Ground/space, passive/active remote sensing observations coupled with particle dispersion modelling to understand the inter-continental transport of wildfire smoke plumes
暂无分享,去创建一个
L. Alados-Arboledas | Y. Sola | F. Molero | M. Yela | A. Comeron | D. Bortoli | R. Salgado | L. Alados-Arboledas | M. Pujadas | O. Jorba | A. Comerón | M. Granados-Muñoz | F. Molero | C. Muñoz-Porcar | A. Rodríguez-Gómez | C. Córdoba-Jabonero | D. Bortoli | P. Ortiz-Amezcua | J. A. Benavent-Oltra | M. Sicard | M. Potes | R. Salgado | M. J. Costa | R. Román | M. Yela | A. Bedoya-Velásquez | V. Salgueiro | Y. Sola | M. Sicard | F. Rocadenbosch | M. J. Granados-Munoz | R. Barragan | A. E. Bedoya-Velasquez | C. Cordoba-Jabonero | A. del Aguila | A. J. Fernandez | J. L. Guerrero-Rascado | O. Jorba | C. Munoz-Porcar | P. Ortiz-Amezcua | N. Papagiannopoulos | M. Potes | M. Pujadas | A. Rodriguez-Gomez | R. Roman | F. Rocadenbosch | R. Barragán | V. Salgueiro | A. Fernandez | N. Papagiannopoulos | A. D. Águila
[1] Ulla Wandinger,et al. Target categorization of aerosol and clouds by continuous multiwavelength-polarization lidar measurements , 2017 .
[2] T. Eck,et al. Wavelength dependence of the optical depth of biomass burning, urban, and desert dust aerosols , 1999 .
[3] J. Jimenez,et al. Absorption Angstrom Exponent in AERONET and related data as an indicator of aerosol composition , 2009 .
[4] P. North,et al. Smoke aerosol properties and ageing effects for northern temperate and boreal regions derived from AERONET source and age attribution , 2015 .
[5] A. Ansmann,et al. Separation of the optical and mass features of particle components in different aerosol mixtures by using POLIPHON retrievals in synergy with continuous polarized Micro-Pulse Lidar (P-MPL) measurements , 2018, Atmospheric Measurement Techniques.
[6] Philip Cunningham,et al. Severe convective storms initiated by intense wildfires: Numerical simulations of pyro‐convection and pyro‐tornadogenesis , 2009 .
[7] Doina Nicolae,et al. The unprecedented 2017–2018 stratospheric smoke event: decay phase and aerosol properties observed with the EARLINET , 2019, Atmospheric Chemistry and Physics.
[8] A. T. J. de Laat,et al. A solar escalator: Observational evidence of the self‐lifting of smoke and aerosols by absorption of solar radiation in the February 2009 Australian Black Saturday plume , 2012 .
[9] A. Stohl,et al. Raman lidar observations of aged Siberian and Canadian forest fire smoke in the free troposphere over Germany in 2003 : Microphysical particle characterization , 2005 .
[10] R. Boers,et al. Lifting potential of solar‐heated aerosol layers , 2010 .
[11] J. Jimenez,et al. Evolution of brown carbon in wildfire plumes , 2015 .
[12] Ulla Wandinger,et al. Transport of boreal forest fire emissions from Canada , 2001 .
[13] T. Eck,et al. Variability of Absorption and Optical Properties of Key Aerosol Types Observed in Worldwide Locations , 2002 .
[14] P. Mcmurry,et al. Variability in morphology, hygroscopicity, and optical properties of soot aerosols during atmospheric processing , 2008, Proceedings of the National Academy of Sciences.
[15] Mark A. Vaughan,et al. The Retrieval of Profiles of Particulate Extinction from Cloud-Aerosol Lidar Infrared Pathfinder Satellite Observations (CALIPSO) Data: Algorithm Description , 2009 .
[16] C. Justice,et al. Fire and smoke observed from the Earth Observing System MODIS instrument--products, validation, and operational use , 2003 .
[17] M. Chin,et al. THE JOINT AEROSOL- MONSOON EXPERIMENT A New Challenge for Monsoon Climate Research , 2008 .
[18] Tami C. Bond,et al. Spectral absorption properties of atmospheric aerosols , 2007 .
[19] Taylor H. Ricketts,et al. Terrestrial ecoregions of North America : a conservation assessment , 1999 .
[20] Jay R. Herman,et al. Pyro-cumulonimbus injection of smoke to the stratosphere: Observations and impact of a super blowup in northwestern Canada , 2005 .
[21] P. Buseck,et al. Shapes of soot aerosol particles and implications for their effects on climate , 2010 .
[22] Victoria E. Cachorro,et al. Aerosol optical depth and Ångström exponent climatology at El Arenosillo AERONET site (Huelva, Spain) , 2007 .
[23] M. Razinger,et al. Biomass burning emissions estimated with a global fire assimilation system based on observed fire radiative power , 2011 .
[24] B. Weinzierl,et al. Aerosol classification by airborne high spectral resolution lidar observations , 2012 .
[25] A. Stohl,et al. Extreme CO concentrations in the upper troposphere over northeast Asia in June 2003 from the in situ MOZAIC aircraft data , 2005 .
[26] L. Alados-Arboledas,et al. Microphysical characterization of long-range transported biomass burning particles from North America at three EARLINET stations , 2016 .
[27] E. Atlas,et al. Lagrangian analysis of low altitude anthropogenic plume processing across the North Atlantic , 2008 .
[28] Gunnar Luderer,et al. Modeling of biomass smoke injection into the lower stratosphere by a large forest fire (Part II): sensitivity studies , 2006 .
[29] H. Rohatschek. Levitation of stratospheric and mesospheric aerosols by gravito-photophoresis , 1996 .
[30] Joel S. Levine,et al. Particulate and Trace Gas Emissions from Large Biomass Fires in North America , 1991 .
[31] Y. Wang,et al. Characterization of forest fire smoke event near Washington, DC in summer 2013 with multi-wavelength lidar , 2014 .
[32] Colette Brogniez,et al. Vertical distribution of the different types of aerosols in the stratosphere: Detection of solid particles and analysis of their spatial variability , 2008 .
[33] R. C. Owen,et al. Morphology and mixing state of aged soot particles at a remote marine free troposphere site: Implications for optical properties , 2015 .
[34] Anthony W. Strawa,et al. Vertical transport of anthropogenic soot aerosol into the middle atmosphere , 2000 .
[35] J. Kar,et al. Enhancements to the caliop aerosol subtyping and lidar ratio selection algorithms for level II version 4 , 2016 .
[36] Thomas T. Warner,et al. Ensemble Simulations with Coupled Atmospheric Dynamic and Dispersion Models: Illustrating Uncertainties in Dosage Simulations , 2002 .
[37] Mike Fromm,et al. A case study of pyro-convection using transport model and remote sensing data , 2006 .
[38] A. Stohl,et al. Injection in the lower stratosphere of biomass fire emissions followed by long-range transport: a MOZAIC case study , 2008 .
[39] Francesc Rocadenbosch,et al. Current Research in Lidar Technology Used for the Remote Sensing of Atmospheric Aerosols , 2017, Sensors.
[40] J. Kar,et al. Swelling of Transported Smoke from Savanna fires over the Southeast Atlantic Ocean. , 2018, Remote sensing of environment.
[41] G. Luderer,et al. The Chisholm firestorm: observed microstructure, precipitation and lightning activity of a pyro-cumulonimbus , 2006 .
[42] V. Freudenthaler,et al. EARLINET: towards an advanced sustainable European aerosol lidar network , 2014 .
[43] R. Ferrare,et al. Aerosol classification using airborne High Spectral Resolution Lidar measurements – methodology and examples , 2011 .
[44] L. Polvani,et al. Ozone hole and Southern Hemisphere climate change , 2009 .
[45] Matthew S. Johnson,et al. A multiparameter aerosol classification method and its application to retrievals from spaceborne polarimetry , 2014 .
[46] Riko Oki,et al. The EarthCARE Satellite: The Next Step Forward in Global Measurements of Clouds, Aerosols, Precipitation, and Radiation , 2015 .
[47] M. J. Costa,et al. The unprecedented 2017–2018 stratospheric smoke event: Decay phase and aerosol properties observed with EARLINET , 2019 .
[48] Glenn Rolph,et al. Real-time Environmental Applications and Display sYstem: READY , 2017, Environ. Model. Softw..
[49] Gunnar Luderer,et al. Modeling of biomass smoke injection into the lower stratosphere by a large forest fire (Part I): reference simulation , 2006 .
[50] R. Bellasio,et al. A statistical methodology for the evaluation of long-range dispersion models: an application to the ETEX exercise , 1998 .
[51] V. Freudenthaler,et al. Depolarization ratio profiling at several wavelengths in pure Saharan dust during SAMUM 2006 , 2009 .
[52] Eric P. Shettle,et al. Observations of boreal forest fire smoke in the stratosphere by POAM III, SAGE II, and lidar in 1998 , 2000 .
[53] Michael Cusack,et al. Variability of Particle Number, Black Carbon, and PM10, PM2.5, and PM1 Levels and Speciation: Influence of Road Traffic Emissions on Urban Air Quality , 2010 .
[54] Michael Fromm,et al. Transport of forest fire smoke above the tropopause by supercell convection , 2003 .
[55] Iwona S. Stachlewska,et al. Study of aerosol optical properties during long-range transport of biomass burning from Canada to Central Europe in July 2013 , 2016 .
[56] Roger A. Pielke,et al. Use of meteorological models as input to regional and mesoscale air quality models — limitations and strengths , 1998 .
[57] A. Heil,et al. Assessment the Global Fire Assimilation System (GFASv1) , 2013 .
[58] R. Draxler,et al. Description and Verification of the NOAA Smoke Forecasting System: The 2007 Fire Season , 2009 .
[59] R. Draxler,et al. NOAA’s HYSPLIT Atmospheric Transport and Dispersion Modeling System , 2015 .
[60] Teruyuki Nakajima,et al. Tropospheric aerosol optical thickness from the GOCART model and comparisons with satellite and sun photometer measurements , 2002 .
[61] Ellsworth J. Welton,et al. Global monitoring of clouds and aerosols using a network of micropulse lidar systems , 2001, SPIE Asia-Pacific Remote Sensing.
[62] S. Twomey,et al. The Production of Cloud Nuclei by Cane Fires and the Effect on Cloud Droplet Concentration , 1967 .
[63] R. Draxler,et al. Verification of the NOAA Smoke Forecasting System: Model Sensitivity to the Injection Height , 2009 .
[64] R. Engelmann,et al. Extreme levels of Canadian wildfire smoke in the stratosphere over central Europe on 21–22 August 2017 , 2018, Atmospheric Chemistry and Physics.
[65] A. Smirnov,et al. AERONET-a federated instrument network and data archive for aerosol Characterization , 1998 .
[66] T. Eck,et al. AERONET-based models of smoke-dominated aerosol near source regions and transported over oceans, and implications for satellite retrievals of aerosol optical depth , 2014 .
[67] L. Alados-Arboledas,et al. Aerosol optical, microphysical and radiative properties at regional background insular sites in the western Mediterranean , 2016 .
[68] Lucas Alados-Arboledas,et al. Aerosol scattering and absorption Angström exponents as indicators of dust and dust-free days over Granada (Spain) , 2015 .
[69] P. Riggan,et al. Particulate and trace gas emissions from large biomass fire in North America , 1991 .
[70] J. Pelon,et al. Stratospheric Smoke With Unprecedentedly High Backscatter Observed by Lidars Above Southern France , 2018 .
[71] Thomas W. Kirchstetter,et al. Emissions of trace gases and aerosols during the open combustion of biomass in the laboratory , 2009 .
[72] William L. Smith,et al. AIRS: Improving Weather Forecasting and Providing New Data on Greenhouse Gases. , 2006 .
[73] Monika K. Rabarison,et al. Sensitivity of atmospheric dispersion simulations by HYSPLIT to the meteorological predictions from a meso-scale model , 2008 .
[74] M. Haeffelin,et al. Long-range-transported Canadian smoke plumes in the lower stratosphere over northern France , 2019, Atmospheric Chemistry and Physics.
[75] M. Kahnert,et al. Observations of the spectral dependence of linear particle depolarization ratio of aerosols using NASA Langley airborne High Spectral Resolution Lidar , 2015 .
[76] Anne Grete Straume,et al. A More Extensive Investigation of the Use of Ensemble Forecasts for Dispersion Model Evaluation , 2001 .
[77] Narendra Singh,et al. Global trends of columnar and vertically distributed properties of aerosols with emphasis on dust, polluted dust and smoke - inferences from 10-year long CALIOP observations , 2018 .
[78] W. Randel,et al. Definitions and sharpness of the extratropical tropopause: A trace gas perspective , 2004 .
[79] J. Reid,et al. Physical and optical properties of young smoke from individual biomass fires in Brazil , 1998 .
[80] M. Fromm,et al. A Conceptual Model for Development of Intense Pyrocumulonimbus in Western North America , 2017 .
[81] P. Crutzen,et al. Biomass Burning in the Tropics: Impact on Atmospheric Chemistry and Biogeochemical Cycles , 1990, Science.
[82] M. George,et al. Satellite- and ground-based CO total column observations over 2010 Russian fires: accuracy of top-down estimates based on thermal IR satellite data , 2019 .
[83] Anne Garnier,et al. Extinction and optical depth retrievals for CALIPSO's Version 4 data release , 2018, Atmospheric Measurement Techniques.
[84] S. Massie,et al. Stratospheric impact of the Chisholm pyrocumulonimbus eruption: 2. Vertical profile perspective , 2008 .
[85] J. Goldammer,et al. Modeling of carbonaceous particles emitted by boreal and temperate wildfires at northern latitudes , 2000 .
[86] Tianhai Cheng,et al. Effects of morphology on the radiative properties of internally mixed light absorbing carbon aerosols with different aging status. , 2014, Optics express.
[87] David M. Winker,et al. The CALIPSO Version 4 Automated Aerosol Classification and Lidar Ratio Selection Algorithm. , 2018, Atmospheric measurement techniques.
[88] M. Andreae,et al. Black carbon or brown carbon? The nature of light-absorbing carbonaceous aerosols , 2006 .
[89] D. Roy,et al. Quantification of MODIS fire radiative power (FRP) measurement uncertainty for use in satellite‐based active fire characterization and biomass burning estimation , 2014 .
[90] D. Winker,et al. Initial performance assessment of CALIOP , 2007 .
[91] A. Robock. Volcanic eruptions and climate , 2000 .
[92] M. George,et al. Satellite- and ground-based CO total column observations over 2010 Russian fires: accuracy of top-down estimates based on thermal IR satellite data , 2011 .
[93] R. Engelmann,et al. Depolarization and lidar ratios at 355, 532, and 1064 nm and microphysical properties of aged tropospheric and stratospheric Canadian wildfire smoke , 2018, Atmospheric Chemistry and Physics.
[94] S. Petelina,et al. Transport and evolution of the 2009 Australian Black Saturday bushfire smoke in the lower stratosphere observed by OSIRIS on Odin , 2011 .
[95] T. Eck,et al. Modified angström exponent for the characterization of submicrometer aerosols. , 2001, Applied optics.
[96] T. Eck,et al. Spectral discrimination of coarse and fine mode optical depth , 2003 .
[97] R. Engelmann,et al. An overview of the first decade of Polly NET : an emerging network of automated Raman-polarization lidars for continuous aerosol profiling , 2016 .
[98] W. Lau,et al. THE JOINT AEROSOL – MONSOON EXPERIMENT A New Challenge for Monsoon Climate Research , 2022 .
[99] Francesc Rocadenbosch,et al. An Architecture Providing Depolarization Ratio Capability for a Multi-Wavelength Raman Lidar: Implementation and First Measurements , 2017, Sensors.
[100] Albert Ansmann,et al. European pollution outbreaks during ACE 2: Optical particle properties inferred from multiwavelength lidar and star-Sun photometry , 2002 .
[101] K. Hirsch,et al. Large forest fires in Canada, 1959–1997 , 2002 .
[102] Thomas Trickl,et al. The Untold Story of Pyrocumulonimbus , 2010 .
[103] Jay R. Herman,et al. Correction to “Pyro‐cumulonimbus injection of smoke to the stratosphere: Observations and impact of a super blowup in northwestern Canada on 3–4 August 1998” , 2005 .