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contributor authorRussell, Lynn M.
contributor authorSorooshian, Armin
contributor authorSeinfeld, John H.
contributor authorAlbrecht, Bruce A.
contributor authorNenes, Athanasios
contributor authorAhlm, Lars
contributor authorChen, Yi-Chun
contributor authorCoggon, Matthew
contributor authorCraven, Jill S.
contributor authorFlagan, Richard C.
contributor authorFrossard, Amanda A.
contributor authorJonsson, Haflidi
contributor authorJung, Eunsil
contributor authorLin, Jack J.
contributor authorMetcalf, Andrew R.
contributor authorModini, Robin
contributor authorMülmenstädt, Johannes
contributor authorRoberts, Greg
contributor authorShingler, Taylor
contributor authorSong, Siwon
contributor authorWang, Zhen
contributor authorWonaschütz, Anna
date accessioned2017-06-09T16:44:23Z
date available2017-06-09T16:44:23Z
date copyright2013/05/01
date issued2013
identifier issn0003-0007
identifier otherams-73264.pdf
identifier urihttp://onlinelibrary.yabesh.ir/handle/yetl/4215359
description abstractloud?radiation interactions are widely held to be the largest single source of uncertainty in climate model projections of future radiative forcing due to increasing anthropogenic emissions. The underlying causes of this uncertainty among modeled predictions of climate are the gaps in our fundamental understanding of cloud processes. There has been significant progress with both observations and models in addressing these important questions but quantifying them correctly is nontrivial, thus limiting our ability to represent them in global climate models. The Eastern Pacific Emitted Aerosol Cloud Experiment (E-PEACE) 2011 was a targeted aircraft campaign with embedded modeling studies, using the Center for Interdisciplinary Remotely-Piloted Aircraft Studies (CIRPAS) Twin Otter aircraft and the research vessel Point Sur in July and August 2011 off the central coast of California, with a full payload of instruments to measure particle and cloud number, mass, composition, and water uptake distributions. EPEACE used three emitted particle sources to separate particle-induced feedbacks from dynamical variability, namely 1) shipboard smoke-generated particles with 0.05?1-?m diameters (which produced tracks measured by satellite and had drop composition characteristic of organic smoke), 2) combustion particles from container ships with 0.05?0.2-?m diameters (which were measured in a variety of conditions with droplets containing both organic and sulfate components), and 3) aircraft-based milled salt particles with 3?5-?m diameters (which showed enhanced drizzle rates in some clouds). The aircraft observations were consistent with past large-eddy simulations of deeper clouds in ship tracks and aerosol? cloud parcel modeling of cloud drop number and composition, providing quantitative constraints on aerosol effects on warm-cloud microphysics.
publisherAmerican Meteorological Society
titleEastern Pacific Emitted Aerosol Cloud Experiment
typeJournal Paper
journal volume94
journal issue5
journal titleBulletin of the American Meteorological Society
identifier doi10.1175/BAMS-D-12-00015.1
journal fristpage709
journal lastpage729
treeBulletin of the American Meteorological Society:;2013:;volume( 094 ):;issue: 005
contenttypeFulltext


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