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. Gas-phase autoxidation of organics can generate highly oxygenated organic molecules (HOMs) and thus increase secondary organic aerosol production and enable new-particle formation.Here we present a new implementation of the volatility basis set (VBS) that explicitly resolves peroxy radical ( RO2 ) products formed via autoxidation.The model includes a strong temperature dependence for autoxidation as well as explicit termination of RO2 , including reactions with NO, HO2 , and other RO2 .The RO2 cross-reactions can produce dimers (ROOR).We explore the temperature and NOx dependence of this chemistry, showing that temperature strongly influences the intrinsic volatility distribution and that NO can suppress autoxidation under conditions typically found in the atmosphere.

Peroxy radical chemistry and the volatility basis set