1680 papers
This study demonstrates that lanthanum–boron bioactive glasses with tunable Ca/P ratios exhibit time-dependent hydroxyapatite formation, enhanced mechanical hardness, and distinct optical properties, establishing a comprehensive framework for their application in bone tissue engineering and load-bearing implants.
This study demonstrates that an interpretable XGBoost model trained on 927 multi-source records can accurately predict heavy metal adsorption onto biochar (R² = 0.958) while using SHAP and PDPs to identify key governing factors and establish optimal process conditions for tailoring biochar performance.
This study demonstrates that substituting 25–30% of silica sand with induction-furnace slag in CO₂-sodium silicate molding offers a viable, cost-effective solution that maintains acceptable mold properties and casting quality while valorizing industrial waste.
This study demonstrates that while thermal treatment of flexographic wastewater sludge creates an amorphous phase that modifies Portland cement hydration kinetics, its interaction is driven primarily by physical and ionic effects rather than effective pozzolanic activity, highlighting the limitations of conventional pozzolanicity criteria for such hybrid industrial residues.
This study presents a rapid, cost-effective, and aqueous-based indirect redox colorimetric method for determining propranolol hydrochloride in pharmaceutical formulations, which was fully validated according to ICH guidelines and shown to be reliable and comparable to the standard USP procedure.
This study reports the development of a magnetically recoverable Cu-Fe3O4 nanocomposite supported on rice straw-derived nanocellulose, which serves as a highly efficient and reusable catalyst for the rapid, green reduction of toxic nitroarenes in water under optimized conditions.
This study demonstrates that bio-synthesized magnesium oxide and graphene oxide reinforced methyl cellulose nanocomposite films exhibit enhanced thermal stability, superior barrier properties via tortuous diffusion pathways, and sustained drug release kinetics, making them promising biomaterials for wound dressing and transdermal drug delivery applications.
This study demonstrates that increasing the alkyl chain length in phosphotungstate-based ionic-liquid salts significantly reduces their aqueous conductivity and dissociation capability due to hydrophobic hindrance and enhanced ion pairing, thereby establishing critical structure-property relationships for designing tailored catalysts.
This paper presents a deep learning framework that enhances property prediction for OLED materials under data scarcity by integrating human eye-tracking data to construct an interpretable, human-mimicking attention mechanism capable of achieving near-DFT accuracy in predicting molecular orbital distributions.
This study demonstrates that chemically activating coconut rachis-derived hard carbon to create hierarchically porous activated carbon significantly enhances specific surface area and electrochemical performance, yielding a supercapacitor electrode with a maximum specific capacitance of 201 F g⁻¹ and excellent cycling stability in 6 M KOH.