1028 papers
This study presents a computationally efficient numerical model of high-temperature methane pyrolysis under plasma-like thermal gradients, utilizing a PCA-reduced kinetic mechanism that achieves 98.7% methane conversion with high accuracy while accelerating simulation time by a factor of 61.
This study demonstrates that nutritional yeast spent powder (NYSP) serves as an effective clean-label emulsion stabilizer whose performance is pH-dependent, with acidic conditions (pH 3.0–6.0) yielding superior long-term stability through the formation of a space-spanning bulk gel network that suppresses coalescence, despite higher interfacial tension, whereas alkaline conditions lead to phase separation due to diminished continuous-phase structuring.
This study demonstrates that annealing significantly enhances the wear resistance of both neat and graphene-reinforced FFF-printed PLA by increasing crystallinity and mechanical strength, with graphene reinforcement further reducing wear through distinct micro-mechanisms despite a potential increase in friction.
Incorporating oxidized sodium alginate into a polyacrylamide hydrogel electrolyte enhances ionic conductivity, water activity regulation, and Zn²⁺ transport, thereby suppressing side reactions and enabling stable, long-cycle performance in aqueous zinc-ion batteries.
This study reveals that the formation of insoluble Anderson-type heteropoly molybdates in citrate-based Ni–Mo and Co–Mo impregnation solutions leads to increased actual metal loading, which, after transformation into sulfide species during sulfidation, enhances the hydrodesulfurization activity of the resulting catalysts.
This study demonstrates that embedding K⁺-doped CsPbBr₃ perovskite quantum dots within a zinc borosilicate glass matrix via a two-step solid-state route significantly enhances their photoluminescence intensity and environmental stability, enabling them to withstand high temperatures and prolonged exposure to moisture and air.
This work presents a thermodynamically guided, scalable aqueous synthesis of ligand-free, facet-fused greigite (Fe3S4) colloidal quantum dot molecules that exhibit room-temperature quantum coherence and intense 1771 nm near-infrared emission, enabling their direct integration into silicon photonics and biomedical applications.
This study introduces a zero-disturbance sensitization strategy using Tb³⁺ co-doping to significantly enhance the near-infrared emission intensity and quantum efficiency of Cr³⁺-activated Ca₃Gd₂Ga₂Ge₂O₁₂ phosphors without altering their spectral properties, enabling the fabrication of high-performance NIR pc-LEDs with superior night-vision imaging capabilities.
This study develops a modeling framework integrating boundary nucleation and growth kinetics with a fractal-based hydrate-bridging model to demonstrate how the evolution of hydrate morphology and internal connectivity, quantified by a fractal parameter , governs the early-age structural build-up and rheological behavior of tricalcium silicate pastes under varying water-to-solid ratios and calcium nitrate dosages.
This paper introduces a surface-regulated mechanochemical refinement strategy using dodecanethiol to overcome the conductivity degradation typically associated with mechanical milling, enabling the production of deep-submicron solid-state lithium conductors that retain exceptional bulk ionic transport properties.