1639 papers
This paper introduces an innovative atmospheric open architecture for rechargeable metal–air batteries that replaces bulk liquid electrolytes with aerosolized microdroplets to overcome oxygen transport limitations and enable efficient, reversible operation under open-air conditions.
This study demonstrates the eco-friendly, statistically optimized biosynthesis of stable, spherical selenium nanoparticles using *Trichoderma longibrachiatum* cell-free filtrate, which exhibit selective cytotoxicity against various cancer cell lines while sparing non-malignant fibroblasts.
This study presents a solvent-free, ambient-temperature mechanochemical method using reactive metals to directly convert diverse plastic waste and biomass into high-quality graphite via a carbide-mediated pathway, achieving significant energy savings and enabling scalable carbon valorization for applications like batteries and pencils.
This study demonstrates that coating carbonyl iron powder with 0.15 wt.% magnesium dihydrogen phosphate and annealing at 500°C creates a uniform insulating layer that significantly suppresses eddy current losses while maintaining high initial permeability and cut-off frequency, thereby optimizing the material for high-frequency power electronics applications.
This study demonstrates that polyindole nanofibers successfully fabricated via PVA-assisted electrospinning exhibit amorphous, uniform morphologies and deliver high specific capacitance (387 F/g) with excellent rate capability, confirming their potential as promising electrode materials for supercapacitor applications.
This study demonstrates the sustainable fabrication of a high-performance ceramic membrane from industrial waste dust and sludge, which, after surface functionalization with polyamide 6 and Fe₂O₃, effectively removes 84% of As(V) from contaminated water while maintaining high flux and antifouling properties.
This study evaluates the bioenergy potential of waste mixed wood sawdust by characterizing its physicochemical properties and analyzing its thermal degradation kinetics and thermodynamics through multi-model isoconversional methods, confirming its suitability as an efficient feedstock for sustainable waste-to-energy systems.
This study demonstrates that a synthesized CeO₂/ZnO/NH₂-MIL-101(Fe) ternary heterojunction significantly enhances visible-light-driven photocatalytic reduction of U(VI) to 95.1% efficiency by establishing multiple coupled interfaces that promote synergistic charge separation and electron transfer, while maintaining robust structural stability and recyclability.
This study demonstrates that Gd³⁺-doped Mg(2−x)GdₓNi(1−x)Al₂O₄ ferrite thin films, synthesized via a low-cost solution combustion method, achieve exceptional electromagnetic interference shielding efficiency of −26.25 dB (99.89%) in the 8–18 GHz range due to enhanced dielectric and magnetic loss mechanisms.
Sodium molybdate dihydrate-doped hippuric acid (HS) single crystals were successfully grown via slow evaporation and characterized as orthorhombic structures with high optical transparency, thermal stability, and promising nonlinear optical properties, including a laser damage threshold of 3.13 GW/cm² and an SHG efficiency of 0.84 times that of KDP, making them suitable candidates for optoelectronic and photonic applications.