Publications

The manuscript connects ultrafast thermal processing, atomically dispersed surface decoration, and room-temperature chemical sensing.

The Account connects photothermal mechanisms, transient temperature measurement, metastable phase formation, interface control, and atomic-scale catalyst functionalization.

The study integrates capillary water transport, an electrospun hybrid membrane, and a field-concentrating electrode for filterless particulate removal.

The article covers materials design, fabrication strategies, structure-property relationships, and applications in catalysis, remediation, sensing, and biomedicine.

A direct-contact photothermal platform enables rapid carbon nanostructure formation and surface functionalization for hydrogen-evolution electrocatalysis.

Rapid photothermal conversion and transient high-temperature processing enable phase, shell, and interface engineering in layered transition-metal compounds.

The study links layer precision and interfacial electronic interactions to the performance of organic chemiresistive sensors.

Layered MOF architectures provide independent control over sensitivity, selectivity, response rate, and recovery for multiple gas analytes.

A critical overview of catalytic materials and surface-reaction concepts for reliable detection of breath biomarkers and volatile compounds.

The catalyst-sensitized platform targets selective acetone detection for gas sensing and breath-analysis applications.

Porous block-copolymer templating controls nanoscopic catalyst loading, transport pathways, and reactive surface area.

Ion-pairing dyes provide multiple chromatic responses that can be integrated into a practical fibrous sensing format.

Sub-2-nanometer catalyst domains promote oxygen spillover and selective isoprene sensing on tin oxide nanofibers.

The review connects metal nodes, linkers, morphology, composites, sensing mechanisms, and performance-enhancement strategies.

The data-driven workflow balances hydrogen- and oxygen-evolution performance across a large alloy composition space.

Iterative model-guided experiments accelerate identification of high-performing alloy catalysts while reducing the number of required trials.

Co3O4/CoMoO4 interfaces enhance oxygen and acetone adsorption without using noble-metal catalysts.

Composition and morphology conversion improve response magnitude, response speed, and accessible reactive surface area.

A millisecond photothermal event triggers anchored nanoparticle emergence while limiting phase transition and surface-area loss in the oxide support.

Polymer backbone chemistry and stable molecular doping combine electrical performance with flexibility for wearable sensor formats.