Climate-relevant physical properties of molecular constituents for isoprene-derived secondary organic aerosol material
MA Upshur, BF Strick, VF McNeill… - Atmospheric …, 2014 - acp.copernicus.org
Secondary organic aerosol (SOA) particles, formed from gas-phase biogenic volatile organic
compounds (BVOCs), contribute large uncertainties to the radiative forcing that is associated
with aerosols in the climate system. Reactive uptake of surface-active organic oxidation
products of BVOCs at the gas–aerosol interface can potentially decrease the overall aerosol
surface tension and therefore influence their propensity to act as cloud condensation nuclei
(CCN). Here, we synthesize and measure some climate-relevant physical properties of SOA …
compounds (BVOCs), contribute large uncertainties to the radiative forcing that is associated
with aerosols in the climate system. Reactive uptake of surface-active organic oxidation
products of BVOCs at the gas–aerosol interface can potentially decrease the overall aerosol
surface tension and therefore influence their propensity to act as cloud condensation nuclei
(CCN). Here, we synthesize and measure some climate-relevant physical properties of SOA …
[PDF][PDF] Climate-relevant physical properties of molecular constituents relevant for isoprene-derived secondary organic aerosol material
MA Upshur, BF Strick, VF McNeill… - … Chemistry & Physics …, 2014 - acp.copernicus.org
Secondary organic aerosol (SOA) particles, formed from gas-phase biogenic volatile organic
compounds (BVOCs), contribute large uncertainties to the radiative forcing that is associated
with aerosols in the climate system. Reactive uptake of surfaceactive organic oxidation
products of BVOCs at the gas–aerosol interface can poten-5 tially decrease the overall
aerosol surface tension and therefore influence their propensity to act as cloud
condensation nuclei (CCN). Here, we synthesize and measure some climate-relevant …
compounds (BVOCs), contribute large uncertainties to the radiative forcing that is associated
with aerosols in the climate system. Reactive uptake of surfaceactive organic oxidation
products of BVOCs at the gas–aerosol interface can poten-5 tially decrease the overall
aerosol surface tension and therefore influence their propensity to act as cloud
condensation nuclei (CCN). Here, we synthesize and measure some climate-relevant …