| Literature DB >> 28169528 |
James B Burkholder1, Jonathan P D Abbatt2, Ian Barnes3, James M Roberts1, Megan L Melamed4, Markus Ammann5, Allan K Bertram6, Christopher D Cappa7, Annmarie G Carlton8, Lucy J Carpenter9, John N Crowley10, Yael Dubowski11, Christian George12, Dwayne E Heard13, Hartmut Herrmann14, Frank N Keutsch15, Jesse H Kroll16, V Faye McNeill17, Nga Lee Ng18, Sergey A Nizkorodov19, John J Orlando20, Carl J Percival21, Bénédicte Picquet-Varrault22, Yinon Rudich23, Paul W Seakins13, Jason D Surratt24, Hiroshi Tanimoto25, Joel A Thornton26, Zhu Tong27, Geoffrey S Tyndall20, Andreas Wahner28, Charles J Weschler29, Kevin R Wilson30, Paul J Ziemann31.
Abstract
Laboratory studies of atmospheric chemistry characterize the nature of atmospherically relevant processes down to the molecular level, providing fundamental information used to assess how human activities drive environmental phenomena such as climate change, urban air pollution, ecosystem health, indoor air quality, and stratospheric ozone depletion. Laboratory studies have a central role in addressing the incomplete fundamental knowledge of atmospheric chemistry. This article highlights the evolving science needs for this community and emphasizes how our knowledge is far from complete, hindering our ability to predict the future state of our atmosphere and to respond to emerging global environmental change issues. Laboratory studies provide rich opportunities to expand our understanding of the atmosphere via collaborative research with the modeling and field measurement communities, and with neighboring disciplines.Entities:
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Year: 2017 PMID： 28169528 DOI： 10.1021/acs.est.6b04947
Source DB: PubMed Journal: Environ Sci Technol ISSN： 0013-936X Impact factor: 9.028