The chemical processing of organic aerosol particles is important for atmospheric chemistry,
climate, and public health. The heterogeneous oxidation of oleic acid particles by ozone is …

The heterogeneous chemistry of atmospheric aerosols involves multiphase chemical
kinetics that can be described by kinetic multi-layer models (KMs) that explicitly resolve …

Particle phase state is a property of atmospheric aerosols that has important implications for
the formation, evolution, and gas/particle partitioning of secondary organic aerosol (SOA). In …

Secondary organic aerosol (SOA), formed from the oxidation of volatile organic compounds
(VOCs), is a large contributor to atmospheric fine particulate matter (PM2. 5) and is …

Organic aerosol constitutes a major fraction of the global aerosol burden and is
predominantly formed as secondary organic aerosol (SOA). Environmental chambers have …

Shipping emissions are a major source of particulate matter in the atmosphere. The volatility
of gaseous and particulate phase ship emissions are poorly known despite their potentially …

The volatilities of ambient organic aerosol (OA) components are important to forecasting OA
formation with models. However, providing the OA volatility distribution inputs for models is …

The volatility distribution of the organic compounds present in secondary organic aerosol
(SOA) at different conditions is a key quantity that has to be captured in order to describe …

The interplay of volatility distribution and particle viscosity governs the gas-to-particle
partitioning dynamics of atmospheric secondary organic aerosol (SOA) constituents …

Kinetic process models are widely applied in science and engineering, including
atmospheric, physiological and technical chemistry, reactor design, or process optimization …