PPT-Application of OMI tropospheric

NO2 for air quality monitoring in Northern Europe shipping and landbased case studies Iolanda Ialongo FMI Hakkarainen  J Jalkanen  JP Johansson L Tamminen  J FMI Boersma. Intercomparison. Project (. GeoMIP. ). Giovanni . Pitari. . V. Aquila, . S. . Tilmes. , . I. . Cionni. , N. De Luca, Di . Genova. , and D. . Iachetti. Participating Models. Source of . geoengineering. 1979–2010). ~3 STCs/year. Strong TT . Weak TT . Trough induced . N = 105. STC Climatology (. 1979–2010). N = 34. Strong TT . Weak TT . Trough induced . STC Climatology (. 1979–2010). N = 56. Strong TT . instantaneous. linkages . between . cloud . vertical. . structure and . large. -scale climate . Ying Li. Colorado State University. Merged CALIPSO. /. CloudSat data. (. 2B-GEOPROF-LIDAR . product; June 2006–April 2011. the Upper Troposphere - Lower Stratosphere. K. . Wargan, . S. . Pawson. , . M. . Olsen, . J. . Witte, . A. . Douglass. Global Modeling and Assimilation Office (GMAO). Chemistry and Dynamics Branch. NASA GSFC. newest Activity. :. Tropospheric Ozone Assessment Report (TOAR). Global metrics for climate change, human health and . crop/ecosystem research. Owen R. Cooper . CIRES, University of Colorado, Boulder, USA . Diabatic. Energy. . Sources. Baroclinic. Energy Sources. Adapted from Fig. 9 in . Beven. (2012). 30. th. Conference on Hurricanes and Tropical Meteorology. TCs. Subtropical cyclones. Frontal cyclones. Ozone Enhancement Due to Lightning . -- Observations and Models. Lihua. Wang. 1. st. TEMPO Applications Workshop. Huntsville, AL. July 12-13, 2016. Introduction. Lightning is a particularly . signifant. . tropospheric. . files. in . VieVS. Matthias Madzak. External. . tropospheric. . files. Tropospheric. . delays. in . one. . txt. . file. per . session. Different . models. . available. Easy . ozone retrieval from . uv. /. vis. . spectrometery. RAL Space - Remote Sensing Group. Richard Siddans, . Georgina Miles. Brian Kerridge, Barry Latter. 21. st. May 2014 TEMPO 2. nd. Science Meeting, Hampton, VA. YAG Laser and Raman Cells (. A53Q – 0439. ) . J. T. . Sullivan (jsull1@umbc.edu). 1,2. , . T. J. . McGee. 2. , . G. K. . Sumnicht. 2,3. 1. . Department of Atmospheric Physics, University of Maryland Baltimore County (UMBC), Baltimore, MD, United States. . A . community-wide effort to quantify tropospheric ozone in a rapidly changing . world. Owen . Cooper. CIRES, . U. . of Colorado/NOAA Earth System Research . Lab., . Boulder. owen.r.cooper@noaa.gov. TEMPO Science Team Meeting, Harvard-Smithsonian Center for Astrophysics. Michael S. Fischer and Brian H. Tang. Motivation. Nearly half of all Atlantic genesis events form in an environment characterized by upper tropospheric forcing for ascent (. McTaggart. -Cowan et al. 2013). – . what . else besides climate change. Daniel J. Jacob. Group photo (2013). Range of tropospheric chemistry problems. LOCAL . < 100 km. REGIONAL. 100-1000 km. GLOBAL. > 1000 km. Urban smog. . . Xiong. Liu and Kelly Chance. July 23, 2013. xliu@cfa.harvard.edu. Outline. Introduction. Ozone Profile and Tropospheric Ozone Algorithm: current implementation (OMI) and its adaption to TEMPO.