Area of research
Atmospheric Science · Atomic and Molecular Physics, and Optics
Research interest
Research interests include Atmospheric chemistry and aerosols, Atmospheric Ozone and Climate, Advanced Chemical Physics Studies, and MicroRNA in disease regulation.
Atmospheric mechanisms and kinetics of hydroperoxymethyl formate reactions with OH and Criegee intermediates
Reactions of Carbonyl Oxide with Aldehydes: Accurate Electronic Structure Methods, Kinetic Insights, and Atmospheric Implications
Supplementary material to "Reactions of Carbonyl Oxide with Aldehydes: Accurate Electronic Structure Methods, Kinetic Insights, and Atmospheric Implications"
Ammonolysis and hydrolysis govern multiphase formaldehyde–amine chemistry
Elucidating β-ocimene ozonolysis through combined experiments and theoretical calculations: The Criegee intermediate and peroxy radical pathways
Rapid removal of trifluoroacetic acid by syn-CH3CHOO: Chemical kinetics studies and atmospheric implications
Reactions of carbonyl oxide with aldehydes: accurate electronic structure methods, kinetic insights, and atmospheric implications
Criegee Intermediates Compete Well with OH as a Cleaning Agent for Atmospheric Amides
Criegee Intermediates Significantly Reduce Atmospheric (CF<sub>3</sub>)<sub>2</sub>CFCN
Visible-Light-Induced Photocatalytic Degradation of Polyvinyl Chloride under Normal Temperature and Pressure via Uranyl Photocatalyst
Reaction between peracetic acid and carbonyl oxide: Quantitative kinetics and insight into implications in the atmosphere
Reaction between linear perfluoroaldehydes and hydroperoxy radical in the atmosphere: reaction mechanisms, reaction kinetics modelling, and atmospheric implications
Reaction between Criegee intermediates and hydroxyacetonitrile: reaction mechanisms, kinetics, and atmospheric implications
Supplementary material to "Reaction between perfluoroaldehydes and hydroperoxy radical in the atmosphere: Reaction mechanisms, reaction kinetics modelling, and atmospheric implications"
Kinetics of Hydroperoxymethyl Acetate with Carbonyl Oxide and OH Radicals: Implications for Atmospheric Chemistry.
Atmospheric Chemistry of Hydroxypinonaldehydes: Their Reactions with Hydroperoxy Radicals in the Atmosphere.
Quantitative Kinetics of the Hydrogen Shift Reaction of Methylthiomethyl Peroxy Radical (CH<sub>3</sub>SCH<sub>2</sub>OO) in the Atmosphere.
Reaction between Criegee intermediates and hydroxyacetonitrile: Reaction mechanisms, kinetics, and atmospheric implications
Reaction between perfluoroaldehydes and hydroperoxy radical in the atmosphere: Reaction mechanisms, reaction kinetics modelling, and atmospheric implications
Supplementary material to "Reaction between Criegee intermediates and hydroxyacetonitrile: Reaction mechanisms, kinetics, and atmospheric implications"
Reactive aldehyde chemistry explains the missing source of hydroxyl radicals
Reactions with Criegee intermediates are the dominant gas-phase sink for formyl fluoride in the atmosphere
Quantitative kinetics reveal that reactions of HO<sub>2</sub> are a significant sink for aldehydes in the atmosphere and may initiate the formation of highly oxygenated molecules <i>via</i> autoxidation
Reactive aldehyde chemistry explains the missing source of hydroxyl radicals.
Reactions of sulfur trioxide with hypochlorous acid catalyzed by water in gas phase and at the air-water nanodroplet interface in the atmosphere: An important sink for hypochlorous acid
Rapid Atmospheric Reactions between Criegee Intermediates and Hypochlorous Acid.
Atmospheric reactions of hydroperoxymethyl thioformate with sulfur trioxide catalyzed by water monomer and hydrolysis of sulfur trioxide catalyzed by hydroperoxymethyl thioformate
Dual-level strategy for quantitative kinetics for the reaction between ethylene and hydroxyl radical.
Kinetics of Sulfur Trioxide Reaction with Water Vapor to Form Atmospheric Sulfuric Acid
Photocatalytic oxidative cleavage of aryl alkene CC bonds using a uranyl cation