1028 papers
This study evaluates the effectiveness of various extraction agents in separating europium, a lanthanide representative, from liquid radioactive waste into ionic liquids as a promising alternative to conventional organic solvents.
This study presents a green, scalable strategy for synthesizing hierarchical porous carbons from waste badminton feathers using NaHCO₃ and KHCO₃ as co-activators, resulting in a heteroatom-doped material with a high specific surface area that delivers superior performance as an electrode in high-energy-density supercapacitors.
This study presents a high-spin Fe dual-atom nanozyme with an atomically dispersed Fe₂-N₆ configuration that, when encapsulated in a pH-responsive hydrogel, effectively treats rheumatoid arthritis by tuning the Fe 3d spin state to enhance ROS-scavenging catalytic activity, thereby reprogramming the immuno-redox microenvironment and inhibiting chondrocyte pyroptosis.
This study demonstrates that thermodynamic feasibility, specifically the ability of polymeric hole conductors to regenerate photo-oxidized dyes, acts as a critical gating mechanism that reconciles discrepancies between molecular-level predictions and device-level performance rankings in solid-state dye-sensitized solar cells, necessitating a design approach where regeneration constraints filter the search space rather than merely contributing to multi-criteria scoring.
This study demonstrates that hydrothermally synthesized CuO/ZrO₂ nanocomposites exhibit modified microstructural properties, including partial tetragonal phase stabilization and reduced lattice strain, alongside significantly altered optical band gaps and defect-assisted luminescence, suggesting their enhanced potential for photocatalytic, sensing, and optoelectronic applications.
The paper introduces NN-Dx, a chemically adaptive dispersion correction that integrates equivariant machine learning into a D4-inspired analytical framework to dynamically adjust atomic properties and interaction terms, thereby significantly reducing errors across various density functionals while preserving physical asymptotic behavior and enabling stable molecular dynamics.
This study demonstrates that precisely controlling the deformation of the physical entanglement network in polyethylene, rather than simply maximizing draw ratios, enables the production of lighter-weight materials with higher tenacity by promoting uniform rubber-like deformation over unstable necking.
This study demonstrates that plasma jet melting of natural muscovite mica powder induces dehydroxylation and amorphization while creating ultrafine pores and significantly improving flowability through the formation of solidified microspheres.
This study demonstrates that electrodeposited copper films with a nodular microstructure, particularly those prepared at a 0.075 M electrolyte concentration, achieve optimal surface roughness and thickness to significantly enhance airborne particulate matter removal efficiency compared to stainless steel rods.
This study successfully developed and validated a robust, green, Quality by Design (QBD)-guided RP-HPLC method for the precise and stability-indicating quantification of desidustat in bulk and tablet formulations, meeting all ICH Q2(R2) regulatory requirements.