Ammonium Chloride Associated Aerosol Liquid Water Enhances Haze in Delhi, India
暂无分享,去创建一个
Jianjun He | J. Apte | O. Wild | A. Nenes | S. Gunthe | Dantong Liu | Pengfei Liu | S. Song | L. Hildebrandt Ruiz | S. S. Gunthe | Yu Wang | Ying Chen | Pengfei Liu | Dawei Hu | Shaojie Song | Lea Hildebrandt Ruiz
[1] Yuesi Wang,et al. Vehicular Emissions Enhanced Ammonia Concentrations in Winter Mornings: Insights from Diurnal Nitrogen Isotopic Signatures. , 2022, Environmental science & technology.
[2] S. Tripathi,et al. Real-time characterization and source apportionment of fine particulate matter in the Delhi megacity area during late winter. , 2021, The Science of the total environment.
[3] S. Martin,et al. Enhanced aerosol particle growth sustained by high continental chlorine emission in India , 2021, Nature Geoscience.
[4] J. Apte,et al. Sources and Dynamics of Submicron Aerosol during the Autumn Onset of the Air Pollution Season in Delhi, India , 2021 .
[5] Beth S. Nelson,et al. Avoiding high ozone pollution in Delhi, India. , 2020, Faraday discussions.
[6] L. M. David,et al. Outdoor air pollution in India is not only an urban problem , 2020, Proceedings of the National Academy of Sciences.
[7] S. Tripathi,et al. Chemical characterization of PM2.5 and source apportionment of organic aerosol in New Delhi, India. , 2020, The Science of the total environment.
[8] J. Apte,et al. Air mass physiochemical characteristics over New Delhi: impacts on aerosol hygroscopicity and cloud condensation nuclei (CCN) formation , 2020 .
[9] S. Schmitt,et al. Wintertime N2O5 uptake coefficients over the North China Plain. , 2020, Science bulletin.
[10] Chunsheng Zhao,et al. Mutual promotion between aerosol particle liquid water and particulate nitrate enhancement leads to severe nitrate-dominated particulate matter pollution and low visibility , 2020 .
[11] J. Apte,et al. Particle number concentrations and size distribution in a polluted megacity: the Delhi Aerosol Supersite study , 2020, Atmospheric Chemistry and Physics.
[12] P. Zhao,et al. Aerosol hygroscopicity based on size-resolved chemical compositions in Beijing. , 2020, The Science of the total environment.
[13] Jianjun He,et al. Local characteristics of and exposure to fine particulate matter (PM2.5) in four indian megacities , 2020, Atmospheric Environment: X.
[14] X. Zhang,et al. Variations in submicron aerosol liquid water content and the contribution of chemical components during heavy aerosol pollution episodes in winter in Beijing. , 2019, The Science of the total environment.
[15] Yuzhong Zhang,et al. Thermodynamic Modeling Suggests Declines in Water Uptake and Acidity of Inorganic Aerosols in Beijing Winter Haze Events during 2014/2015–2018/2019 , 2019, Environmental Science & Technology Letters.
[16] P. Zhao,et al. High time-resolution measurement of light scattering hygroscopic growth factor in Beijing: A novel method for high relative humidity conditions , 2019, Atmospheric Environment.
[17] Chunsheng Zhao,et al. Distinct diurnal variation of organic aerosol hygroscopicity and its relationship with oxygenated organic aerosol , 2019 .
[18] R. Wolke,et al. Natural sea-salt emissions moderate the climate forcing of anthropogenic nitrate , 2019, Atmospheric Chemistry and Physics.
[19] J. D. de Gouw,et al. Black carbon lofts wildfire smoke high into the stratosphere to form a persistent plume , 2019, Science.
[20] S. Sahu,et al. Mitigation of PM2.5 and ozone pollution in Delhi: a sensitivity study during the pre-monsoon period , 2019, Atmospheric Chemistry and Physics.
[21] A. Ravishankara. A question of balance: weighing the options for controlling ammonia, sulfur dioxide and nitrogen oxides , 2019, National science review.
[22] J. Apte,et al. Submicron aerosol composition in the world's most polluted megacity: the Delhi Aerosol Supersite study , 2019, Atmospheric Chemistry and Physics.
[23] Ying Chen,et al. Significant Climate Impact of Highly Hygroscopic Atmospheric Aerosols in Delhi, India , 2019, Geophysical Research Letters.
[24] J. Apte,et al. Toward cleaner air for a billion Indians , 2019, Proceedings of the National Academy of Sciences.
[25] J. Apte,et al. Sources and atmospheric dynamics of organic aerosol in New Delhi, India: insights from receptor modeling , 2019, Atmospheric Chemistry and Physics.
[26] T. Müller,et al. Respiratory tract deposition of inhaled roadside ultrafine refractory particles in a polluted megacity of South-East Asia. , 2019, The Science of the total environment.
[27] Pallavi,et al. Gridded Emissions of CO, NO x, SO2, CO2, NH3, HCl, CH4, PM2.5, PM10, BC, and NMVOC from Open Municipal Waste Burning in India. , 2019, Environmental science & technology.
[28] Ajay Pillarisetti,et al. Indian annual ambient air quality standard is achievable by completely mitigating emissions from household sources , 2019, Proceedings of the National Academy of Sciences.
[29] S. Ghude,et al. Loss to Aviation Economy Due to Winter Fog in New Delhi during the Winter of 2011–2016 , 2019, Atmosphere.
[30] Tong Zhu,et al. Ammonia emission control in China would mitigate haze pollution and nitrogen deposition, but worsen acid rain , 2019, Proceedings of the National Academy of Sciences.
[31] D. Jacob,et al. The role of chlorine in global tropospheric chemistry , 2019, Atmospheric Chemistry and Physics.
[32] O. Wild,et al. Photochemical impacts of haze pollution in an urban environment , 2019, Atmospheric Chemistry and Physics.
[33] A. Bertram,et al. Liquid-liquid phase separation and viscosity within secondary organic aerosol generated from diesel fuel vapors , 2019 .
[34] O. Wild,et al. The influence of impactor size cut-off shift caused by hygroscopic growth on particulate matter loading and composition measurements , 2018, Atmospheric Environment.
[35] J. Apte,et al. Submicron aerosol composition in the world's most polluted megacity: The Delhi Aerosol Supersite campaign , 2018 .
[36] G. Janssens‑Maenhout,et al. Gridded emissions of air pollutants for the period 1970–2012 within EDGAR v4.3.2 , 2018, Earth System Science Data.
[37] Chunsheng Zhao,et al. A parameterization for the light scattering enhancement factor with aerosol chemical compositions , 2018, Atmospheric Environment.
[38] M. McElroy,et al. Fine-particle pH for Beijing winter haze as inferred from different thermodynamic equilibrium models , 2018, Atmospheric Chemistry and Physics.
[39] Yuanhang Zhang,et al. Aerosol Liquid Water Driven by Anthropogenic Inorganic Salts: Implying Its Key Role in Haze Formation over the North China Plain , 2018 .
[40] R. Wolke,et al. A parameterization of the heterogeneous hydrolysis of N 2 O 5 for mass-based aerosol models: improvement of particulate nitrate prediction , 2018 .
[41] Qiang Zhang,et al. Severe Pollution in China Amplified by Atmospheric Moisture , 2017, Scientific Reports.
[42] Chunsheng Zhao,et al. A novel method for calculating ambient aerosol liquid water content based on measurements of a humidified nephelometer system , 2017 .
[43] S. Martin,et al. Submicrometer Particles Are in the Liquid State during Heavy Haze Episodes in the Urban Atmosphere of Beijing, China , 2017 .
[44] T. Zhu,et al. High N2O5 Concentrations Observed in Urban Beijing: Implications of a Large Nitrate Formation Pathway , 2017 .
[45] Qi Zhang,et al. Real-time chemical characterization of atmospheric particulate matter in China: A review , 2017 .
[46] S. Tao,et al. Improvement of a Global High-Resolution Ammonia Emission Inventory for Combustion and Industrial Sources with New Data from the Residential and Transportation Sectors. , 2017, Environmental science & technology.
[47] Kebin He,et al. Reactive nitrogen chemistry in aerosol water as a source of sulfate during haze events in China , 2016, Science Advances.
[48] J. Thornton,et al. Fine particle pH and the partitioning of nitric acid during winter in the northeastern United States , 2016 .
[49] Qiang Zhang,et al. Fossil Fuel Combustion-Related Emissions Dominate Atmospheric Ammonia Sources during Severe Haze Episodes: Evidence from (15)N-Stable Isotope in Size-Resolved Aerosol Ammonium. , 2016, Environmental science & technology.
[50] D. Toohey,et al. A study of aerosol properties based on observations of particulate matter from the U.S. Embassy in Beijing, China , 2016 .
[51] Xin Long,et al. Effect of heavy haze and aerosol pollution on rice and wheat productions in China , 2016, Scientific Reports.
[52] Qi Zhang,et al. Liquid water: Ubiquitous contributor to aerosol mass , 2016 .
[53] C. Bretherton,et al. Improving our fundamental understanding of the role of aerosol−cloud interactions in the climate system , 2016, Proceedings of the National Academy of Sciences.
[54] S. Dey,et al. Cause-specific premature death from ambient PM2.5 exposure in India: Estimate adjusted for baseline mortality. , 2016, Environment international.
[55] Jingkun Jiang,et al. Gaseous Ammonia Emissions from Coal and Biomass Combustion in Household Stoves with Different Combustion Efficiencies , 2016 .
[56] J. Lelieveld,et al. The contribution of outdoor air pollution sources to premature mortality on a global scale , 2015, Nature.
[57] Rajesh Kumar,et al. What controls the seasonal cycle of black carbon aerosols in India? , 2015 .
[58] J. Chen,et al. A study of aerosol liquid water content based on hygroscopicity measurements at high relative humidity in the North China Plain , 2014 .
[59] Kebin He,et al. Heterogeneous chemistry: a mechanism missing in current models to explain secondary inorganic aerosol formation during the January 2013 haze episode in North China , 2014 .
[60] Chunsheng Zhao,et al. Aerosol hygroscopicity derived from size-segregated chemical composition and its parameterization in the North China Plain , 2013 .
[61] Steven S. Brown,et al. Nighttime radical observations and chemistry. , 2012, Chemical Society reviews.
[62] G. Beig,et al. Evidence of seasonal enhancement of CO in the upper troposphere over India , 2011 .
[63] Yugo Kanaya,et al. Impacts of aerosols on summertime tropospheric photolysis frequencies and photochemistry over Central Eastern China , 2011 .
[64] J. Thornton,et al. Toward a general parameterization of N 2 O 5 reactivity on aqueous particles: the competing effects of particle liquid water, nitrate and chloride , 2009 .
[65] P. Adams,et al. Evaluation of aerosol distributions in the GISS-TOMAS global aerosol microphysics model with remote sensing observations , 2009 .
[66] Rohit Mathur,et al. A comparison of CMAQ‐based aerosol properties with IMPROVE, MODIS, and AERONET data , 2007 .
[67] M. Petters,et al. A single parameter representation of hygroscopic growth and cloud condensation nucleus activity , 2006 .
[68] John H. Seinfeld,et al. Global impacts of gas‐phase chemistry‐aerosol interactions on direct radiative forcing by anthropogenic aerosols and ozone , 2005 .
[69] B. Stevens,et al. What Controls the Mean Depth of the PBL , 2005 .
[70] S. J. Tanner,et al. Surface ocean‐lower atmosphere interactions in the Northeast Pacific Ocean Gyre: Aerosols, iron, and the ecosystem response , 2003 .
[71] A. Wexler,et al. Atmospheric aerosol models for systems including the ions H+, NH4+, Na+, SO42−, NO3−, Cl−, Br−, and H2O , 2002 .
[72] M. Kulmala,et al. Clouds without supersaturation , 1997, Nature.
[73] Stephen E. Schwartz,et al. Mass-Transport Considerations Pertinent to Aqueous Phase Reactions of Gases in Liquid-Water Clouds , 1986 .
[74] M S Janoff,et al. THE RELATIONSHIP BETWEEN VISIBILITY AND TRAFFIC ACCIDENTS , 1977 .
[75] H. Köhler. The nucleus in and the growth of hygroscopic droplets , 1936 .