₂ with 2 wt% Cu₂Te enhances superconducting properties by lowering the phase formation temperature through a eutectic liquid-assisted mechanism and improving critical current density via grain refinement and the introduction of effective flux pinning centers.