1319 papers
This study demonstrates that orbital-selective optical excitation can dynamically control the interlayer spacing of trilayer 1T'-WSe2 and 1T'-WS2 through distinct carrier relaxation mechanisms, thereby offering a pathway to tune the electronic properties of layered van der Waals materials.
This study reports the synthesis of needle-like CuMnBO single crystals and their EPR characterization above 300 K, revealing three distinct resonance lines including a high-temperature magnetic polaron signal and demonstrating that the inverse magnetic susceptibility's temperature dependence is influenced by the measurement magnetic field.
This study integrates numerical simulations, global sensitivity analysis, and interpretable machine learning to characterize viscoelastic flow and heat transfer in porous media, revealing distinct thermal and momentum control mechanisms and identifying optimal trade-off states for engineering design.
This paper formulates and solves the problem of reconstructing quantum states from incomplete classical preparation records by deriving exact minimax fidelity bounds, proposing optimal circuit implementations, and analyzing performance limitations across various scenarios without altering fundamental cloning limits.
This paper introduces a tomography-free diagnostic framework based on the propagator-norm form factor , which distinguishes chaotic from integrable dissipative quantum dynamics by analyzing profile shapes and excess magnitudes beyond simple spectral signatures, while linking these theoretical findings to practical measurement protocols via Choi-state purity and block-encoded propagators.
This study introduces a homogeneous bidirectional locking interlayer strategy that reinforces the buried interface of solution-processed perovskite films, significantly enhancing mechanical robustness and charge collection efficiency to enable high-resolution, low-dose X-ray flat-panel imagers suitable for 3D computed tomography.
This study uses density functional theory to demonstrate that while Mg and Sr dopants minimally affect the bulk equilibrium of the Ca(OH)₂/CaO thermochemical cycle, their strategic placement on the CaO(001) surface significantly enhances water binding energy and desorption temperatures, with surface Mg and Sr acting through distinct mechanisms to tune water uptake independently of the storage temperature.
This study details the calibration of Harshaw 6600 Plus TLD readers and TLD-100 cards at the Ghana Atomic Energy Commission's Secondary Standard Dosimetry Laboratory to establish a traceable, quantitative relationship between dosimeter readouts and ionizing radiation doses under controlled environmental and beam parameters, thereby ensuring accurate dosimetry for regulatory compliance and safety across medical, industrial, and research sectors.
This report details Ghana's successful participation in the 2016 IAEA inter-comparison exercise for individual external radiation monitoring, where the Personnel Dosimetry Laboratory demonstrated satisfactory performance in measuring operational quantities Hp(10) and Hp(0.07) across various testing parameters, thereby validating the reliability of its personal monitoring services.
This study utilizes discrete mathematical analysis and Direct Numerical Simulations to establish that the Navier-Stokes equations remain stable and yield smooth physical solutions for grid Reynolds numbers below a critical threshold of 1.5, thereby demonstrating that singularities are incompatible with the equations' structure and energy conservation laws at the microscale.