Advanced supercapacitor electrode design featuring hierarchical MoS2/Co9S8 nanosheets with enhanced energy storage capabilities through innovative anion exchange engineering.

Development of multiphase PtPdSb nanoparticles as efficient electrocatalysts for direct electrochemical energy conversion using hydrogen-rich dimethyl ether fuel.

Metal-organic framework-derived nickel cobaltite nanostructures demonstrate superior electrochemical performance for advanced supercapacitor applications.

Novel electrocatalyst design using needle-like strontium pyrophosphate embedded on sulfur-doped graphitic carbon nitride for ultra-sensitive nano-molar detection of agrochemical pesticides.

MOF-derived metal sulfides with controlled cation regulation exhibit superior oxygen evolution reaction activity, providing insights into structure-activity relationships for water splitting catalysts.

Comprehensive study on utilizing dimethyl ether and methyl formate as alternative fuels for direct electrochemical energy conversion systems, demonstrating their potential for sustainable energy applications.

Novel hetero-structured nanosheets combining Ni2P nanoparticles with porous layered NiO demonstrate exceptional durability and efficiency for urea electro-oxidation applications.

Investigation of phosphorus role in hollow-structured cobalt-based phosphides reveals enhanced bifunctional catalytic activity for both hydrogen and oxygen evolution reactions in water splitting applications.

Sulfur modification of nickel selenide creates an efficient electrocatalyst for oxygen evolution reaction with enhanced activity and stability for water splitting applications.

Hierarchical Ni(OH)2-NiS hybrid nanosheet structures on carbon cloth demonstrate robust catalytic performance for urea electro-oxidation through rational in-plane edge design.

MnOOH nanoparticles integrated with nitrogen-doped porous carbon nanosheets provide efficient non-noble metal catalysts for sodium borohydride electro-oxidation in fuel cell applications.

Nitrogen-doped mesoporous carbon nanosheets with entrapped nickel nanoparticles demonstrate efficient catalytic performance for glycerol electro-oxidation in energy conversion applications.

Bimetallic nickel-manganese oxide catalysts demonstrate efficient electrochemical oxidation of glycine, providing insights for amino acid conversion and energy applications.

Gold nanohole electrodes with plasmon enhancement demonstrate improved electrocatalytic oxygen reduction in alkaline media, advancing efficient fuel cell technology.

MnO2 cacti-like nanostructures create enhanced electrochemical immunobiosensing platforms for sensitive cortisol detection with improved analytical performance.

Nickel-phosphate pompon flowers nanostructured networks provide sensitive and selective platforms for microRNA detection with enhanced biosensing capabilities.

Template-directed synthesis of bifunctional NiSx/nitrogen-doped mesoporous carbon electrocatalysts demonstrates excellent performance for rechargeable Zn-air battery applications.

Simultaneous electrochemical mapping reveals oxygen reduction activity and hydrogen peroxide generation patterns on electrocatalytic surfaces for optimized fuel cell design.

Cobalt oxide porous nanocubes enable sensitive electrochemical immunobiosensing for Hepatitis B virus DNA detection in clinical samples including blood serum and urine.

Comprehensive review of plasmon-induced electrocatalysis using multi-component nanostructures, exploring mechanisms and applications in energy conversion and chemical synthesis.

Advanced SECM-AFM techniques enable nanoscale mapping of catalytic hotspots on Fe, N-modified HOPG surfaces, revealing structure-activity relationships at the nanometer scale.

Poly(2-aminothiophenol)-silver nanocomposite demonstrates enhanced conductivity and antibacterial activity against human pathogens, offering potential biomedical applications.

Investigation of oxygen reduction sites in graphitic carbon Co-N-C electrocatalysts reveals structure-activity relationships for single precursor pyrolysis methods.

AFM and Raman investigation of boron-doped diamond nanowire electrodes reveals their electrochemical activity toward oxygen reduction with promising fuel cell applications.

Green synthesis approach using L-arginine produces reduced graphene oxide-silver nanoparticles for sensitive and environmentally friendly H2O2 detection applications.

Development of highly sensitive electrochemical interfaces enables precise lysozyme sensing with enhanced detection capabilities for protein analysis applications.

Cobalt-nitrogen-carbon composite catalysts prepared by single precursor pyrolysis under autogenic pressure exhibit enhanced electrochemical oxygen reduction activity for fuel cells.

Diamond nanowires modified with poly[3-(pyrrolyl) carboxylic acid] enable efficient immobilization of histidine-tagged peptides for biosensing applications.

Electrophoretic deposition of reduced graphene oxide-Ni(OH)2 composites creates efficient non-enzymatic glucose sensors with enhanced sensitivity and stability.

Diamond nanowires decorated with nickel nanoparticles create impedimetric immunosensors with enhanced sensitivity for biological detection applications.

Nanodiamond particles/reduced graphene oxide composites demonstrate excellent performance as supercapacitor electrodes with enhanced energy storage capabilities.

Comparison of long and short diamond nanowire electrodes for non-enzymatic glucose sensing reveals enhanced performance for biosensor applications.

Hemin-functionalized reduced graphene oxide demonstrates enhanced peroxynitrite activity with potential applications in sensing and catalysis.

Mechanochemically prepared polydiphenylamine demonstrates excellent electrochemical performance in hybrid supercapacitors with enhanced energy storage capabilities.

Novel template-free mechanochemical synthesis produces crystalline and electroactive polydiphenylamine nanostructures with enhanced properties.

Novel synthesis approach for creating ultra-long poly(1,5 diamino naphthalene) nanostructures using combined templates enables control over morphology and properties.

Electropolymerisation of nanosize conducting polymer on modified electrode surfaces demonstrates enhanced electrochemical properties for sensing applications.

Modified carbon nanotube electrodes enable enhanced electrochemical sensing of carbendazim fungicide in environmental samples with improved sensitivity and selectivity.