Molecules · 2024 · 10 citations · 62 references
Natural SciencesChemical EngineeringChemistryAir PollutionCatalysisEnvironmental ChemistryAir Pollution ChemistryCatalyst DesignCatalytic MaterialsCatalytic Reaction EngineeringSupported CatalystsVolatile Organic CompoundsCatalyst MechanismsCatalyst Surface StructureCatalytic NanomaterialsCatalytic Reaction MechanismsDegradationOxidationSurface Chemistry Of OxidationVoc Oxidation Chemistry
Benzene is the typical volatile organic compound (VOC) of indoor and outdoor air pollution, which harms human health and the environment. Due to the stability of their aromatic structure, the catalytic oxidation of benzene rings in an environment without an external energy input is difficult. In this study, the efficient degradation of benzene at room temperature was achieved by constructing Ag and Ni bimetallic active site catalysts (AgNi/BCN) supported on boron–carbon–nitrogen aerogel. The atomic-scale Ag and Ni are uniformly dispersed on the catalyst surface and form Ag/Ni-C/N bonds with C and N, which were conducive to the catalytic oxidation of benzene at room temperature. Further catalytic reaction mechanisms indicate that benzene reacted with ·OH to produce R·, which reacted with O2 to regenerate ·OH. Under the strong oxidation of ·OH, benzene was oxidized to form alcohols, carboxylic acids, and eventually CO2 and H2O. This study not only significantly reduces the energy consumption of VOC catalytic oxidation, but also improves the safety of VOC treatment, providing new ideas for the low energy consumption and green development of VOC treatment.
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Single‐Atom Pt as Co‐Catalyst for Enhanced Photocatalytic H<sub>2</sub> Evolution
Xiaogang Li, Wentuan Bi, Lei Zhang et al. · Advanced Materials · 2016 · 1.4K citations
Natural Sciences, Chemical Engineering, Materials Science +17
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