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contributor authorBrasseur, Guy P.
contributor authorGupta, Mohan
contributor authorAnderson, Bruce E.
contributor authorBalasubramanian, Sathya
contributor authorBarrett, Steven
contributor authorDuda, David
contributor authorFleming, Gregg
contributor authorForster, Piers M.
contributor authorFuglestvedt, Jan
contributor authorGettelman, Andrew
contributor authorHalthore, Rangasayi N.
contributor authorJacob, S. Daniel
contributor authorJacobson, Mark Z.
contributor authorKhodayari, Arezoo
contributor authorLiou, Kuo-Nan
contributor authorLund, Marianne T.
contributor authorMiake-Lye, Richard C.
contributor authorMinnis, Patrick
contributor authorOlsen, Seth
contributor authorPenner, Joyce E.
contributor authorPrinn, Ronald
contributor authorSchumann, Ulrich
contributor authorSelkirk, Henry B.
contributor authorSokolov, Andrei
contributor authorUnger, Nadine
contributor authorWolfe, Philip
contributor authorWong, Hsi-Wu
contributor authorWuebbles, Donald W.
contributor authorYi, Bingqi
contributor authorYang, Ping
contributor authorZhou, Cheng
date accessioned2017-06-09T16:44:58Z
date available2017-06-09T16:44:58Z
date copyright2016/04/01
date issued2015
identifier issn0003-0007
identifier otherams-73423.pdf
identifier urihttp://onlinelibrary.yabesh.ir/handle/yetl/4215536
description abstractnder the Federal Aviation Administration?s (FAA) Aviation Climate Change Research Initiative (ACCRI), non-CO2 climatic impacts of commercial aviation are assessed for current (2006) and for future (2050) baseline and mitigation scenarios. The effects of the non-CO2 aircraft emissions are examined using a number of advanced climate and atmospheric chemistry transport models. Radiative forcing (RF) estimates for individual forcing effects are provided as a range for comparison against those published in the literature. Preliminary results for selected RF components for 2050 scenarios indicate that a 2% increase in fuel efficiency and a decrease in NOx emissions due to advanced aircraft technologies and operational procedures, as well as the introduction of renewable alternative fuels, will significantly decrease future aviation climate impacts. In particular, the use of renewable fuels will further decrease RF associated with sulfate aerosol and black carbon. While this focused ACCRI program effort has yielded significant new knowledge, fundamental uncertainties remain in our understanding of aviation climate impacts. These include several chemical and physical processes associated with NOx?O3?CH4 interactions and the formation of aviation-produced contrails and the effects of aviation soot aerosols on cirrus clouds as well as on deriving a measure of change in temperature from RF for aviation non-CO2 climate impacts?an important metric that informs decision-making.
publisherAmerican Meteorological Society
titleImpact of Aviation on Climate: FAA’s Aviation Climate Change Research Initiative (ACCRI) Phase II
typeJournal Paper
journal volume97
journal issue4
journal titleBulletin of the American Meteorological Society
identifier doi10.1175/BAMS-D-13-00089.1
journal fristpage561
journal lastpage583
treeBulletin of the American Meteorological Society:;2015:;volume( 097 ):;issue: 004
contenttypeFulltext


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