The chemistry of isoprene degradation in the Master Chemical Mechanism (MCM) has been
systematically refined and updated to reflect recent advances in understanding, with these …

We deployed a high-resolution proton-transfer-reaction time-of-flight mass spectrometer
(PTR-TOF-MS) to measure biomass-burning emissions from peat, crop residue, cooking …

A comprehensive suite of instruments was used to quantify the emissions of over 200
organic gases, including methane and volatile organic compounds (VOCs), and 9 inorganic …

Organic gases undergoing conversion to form secondary organic aerosol (SOA) during
atmospheric aging are largely unidentified, particularly in regions influenced by …

The current understanding of secondary organic aerosol (SOA) formation within biomass
burning (BB) plumes is limited by the incomplete identification and quantification of the non …

Chamber oxidation experiments conducted at the Fire Sciences Laboratory in 2016 are
evaluated to identify important chemical processes contributing to the hydroxy radical (OH) …

Radicals and their precursors play a central role in the chemical transformations occurring in
indoor air and on indoor surfaces. Such species include OH, HO2, peroxy radicals, nitrous …

Nighttime atmospheric processing enhances the formation of brown carbon aerosol (BrC) in
biomass burning plumes. Heterocyclic compounds, a group of volatile organic compounds …

Chemical mechanisms describe the atmospheric transformations of organic and inorganic
species and connect air emissions to secondary species such as ozone, fine particles, and …

Organic gases emitted during the flaming phase of residential wood combustion are
characterized individually and by functionality using proton transfer reaction time-of-flight …