1040 papers
This study presents an asymmetric Fe@CNTS/Ag@CNTA integrated framework that achieves ultrahigh, absorption-dominated electromagnetic interference shielding (111 dB) with minimal reflection by utilizing a gradient magnetic-loss layer and a conductive internal boundary to create direction-dependent, anisotropic wave attenuation.
This study presents a validated, stability-indicating HPTLC method for quantifying PBC in bulk and formulations, developed using an Analytical Quality by Design (AQbD) approach with Design of Experiments (DoE) to ensure robustness, specificity against forced degradation products, and compliance with ICH guidelines.
This paper presents an ice-templated heterogeneous nucleation strategy that utilizes magnetic dual-shell hollow microspheres to spatially segment nitrogen-doped carbon nanosheets into controllable distributed RLC networks, achieving superior electromagnetic wave absorption and thermal regulation in lightweight hierarchical porous composites while overcoming the traditional trade-off between conductivity and impedance matching.
This study introduces rectilinear organic frameworks (ROFs), a new class of macrocycle-free porous materials formed by the orderly packing of linear polymer chains, which offer scalable synthesis, modular pore design, and unique structural dynamics such as water-triggered proton conductivity.
This study demonstrates that while commercial polystyrene food packaging exhibits high structural and thermal integrity, styrene migration into food simulants is significantly enhanced by elevated temperatures and the presence of ethanol, highlighting the critical need for temperature management to minimize consumer exposure.
This study presents a cost-effective and reliable voltammetric method using a polydopamine-modified glassy carbon electrode for the sensitive quantification of aflatoxin B1, achieving a detection limit of 5.56 ng L⁻¹ through optimized square wave voltammetry.
This study demonstrates that a one-step dehydration synthesis of anhydrous Mg(NO3)2-NaNO3-KNO3 ternary molten salt significantly enhances thermal stability, lowers melting temperature, and increases latent heat of fusion, making it a promising candidate for high-temperature thermal energy storage in concentrating solar power applications.
This study demonstrates that electrodeposited Cu-doped ZnSe thin films on FTO substrates exhibit optimized grain size, reduced optical band gap, and enhanced visible light absorbance at specific doping levels, making them promising candidates for sustainable photovoltaic applications.
This study demonstrates that nickel-doped BaSnO₃ perovskite, synthesized via solid-state reaction and spin-coating, exhibits superior ammonia sensing performance—including high response, selectivity, and stability at 300 °C—compared to undoped BaSnO₃, making it a promising candidate for chemi-resistive gas sensor applications.
This study demonstrates that diode laser-assisted persulfate activation is an efficient and sustainable advanced oxidation process capable of achieving nearly complete degradation (99.97%) and substantial mineralization (89%) of pyrogallol in aqueous solutions under optimized conditions.