Results 1 to 10 of about 94,404 (228)

Cyclone-induced surface ozone and HDO depletion in the Arctic [PDF]

Atmospheric Chemistry and Physics, 2017
Ground-based, satellite, and reanalysis datasets were used to identify two similar cyclone-induced surface ozone depletion events at Eureka, Canada (80.1° N, 86.4° W), in March 2007 and April 2011. These two events were coincident with observations of
X. Zhao, X. Zhao, D. Weaver, K. Bognar, G. Manney, G. Manney, L. Millán, X. Yang, E. Eloranta, M. Schneider, K. Strong   +10 more
doaj   +10 more sources

Dataset with updated ozone depletion characterization factors for life cycle impact assessment[12] [PDF]

Data in Brief
This dataset provides the latest characterization factors for ozone depletion based on the most recent ozone depletion potentials from the 2022 World Meteorological Organization (WMO) scientific assessment.
Anne E.M. van den Oever, Stefano Puricelli, Daniele Costa, Nils Thonemann, Maeva Lavigne Philippot, Maarten Messagie   +5 more
doaj   +2 more sources

The response of aquatic ecosystems to the interactive effects of stratospheric ozone depletion, UV radiation, and climate change. [PDF]

Photochem Photobiol Sci, 2023
Neale PJ, Williamson CE, Banaszak AT, Häder DP, Hylander S, Ossola R, Rose KC, Wängberg SÅ, Zepp R.   +8 more
europepmc   +3 more sources

Near-future rocket launches could slow ozone recovery [PDF]

npj Climate and Atmospheric Science
Rocket emissions thin the stratospheric ozone layer. To understand if significant ozone losses could occur as the launch industry grows, we examine two scenarios.
Laura E. Revell, Michele T. Bannister, Tyler F. M. Brown, Timofei Sukhodolov, Sandro Vattioni, John Dykema, David J. Frame, John Cater, Gabriel Chiodo, Eugene Rozanov   +9 more
doaj   +2 more sources

Lagrangian analysis of microphysical and chemical processes in the Antarctic stratosphere: a case study [PDF]

Atmospheric Chemistry and Physics, 2015
We investigated chemical and microphysical processes in the late winter in the Antarctic lower stratosphere, after the first chlorine activation and initial ozone depletion.
L. Di Liberto, R. Lehmann, I. Tritscher, F. Fierli, J. L. Mercer, M. Snels, G. Di Donfrancesco, T. Deshler, B. P. Luo, J-U. Grooß, E. Arnone, B. M. Dinelli, F. Cairo   +12 more
doaj   +7 more sources

Effects of prescribed CMIP6 ozone on simulating the Southern Hemisphere atmospheric circulation response to ozone depletion [PDF]

Atmospheric Chemistry and Physics, 2021
The Antarctic ozone hole has led to substantial changes in the Southern Hemisphere atmospheric circulation, such as the strengthening and poleward shift of the midlatitude westerly jet.
I. Ivanciu, K. Matthes, K. Matthes, S. Wahl, J. Harlaß, A. Biastoch, A. Biastoch   +6 more
doaj   +1 more source

Impacts of Ozone Changes in the Tropopause Layer on Stratospheric Water Vapor

Atmosphere, 2021
Stratospheric water vapor (SWV) changes play an important role in regulating global climate change, and its variations are controlled by tropopause temperature.
Jinpeng Lu, Fei Xie, Hongying Tian, Jiali Luo   +3 more
doaj   +1 more source

Fundamental differences between Arctic and Antarctic ozone depletion. [PDF]

Proc Natl Acad Sci U S A, 2014
Solomon S, Haskins J, Ivy DJ, Min F.
europepmc   +3 more sources

Comparison of three vertically resolved ozone data sets: climatology, trends and radiative forcings [PDF]

Atmospheric Chemistry and Physics, 2013
Climate models that do not simulate changes in stratospheric ozone concentrations require the prescription of ozone fields to accurately calculate UV fluxes and stratospheric heating rates. In this study, three different global ozone time series that are
B. Hassler, P. J. Young, R. W. Portmann, G. E. Bodeker, J. S. Daniel, K. H. Rosenlof, S. Solomon   +6 more
doaj   +1 more source

Ozone depletion events observed in the high latitude surface layer during the TOPSE aircraft program [PDF]

, 2003
During the Tropospheric Ozone Production about the Spring Equinox (TOPSE) aircraft program, ozone depletion events (ODEs) in the high latitude surface layer were investigated using lidar and in situ instruments.
Atlas, EL, Blake, DR, Blake, NJ, Browell, EV, Cantrell, CA, Cinquini, L, Coffey, MT, Cohen, RC, DeYoung, RJ, Dibb, JE, Eisele, FL, Emmons, LK, Flocke, FM, Fried, A, Grahek, FE, Grant, WB, Hair, JW, Hannigan, JW, Heikes, BJ, Lefer, BL, Mauldin, RL, Montzka, DD, Moody, JL, Ridley, BA, Shetter, RE, Snow, JA, Talbot, RW, Thornton, JA, Walega, JG, Weinheimer, AJ, Wert, BP, Wimmers, AJ   +31 more
core   +4 more sources