858 papers
This study demonstrates that Mn²⁺-doped Na–Al phosphate glasses exhibit linear thermoluminescence dose response and act as effective TL emission centers, with glow curve deconvolution revealing six distinct trap types with activation energies ranging from 0.61 to 1.1 eV responsible for the radiation-induced emission.
This study demonstrates that zinc ferrite nanoparticles synthesized via a solvothermal approach, when integrated into an Ag/𝑍𝑛𝐹𝑒2𝑂4/Ag metal–semiconductor–metal structure, function as efficient broadband photodetectors with enhanced performance in the UVA region, achieving a maximum photocurrent of 6.23 × 10⁻⁶ A and a detectivity of 2.46 × 10¹⁰ Jones.
This paper presents a novel mixed variational finite element method based on consistent couple stress theory to investigate the size-dependent elastostatic behavior of non-centrosymmetric solids, offering new insights into micro- and nano-scale responses and identifying potential experiments for measuring couple stress parameters.
This paper utilizes a non-perturbative quantum kinetic framework to demonstrate that the equilibrium Bose-Einstein condensation threshold acts as a dynamical critical point, organizing far-from-equilibrium dynamics into distinct universality classes characterized by different non-equilibrium attractors and scaling laws depending on the quench depth.
This paper presents a scalable distributed-memory implementation of periodic CCSD theory that enables high-density Brillouin zone sampling to reliably extrapolate cohesive energies and band gaps to the thermodynamic limit, providing definitive benchmark values for eight semiconductors and insulators with errors of approximately 0.1 eV for cohesive energies and 0.4 eV for band gaps compared to experiment.
This study demonstrates through ensemble-based numerical simulations that a stochastic Hamiltonian modulation model, originally proposed as an oracle-free search algorithm, fails to produce statistically significant marked-state amplification at weak perturbation strengths and instead functions as a configuration-dependent exploratory framework for noise-assisted quantum dynamics.
This paper presents an inverse freeform design method for two-dimensional reflectors that addresses finite-source problems by formulating the task as an optimal transport problem, deriving a linking integral equation, and solving for convex reflector profiles through surface parametrization and loss minimization.
This study demonstrates that directionally solidified (Ga,In)Sb–CrSb eutectic composites achieve enhanced thermoelectric performance through anisotropic microstructures that simultaneously boost electrical conductivity along aligned CrSb rods and suppress thermal conductivity perpendicular to them via interface scattering.
This study reports the discovery of intrinsic, unconventional type-II Ising superconductivity in an aged α-Sn thin film, where aging-induced elemental diffusion and electronic reconstruction trigger a quantum phase transition that creates a new Fermi-surface band with linear dispersion, establishing α-Sn as a promising platform for topological superconductivity.
This paper provides the first general proof of the symplecticity of the Spin-MInt algorithm for systems with an arbitrary number of electronic states by leveraging the Lie-Poisson structure of coadjoint orbits and explicitly verifying the symplectic condition via the monodromy matrix.