Wildfire smoke, consisting primarily of organic aerosols, has profound impacts on air quality,
climate and human health. Wildfire organic aerosol evolves over long-time photochemical …

Secondary organic aerosols (SOAs) can exist in liquid, semi-solid, or amorphous solid
states. Chemical transport models (CTMs), however, usually assume that SOA particles are …

Secondary organic aerosol (SOA) data gathered in environmental chambers (ECs) have
been used extensively to develop parameters to represent SOA formation and evolution …

How secondary aerosols form is critical as aerosols' impact on Earth's climate is one of the
main sources of uncertainty for understanding global warming. The beginning stages for …

Atmospheric models of secondary organic aerosol (OA)(SOA) typically rely on parameters
derived from environmental chambers. Chambers are subject to experimental artifacts …

Reactive organic carbon species are important fuel for atmospheric chemical reactions,
including the formation of secondary organic aerosol. However, in parallel to atmospheric …

One of the main sources of uncertainty for understanding global warming is understanding
the formation of larger secondary aerosols. The beginning stages start with the formation of …

Understanding how secondary aerosols form in the atmosphere is one of the main
uncertainties for a better understanding of global warming. Secondary aerosols form from …

Atmospheric inorganic gases such as NO x, SO 2, and NH 3 have diverse effects on the
formation of secondary organic aerosol (SOA). A comprehensive investigation is necessary …

Secondary organic aerosol (SOA) forms and evolves in the atmosphere through many
pathways and processes, over diverse spatial and time scales. Hence, there is a need to …