Journal of Atmospheric and Environmental Optics, Volume. 19, Issue 2, 142(2024)
Research progress of mechanism of atmospheric aerosol nucleation promoted by organic amines
[1] J Kaiser. How dirty air hurts the heart. Science, 307, 1858-1859(2005).
[2] S H Cheng, L X Yang, X H Zhou et al. Size-fractionated water-soluble ions, situ pH and water content in aerosol on hazy days and the influences on visibility impairment in Jinan, China. Atmospheric Environment, 45, 4631-4640(2011).
[3] J L Hand, W C Malm. Review of aerosol mass scattering efficiencies from ground-based measurements since 1990. Journal of Geophysical Research: Atmospheres, 112, D16203(2007).
[4] J Lelieveld, J S Evans, M Fnais et al. The contribution of outdoor air pollution sources to premature mortality on a global scale. Nature, 525, 367-371(2015).
[5] B W Chu, V M Kerminen, F Bianchi et al. Atmospheric new particle formation in China. Atmospheric Chemistry and Physics, 19, 115-138(2019).
[6] K S Carslaw, L A Lee, C L Reddington et al. Large contribution of natural aerosols to uncertainty in indirect forcing. Nature, 503, 67-71(2013).
[7] J Merikanto, D V Spracklen, G W Mann et al. Impact of nucleation on global CCN. Atmospheric Chemistry and Physics, 9, 8601-8616(2009).
[8] F Yu, Z Wang, G Luo et al. Ion-mediated nucleation as an important global source of tropospheric aerosols. Atmospheric Chemistry and Physics, 8, 2537-2554(2008).
[9] W R Leaitch, J W Bottenheim, T A Biesenthal et al. A case study of gas-to-particle conversion in an eastern Canadian forest. Journal of Geophysical Research: Atmospheres, 104, 8095-8111(1999).
[10] C O'Dowd, G McFiggans, D J Creasey et al. On the photochemical production of new particles in the coastal boundary layer. Geophysical Research Letters, 26, 1707-1710(1999).
[11] M Kulmala, H Vehkamäki, T Petäjä et al. Formation and growth rates of ultrafine atmospheric particles: A review of observations. Journal of Aerosol Science, 35, 143-176(2004).
[12] T Hussein, H Junninen, P Tunved et al. Time span and spatial scale of regional new particle formation events over Finland and Southern Sweden. Atmospheric Chemistry and Physics, 9, 4699-4716(2009).
[13] H Vehkamäki, M Dal Maso, T Hussein et al. Atmospheric particle formation events at Värriö measurement station in Finnish Lapland 1998-2002. Atmospheric Chemistry and Physics, 4, 2015-2023(2004).
[14] Z B Wang, Z J Wu, D L Yue et al. New particle formation in China: Current knowledge and further directions. Science of the Total Environment, 577, 258-266(2017).
[15] C Yan, R J Yin, Y Q Lu et al. The synergistic role of sulfuric acid, bases, and oxidized organics governing new-particle formation in Beijing. Geophysical Research Letters, 48, 2020GL091944(2021).
[16] M Kulmala, T Petäjä, M Ehn et al. Chemistry of atmospheric nucleation: On the recent advances on precursor characterization and atmospheric cluster composition in connection with atmospheric new particle formation. Annual Review of Physical Chemistry, 65, 21-37(2014).
[17] R J Weber, P H McMurry, R L III Mauldin et al. New particle formation in the remote troposphere: A comparison of observations at various sites. Geophysical Research Letters, 26, 307-310(1999).
[18] M Kulmala, A Laaksonen, L Pirjola. Parameterizations for sulfuric acid/water nucleation rates. Journal of Geophysical Research: Atmospheres, 103, 8301-8307(1998).
[19] I Napari, M Kulmala, H Vehkamäki. Ternary nucleation of inorganic acids, ammonia, and water. The Journal of Chemical Physics, 117, 8418-8425(2002).
[20] I Napari, M Noppel, H Vehkamäki et al. An improved model for ternary nucleation of sulfuric acid-ammonia-water. The Journal of Chemical Physics, 116, 4221-4227(2002).
[21] F Q Yu, R P Turco. The role of ions in the formation and evolution of particles in aircraft plumes. Geophysical Research Letters, 24, 1927-1930(1997).
[22] F Q Yu, R P Turco. Case studies of particle formation events observed in boreal forests: Implications for nucleation mechanisms. Atmospheric Chemistry and Physics, 8, 6085-6102(2008).
[23] J L Jimenez, R Bahreini, III D R Cocker et al. New particle formation from photooxidation of diiodomethane (CH2I2). Journal of Geophysical Research: Atmospheres, 108, 4318(2003).
[24] C D O'Dowd, J L Jimenez, R Bahreini et al. Marine aerosol formation from biogenic iodine emissions. Nature, 417, 632-636(2002).
[25] M Y Wang, W M Kong, R Marten et al. Rapid growth of new atmospheric particles by nitric acid and ammonia condensation. Nature, 581, 184-189(2020).
[26] M Sipilä, T Berndt, T Petäjä et al. The role of sulfuric acid in atmospheric nucleation. Science, 327, 1243-1246(2010).
[27] M Kulmala, L Pirjola, J M Mäkelä. Stable sulphate clusters as a source of new atmospheric particles. Nature, 404, 66-69(2000).
[28] M Kulmala, V M Kerminen. On the formation and growth of atmospheric nanoparticles. Atmospheric Research, 90, 132-150(2008).
[29] J N Smith, M J Dunn, T M VanReken et al. Chemical composition of atmospheric nanoparticles formed from nucleation in Tecamac, Mexico: Evidence for an important role for organic species in nanoparticle growth. Geophysical Research Letters, 35, L04808(2008).
[30] V Fiedler, M Dal Maso, M Boy et al. The contribution of sulphuric acid to atmospheric particle formation and growth: A comparison between boundary layers in Northern and Central Europe. Atmospheric Chemistry and Physics, 5, 1773-1785(2005).
[31] M Boy, Rannik , K E J Lehtinen et al. Nucleation events in the continental boundary layer: Long-term statistical analyses of aerosol relevant characteristics. Journal of Geophysical Research: Atmospheres, 108, 863-878(2003).
[32] M Boy, M Kulmala, T M Ruuskanen et al. Sulphuric acid closure and contribution to nucleation mode particle growth. Atmospheric Chemistry and Physics, 5, 863-878(2005).
[33] C Kuang, I Riipinen, S L Sihto et al. An improved criterion for new particle formation in diverse atmospheric environments. Atmospheric Chemistry and Physics, 10, 8469-8480(2010).
[34] J Kirkby, J Curtius, J Almeida et al. Role of sulphuric acid, ammonia and galactic cosmic rays in atmospheric aerosol nucleation. Nature, 476, 429-433(2011).
[35] J L Jimenez, M R Canagaratna, N M Donahue et al. Evolution of organic aerosols in the atmosphere. Science, 326, 1525-1529(2009).
[36] T Berndt, F Stratmann, M Sipilä et al. Laboratory study on new particle formation from the reaction OH + SO2: influence of experimental conditions, H2O vapour, NH3 and the amine tert-butylamine on the overall process. Atmospheric Chemistry and Physics, 10, 7101-7116(2010).
[37] C D O'Dowd, P Aalto, K Hmeri et al. Atmospheric particles from organic vapours. Nature, 416, 497-498(2002).
[38] J M Mäkelä, S Yli-Koivisto, V Hiltunen et al. Chemical composition of aerosol during particle formation events in boreal forest. Tellus B, 53, 380-393(2001).
[39] R Y Zhang, I Suh, J Zhao et al. Atmospheric new particle formation enhanced by organic acids. Science, 304, 1487-1490(2004).
[40] K C Barsanti, P H McMurry, J N Smith. The potential contribution of organic salts to new particle growth. Atmospheric Chemistry and Physics, 9, 2949-2957(2009).
[41] M E Erupe, A A Viggiano, S H Lee. The effect of trimethylamine on atmospheric nucleation involving H2SO4. Atmospheric Chemistry and Physics, 11, 4767-4775(2011).
[42] A Metzger, B Verheggen, J Dommen et al. Evidence for the role of organics in aerosol particle formation under atmospheric conditions. Proceedings of the National Academy of Sciences of the United States of America, 107, 6646-6651(2010).
[43] A Laaksonen, M Kulmala, C D O'Dowd et al. The role of VOC oxidation products in continental new particle formation. Atmospheric Chemistry and Physics, 8, 2657-2665(2008).
[44] S Schobesberger, H Junninen, F Bianchi et al. Molecular understanding of atmospheric particle formation from sulfuric acid and large oxidized organic molecules. Proceedings of the National Academy of Sciences of the United States of America, 110, 17223-17228(2013).
[45] J H Zollner, W A Glasoe, B Panta et al. Sulfuric acid nucleation: Power dependencies, variation with relative humidity, and effect of bases. Atmospheric Chemistry and Physics, 12, 4399-4411(2012).
[46] L Hildebrandt, E Kostenidou, V A Lanz et al. Sources and atmospheric processing of organic aerosol in the Mediterranean: Insights from aerosol mass spectrometer factor analysis. Atmospheric Chemistry and Physics, 11, 12499-12515(2011).
[47] K S Docherty, A C Aiken, J A Huffman et al. The 2005 Study of Organic Aerosols at Riverside (SOAR-1): Instrumental intercomparisons and fine particle composition. Atmospheric Chemistry and Physics, 11, 12387-12420(2011).
[48] X L Ge, A S Wexler, S L Clegg. Atmospheric amines-Part I. A review. Atmospheric Environment, 45, 524-546(2011).
[49] Y Suzuki, M Kawakami, K Akasaka. H NMR application for characterizing water-soluble organic compounds in urban atmospheric particles. Environmental Science & Technology, 35, 3272(2001).
[50] J Namieśnik, A Jastrzębska, B Zygmunt. Determination of volatile aliphatic amines in air by solid-phase microextraction coupled with gas chromatography with flame ionization detection. Journal of Chromatography A, 1016, 1-9(2003).
[51] G Kallinger, R Niessner. Laboratory investigation of annular denuders as sampling system for the determination of aliphatic primary and secondary amines in stack gas. Microchimica Acta, 130, 309-316(1999).
[52] L Grönberg, P Lövkvist, J Å Jönsson. Determination of aliphatic amines in air by membrane enrichment directly coupled to a gas chromatograph. Chromatographia, 33, 77-82(1992).
[53] T Kurtén, V Loukonen, H Vehkamäki et al. Amines are likely to enhance neutral and ion-induced sulfuric acid-water nucleation in the atmosphere more effectively than ammonia. Atmospheric Chemistry and Physics, 8, 4095-4103(2008).
[54] C Qiu, R Y Zhang. Multiphase chemistry of atmospheric amines. Physical Chemistry Chemical Physics, 15, 5738-5752(2013).
[55] S M Ball, D R Hanson, F L Eisele et al. Laboratory studies of particle nucleation: Initial results for H2SO4, H2O, and NH3 vapors. Journal of Geophysical Research: Atmospheres, 104, 23709-23718(1999).
[56] D Brus, A P Hyvärinen, Y Viisanen et al. Homogeneous nucleation of sulfuric acid and water mixture: Experimental setup and first results. Atmospheric Chemistry and Physics, 10, 2631-2641(2010).
[57] M J Ezell, H H Chen, K D Arquero et al. Aerosol fast flow reactor for laboratory studies of new particle formation. Journal of Aerosol Science, 78, 30-40(2014).
[58] L H Young, D R Benson, F R Kameel et al. Laboratory studies of H2SO4/H2O binary homogeneous nucleation from the SO2+OH reaction: Evaluation of the experimental setup and preliminary results. Atmospheric Chemistry and Physics, 8, 4997-5016(2008).
[59] C N Jen, P H McMurry, D R Hanson. Stabilization of sulfuric acid dimers by ammonia, methylamine, dimethylamine, and trimethylamine. Journal of Geophysical Research: Atmospheres, 119, 7502-7514(2014).
[60] A Kürten, T Jokinen, M Simon et al. Neutral molecular cluster formation of sulfuric acid-dimethylamine observed in real time under atmospheric conditions. Proceedings of the National Academy of Sciences of the United States of America, 111, 15019-15024(2014).
[61] F Bianchi, A P Praplan, N Sarnela et al. Insight into acid-base nucleation experiments by comparison of the chemical composition of positive, negative, and neutral clusters. Environmental Science & Technology, 48, 13675-13684(2014).
[62] H Yu, R McGraw, S H Lee. Effects of amines on formation of sub-3 nm particles and their subsequent growth. Geophysical Research Letters, 39, L02807(2012).
[63] W A Glasoe, K Volz, B Panta et al. Sulfuric acid nucleation: An experimental study of the effect of seven bases. Journal of Geophysical Research: Atmospheres, 120, 1933-1950(2015).
[64] C N Jen, R Bachman, J Zhao et al. Diamine-sulfuric acid reactions are a potent source of new particle formation. Geophysical Research Letters, 43, 867-873(2016).
[65] F Riccobono, S Schobesberger, C E Scott et al. Oxidation products of biogenic emissions contribute to nucleation of atmospheric particles. Science, 344, 717-721(2014).
[66] J Almeida, S Schobesberger, A Kürten et al. Molecular understanding of sulphuric acid-amine particle nucleation in the atmosphere. Nature, 502, 359-363(2013).
[67] M D Chen, M Titcombe, J K Jiang et al. Acid-base chemical reaction model for nucleation rates in the polluted atmospheric boundary layer. Proceedings of the National Academy of Sciences of the United States of America, 109, 18713-18718(2012).
[68] K Lehtipalo, L Rondo, J Kontkanen et al. The effect of acid-base clustering and ions on the growth of atmospheric nano-particles. Nature Communications, 7, 11594(2016).
[69] L Yao, M Y Wang, X K Wang et al. Detection of atmospheric gaseous amines and amides by a high-resolution time-of-flight chemical ionization mass spectrometer with protonated ethanol reagent ions. Atmospheric Chemistry and Physics, 16, 14527-14543(2016).
[70] J Zheng, Y Ma, M D Chen et al. Measurement of atmospheric amines and ammonia using the high resolution time-of-flight chemical ionization mass spectrometry. Atmospheric Environment, 102, 249-259(2015).
[71] L Yao, O Garmash, F Bianchi et al. Atmospheric new particle formation from sulfuric acid and amines in a Chinese megacity. Science, 361, 278-281(2018).
[72] D R Hanson, I Bier, B Panta et al. Computational fluid dynamics studies of a flow reactor: Free energies of clusters of sulfuric acid with NH3 or dimethyl amine. The Journal of Physical Chemistry A, 121, 3976-3990(2017).
[73] P H McMurry, C X Li. The dynamic behavior of nucleating aerosols in constant reaction rate systems: Dimensional analysis and generic numerical solutions. Aerosol Science and Technology, 51, 1057-1070(2017).
[74] X L Ge, A S Wexler, S L Clegg. Atmospheric amines-Part II. Thermodynamic properties and gas/particle partitioning. Atmospheric Environment, 45, 561-577(2011).
[75] J Zhao, J N Smith, F L Eisele et al. Observation of neutral sulfuric acid-amine containing clusters in laboratory and ambient measurements. Atmospheric Chemistry and Physics, 11, 10823-10836(2011).
[76] E M Dunne, H Gordon, A Kürten et al. Global atmospheric particle formation from CERN CLOUD measurements. Science, 354, 1119-1124(2016).
[77] V M Kerminen, X M Chen, V Vakkari et al. Atmospheric new particle formation and growth: Review of field observations. Environmental Research Letters, 13, 103003(2018).
[78] S N Wang, R R Wu, T Berndt et al. Formation of highly oxidized radicals and multifunctional products from the atmospheric oxidation of alkylbenzenes. Environmental Science & Technology, 51, 8442-8449(2017).
[79] D Bousiotis, M Dall'Osto, D C S Beddows et al. Analysis of new particle formation (NPF) events at nearby rural, urban background and urban roadside sites. Atmospheric Chemistry and Physics, 19, 5679-5694(2019).
[80] J Brean, D C S Beddows, Z B Shi et al. Molecular insights into new particle formation in Barcelona, Spain. Atmospheric Chemistry and Physics, 20, 10029-10045(2020).
[81] R J Yin, C Yan, R L Cai et al. Acid-base clusters during atmospheric new particle formation in urban Beijing. Environmental Science & Technology, 55, 10994-11005(2021).
[82] M Kulmala, L Dada, K R Daellenbach et al. Is reducing new particle formation a plausible solution to mitigate particulate air pollution in Beijing and other Chinese megacities?. Faraday Discussions, 226, 334-347(2021).
[83] J Brean, M Dall'Osto, R Simó et al. Open Ocean and coastal new particle formation from sulfuric acid and amines around the Antarctic Peninsula. Nature Geoscience, 14, 383-388(2021).
[84] J P D Abbatt, W R Leaitch, A A Aliabadi et al. Overview paper: New insights into aerosol and climate in the Arctic. Atmospheric Chemistry and Physics, 19, 2527-2560(2019).
[85] G J Zheng, Y Wang, R Wood et al. New particle formation in the remote marine boundary layer. Nature Communications, 12, 527(2021).
[86] L L J Quéléver, L Dada, E Asmi et al. Investigation of new particle formation mechanisms and aerosol processes at Marambio Station, Antarctic Peninsula. Atmospheric Chemistry and Physics, 22, 8417-8437(2022).
[87] N A Freshour, K K Carlson, Y A Melka et al. Amine permeation sources characterized with acid neutralization and sensitivities of an amine mass spectrometer. Atmospheric Measurement Techniques, 7, 3611-3621(2014).
[88] D R Hanson, P H McMurry, J Jiang et al. Ambient pressure proton transfer mass spectrometry: Detection of amines and ammonia. Environmental Science & Technology, 45, 8881-8888(2011).
[89] K Sellegri, B Umann, M Hanke et al. Deployment of a ground-based CIMS apparatus for the detection of organic gases in the boreal forest during the QUEST campaign. Atmospheric Chemistry and Physics, 5, 357-372(2005).
[90] S M Murphy, A Sorooshian, J H Kroll et al. Secondary aerosol formation from atmospheric reactions of aliphatic amines. Atmospheric Chemistry and Physics, 7, 2313-2337(2007).
[91] Q G J Malloy, L Qi, B Warren et al. Secondary organic aerosol formation from primary aliphatic amines with NO3 radical. Atmospheric Chemistry and Physics, 9, 2051-2060(2009).
[92] J N Smith, K C Barsanti, H R Friedli et al. Observations of aminium salts in atmospheric nanoparticles and possible climatic implications. Proceedings of the National Academy of Sciences of the United States of America, 107, 6634-6639(2010).
[93] M Kulmala, J Kontkanen, H Junninen et al. Direct observations of atmospheric aerosol nucleation. Science, 339, 943-946(2013).
[94] H Yu, S H Lee. Chemical ionisation mass spectrometry for the measurement of atmospheric amines. Environmental Chemistry, 9, 190-201(2012).
[95] Y You, V P Kanawade, J A De Gouw et al. Atmospheric amines and ammonia measured with a chemical ionization mass spectrometer (CIMS). Atmospheric Chemistry and Physics, 14, 12181-12194(2014).
[96] Y Tao, X N Ye, S Q Jiang et al. Effects of amines on particle growth observed in new particle formation events. Journal of Geophysical Research: Atmospheres, 121, 324-335(2016).
[97] R L Cai, C Yan, D S Yang et al. Sulfuric acid-amine nucleation in urban Beijing. Atmospheric Chemistry and Physics, 21, 2457-2468(2021).
[98] C J Deng, Y Y Fu, L Dada et al. Seasonal characteristics of new particle formation and growth in urban Beijing. Environmental Science & Technology, 54, 8547-8557(2020).
[99] X Fang, M Hu, D J Shang et al. Observational evidence for the involvement of dicarboxylic acids in particle nucleation. Environmental Science & Technology Letters, 7, 388-394(2020).
[100] R L Cai, R J Yin, C Yan et al. The missing base molecules in atmospheric acid-base nucleation. National Science Review, 9, 137(2022).
[101] V Loukonen, T Kurtén, I K Ortega et al. Enhancing effect of dimethylamine in sulfuric acid nucleation in the presence of water-a computational study. Atmospheric Chemistry and Physics, 10, 4961-4974(2010).
[102] D J Bustos, B Temelso, G C Shields. Hydration of the sulfuric acid-methylamine complex and implications for aerosol formation. The Journal of Physical Chemistry A, 118, 7430-7441(2014).
[103] A B Nadykto, F Q Yu, M V Jakovleva et al. Amines in the earth's atmosphere: A density functional theory study of the thermochemistry of pre-nucleation clusters. Entropy, 13, 554-569(2011).
[104] A B Nadykto, J Herb, F Q Yu et al. Estimating the lower limit of the impact of amines on nucleation in the earth's atmosphere. Entropy, 17, 2764-2780(2015).
[105] J Elm. Elucidating the limiting steps in sulfuric acid-base new particle formation. The Journal of Physical Chemistry A, 121, 8288-8295(2017).
[106] J Elm, C N Jen, T Kurtén et al. Strong hydrogen bonded molecular interactions between atmospheric diamines and sulfuric acid. The Journal of Physical Chemistry A, 120, 3693-3700(2016).
[107] J Elm, M Passananti, T Kurtén et al. Diamines can initiate new particle formation in the atmosphere. The Journal of Physical Chemistry A, 121, 6155-6164(2017).
[108] F F Ma, H B Xie, J Elm et al. Piperazine enhancing sulfuric acid-based new particle formation: Implications for the atmospheric fate of piperazine. Environmental Science & Technology, 53, 8785-8795(2019).
[109] H B Xie, J Elm, R Halonen et al. Atmospheric fate of monoethanolamine: Enhancing new particle formation of sulfuric acid as an important removal process. Environmental Science & Technology, 51, 8422-8431(2017).
[110] N Myllys. From Electronic Structures to Molecular-Level Cluster Formation Mechanisms in the Atmosphere(2017).
[111] B Temelso, E F Morrison, D L Speer et al. Effect of mixing ammonia and alkylamines on sulfate aerosol formation. The Journal of Physical Chemistry A, 122, 1612-1622(2018).
[112] Y Yang, S E Waller, J J Kreinbihl et al. Direct link between structure and hydration in ammonium and aminium bisulfate clusters implicated in atmospheric new particle formation. The Journal of Physical Chemistry Letters, 9, 5647-5652(2018).
[113] S E Waller, Y Yang, E Castracane et al. The interplay between hydrogen bonding and coulombic forces in determining the structure of sulfuric acid-amine clusters. The Journal of Physical Chemistry Letters, 9, 1216-1222(2018).
[114] N Myllys, J Kubečka, V Besel et al. Role of base strength, cluster structure and charge in sulfuric-acid-driven particle formation. Atmospheric Chemistry and Physics, 19, 9753-9768(2019).
[115] S Chee, K Barsanti, J N Smith et al. A predictive model for salt nanoparticle formation using heterodimer stability calculations. Atmospheric Chemistry and Physics, 21, 11637-11654(2021).
[116] M J McGrath, T Olenius, I K Ortega et al. Atmospheric Cluster Dynamics Code: A flexible method for solution of the birth-death equations. Atmospheric Chemistry and Physics, 12, 2345-2355(2012).
[117] F Q Yu, A B Nadykto, J Herb et al. H2SO4-H2O-NH3 ternary ion-mediated nucleation (TIMN): Kinetic-based model and comparison with CLOUD measurements. Atmospheric Chemistry and Physics, 18, 17451-17474(2018).
[118] A Kürten, C X Li, F Bianchi et al. New particle formation in the sulfuric acid-dimethylamine-water system: Reevaluation of CLOUD chamber measurements and comparison to an aerosol nucleation and growth model. Atmospheric Chemistry and Physics, 18, 845-863(2018).
[119] A Kürten. New particle formation from sulfuric acid and ammonia: Nucleation and growth model based on thermodynamics derived from CLOUD measurements for a wide range of conditions. Atmospheric Chemistry and Physics, 19, 5033-5050(2019).
[120] T Bergman, A Laaksonen, H Korhonen et al. Geographical and diurnal features of amine-enhanced boundary layer nucleation. Journal of Geophysical Research: Atmospheres, 120, 9606-9624(2015).
[121] S Myriokefalitakis, E Vignati, K Tsigaridis et al. Global modeling of the oceanic source of organic aerosols. Advances in Meteorology, 2010, 939171(2010).
[122] F Q Yu, G Luo. Modeling of gaseous methylamines in the global atmosphere: Impacts of oxidation and aerosol uptake. Atmospheric Chemistry and Physics, 14, 12455-12464(2014).
[123] C J Gaston, K A Pratt, X Y Qin et al. Real-time detection and mixing state of methanesulfonate in single particles at an inland urban location during a phytoplankton bloom. Environmental Science & Technology, 44, 1566-1572(2010).
[124] R J Hopkins, Y Desyaterik, A V Tivanski et al. Chemical speciation of sulfur in marine cloud droplets and particles: Analysis of individual particles from the marine boundary layer over the California Current. Journal of Geophysical Research: Atmospheres, 113, D04209(2008).
[125] V M Kerminen, M Aurela, R E Hillamo et al. Formation of particulate MSA: Deductions from size distribution measurements in the Finnish Arctic. Tellus B, 49, 159-171(1997).
[126] M C Facchini, S Decesari, M Rinaldi et al. Important source of marine secondary organic aerosol from biogenic amines. Environmental Science & Technology, 42, 9116-9121(2008).
[127] R Y W Chang, S J Sjostedt, J R Pierce et al. Relating atmospheric and oceanic DMS levels to particle nucleation events in the Canadian Arctic. Journal of Geophysical Research: Atmospheres, 116, D00-03(2011).
[128] M Karl, A Gross, C Leck et al. Intercomparison of dimethylsulfide oxidation mechanisms for the marine boundary layer: Gaseous and particulate sulfur constituents. Journal of Geophysical Research: Atmospheres, 112, D15304(2007).
[129] M L Dawson, M E Varner, V Perraud et al. Simplified mechanism for new particle formation from methanesulfonic acid, amines, and water via experiments and ab initio calculations. Proceedings of the National Academy of Sciences of the United States of America, 109, 18719-18724(2012).
[130] H H Chen, M J Ezell, K D Arquero et al. New particle formation and growth from methanesulfonic acid, trimethylamine and water. Physical Chemistry Chemical Physics, 17, 13699-13709(2015).
[131] H H Chen, B J Finlayson-Pitts. New particle formation from methanesulfonic acid and amines/ammonia as a function of temperature. Environmental Science & Technology, 51, 243-252(2017).
[132] H H Chen, M E Varner, R B Gerber et al. Reactions of methanesulfonic acid with amines and ammonia as a source of new particles in air. The Journal of Physical Chemistry B, 120, 1526-1536(2016).
[133] J Xu, V Perraud, B J Finlayson-Pitts et al. Uptake of water by an acid-base nanoparticle: Theoretical and experimental studies of the methanesulfonic acid-methylamine system. Physical Chemistry Chemical Physics, 20, 22249-22259(2018).
[134] J Xu, B J Finlayson-Pitts, R B Gerber. Proton transfer in mixed clusters of methanesulfonic acid, methylamine, and oxalic acid: Implications for atmospheric particle formation. The Journal of Physical Chemistry A, 121, 2377-2385(2017).
[135] K D Arquero, J Xu, R B Gerber et al. Particle formation and growth from oxalic acid, methanesulfonic acid, trimethylamine and water: A combined experimental and theoretical study. Physical Chemistry Chemical Physics, 19, 28286-28301(2017).
[136] J Xu, B J Finlayson-Pitts, R B Gerber. Nanoparticles grown from methanesulfonic acid and methylamine: microscopic structures and formation mechanism. Physical Chemistry Chemical Physics, 19, 31949-31957(2017).
[137] Y Liu, H B Xie, F F Ma et al. Amine-enhanced methanesulfonic acid-driven nucleation: Predictive model and cluster formation mechanism. Environmental Science & Technology, 56, 7751-7760(2022).
[138] J Elm. Clusteromics II: Methanesulfonic acid-base cluster formation. ACS Omega, 6, 17035-17044(2021).
[139] R J Zhang, J W Shen, H B Xie et al. The role of organic acids in new particle formation from methanesulfonic acid and methylamine. Atmospheric Chemistry and Physics, 22, 2639-2650(2022).
[140] C Y Wang, S Jiang, Y R Liu et al. Synergistic effect of ammonia and methylamine on nucleation in the earth's atmosphere. A theoretical study. The Journal of Physical Chemistry A, 122, 3470-3479(2018).
[141] Z Q Wang, Y R Liu, C Y Wang et al. The nucleation mechanism of succinic acid involved sulfuric acid-Dimethylamine in new particle formation. Atmospheric Environment, 263, 118683(2021).
[142] Z Q Wang, Y R Liu, C Y Wang et al. Multicomponent nucleation of malonic acid involved in the sulfuric acid - dimethylamine system and its atmospheric implications. Atmospheric Environment, 267, 118558(2021).
[143] Y Zhao, Y R Liu, S Jiang et al. Volatile organic compounds enhancing sulfuric acid-based ternary homogeneous nucleation: The important role of synergistic effect. Atmospheric Environment, 233, 117609(2020).
[144] J Elm, J Kubečka, V Besel et al. Modeling the formation and growth of atmospheric molecular clusters: A review. Journal of Aerosol Science, 149, 105621(2020).
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Jiao CHEN, Gen WANG, Xinxiu SUI, Feng XIE, Sen ZHAO. Research progress of mechanism of atmospheric aerosol nucleation promoted by organic amines[J]. Journal of Atmospheric and Environmental Optics, 2024, 19(2): 142
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Received: Jul. 31, 2022
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Published Online: Jun. 24, 2024
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