Geophysical Research Letters · 2016 · 33 citations · 55 references
Natural SciencesChemistryEarth SciencesAir-sea InteractionAtmospheric ChemistryAtmospheric ScienceAerosol ChemistryAerosol PhysicsMarine Atmospheric ChemistryParticulate MatterSecondary Aerosol FormationTropospheric ChemistryAtmospheric Aerosol ChemistryDimethyl Sulfide ChemistryDimethyl Sulfide EmissionEarth System ModelsMarine Aerosol ChemistryMarine Atmospheric Boundary LayerSecondary Aerosol EvolutionSecondary Aerosol Formation Modeling
Abstract Natural aerosols play a central role in the Earth system. The conversion of dimethyl sulfide to sulfuric acid is the dominant source of oceanic secondary aerosol. Ocean emitted iodine can also produce aerosol. Using a GEOS‐Chem model, we present a simulation of iodine aerosol. The simulation compares well with the limited observational data set. Iodine aerosol concentrations are highest in the tropical marine boundary layer (MBL) averaging 5.2 ng (I) m −3 with monthly maximum concentrations of 90 ng (I) m −3 . These masses are small compared to sulfate (0.75% of MBL burden, up to 11% regionally) but are more significant compared to dimethyl sulfide sourced sulfate (3% of the MBL burden, up to 101% regionally). In the preindustrial, iodine aerosol makes up 0.88% of the MBL burden sulfate mass and regionally up to 21%. Iodine aerosol may be an important regional mechanism for ocean‐atmosphere interaction.
55
Climate Change 2013: The Physical Science Basis
Reinhard F. Stocker, D Qin, Gian‐Kasper Plattner et al. · 2013 · 6.8K citations
Jean‐François Lamarque, Tami C. Bond, Veronika Eyring et al. · Atmospheric chemistry and physics · 2010 · 2.4K citations · Full text
Large contribution of natural aerosols to uncertainty in indirect forcing
K. S. Carslaw, Lindsay Lee, Carly Reddington et al. · Nature · 2013 · 1.3K citations · Full text
Natural Sciences, Earth Sciences, Environmental Sciences +15