Synergistic Uptake by Acidic Sulfate Particles of Gaseous Mixtures of Glyoxal and Pinanediol

The uptake of gaseous organic species by atmospheric particles can be affected by the reactive interactions among multiple co-condensing species, yet the underlying mechanisms remain poorly understand. Here, the uptake of unary and binary mixtures of glyoxal and pinanediol by neutral and acidic sulf...

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Veröffentlicht in:Environmental science & technology 2020-10, Vol.54 (19), p.11762-11770
Hauptverfasser: Qin, Yiming, Ye, Jianhuai, Ohno, Paul E, Lei, Yali, Wang, Junfeng, Liu, Pengfei, Thomson, Regan J, Martin, Scot T
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container_end_page 11770
container_issue 19
container_start_page 11762
container_title Environmental science & technology
container_volume 54
creator Qin, Yiming
Ye, Jianhuai
Ohno, Paul E
Lei, Yali
Wang, Junfeng
Liu, Pengfei
Thomson, Regan J
Martin, Scot T
description The uptake of gaseous organic species by atmospheric particles can be affected by the reactive interactions among multiple co-condensing species, yet the underlying mechanisms remain poorly understand. Here, the uptake of unary and binary mixtures of glyoxal and pinanediol by neutral and acidic sulfate particles is investigated. These species are important products from the oxidation of volatile organic compounds (VOCs) under atmospheric conditions. The uptake to acidic aerosol particles greatly increased for a binary mixture of glyoxal and pinanediol compared to the unary counterparts. The strength of the synergism depended on the particle acidity and water content (i.e., relative humidity). The greater uptake was up to 2.5× to 8× at 10% relative humidity (RH) for glyoxal and pinanediol, respectively. At 50% RH, it was 2× and 1.2× for the two species. Possible mechanisms of acid-catalyzed cross reactions between the species are proposed to explain the synergistic uptake. The proposed mechanisms are applicable to a broader extent across atmospheric species having carbonyl and hydroxyl functionalities. The results thus suggest that synergistic uptake reactions can be expected to significantly influence the gas–particle partitioning of VOC oxidation products under atmospheric conditions and thus greatly affect their atmospheric transport and lifetime.
doi_str_mv 10.1021/acs.est.0c02062
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source MEDLINE; ACS Publications
subjects Acidity
Aerosols
Anthropogenic Impacts on the Atmosphere
Atmospheric conditions
Binary mixtures
Carbonyl compounds
Carbonyls
Chemical reactions
Gases
Glyoxal
Humidity
Moisture content
Organic compounds
Oxidation
Particulates
Relative humidity
Species
Sulfates
Synergism
VOCs
Volatile organic compounds
Water
Water content
title Synergistic Uptake by Acidic Sulfate Particles of Gaseous Mixtures of Glyoxal and Pinanediol
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