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Aalto PP, Kulmala M:
"Using a cloud condensation nuclei counter to study CCN properties and concentrations.",
Boreal Environmental Research 5 (4) : 349–359 (Dec 2000)


References included in article: 30 records found.

Order of appearence Full citation SRCosmos Link 
1Aalto P, Kulmala M,
1993. Building of a laminar flow diffusion chamber for the study of cloud condensation nuclei. Report Series in Aerosol Science 23: 199–203.
 
2Alofs DJ,
1978. Performance of a Dual-Range Cloud Nucleus Counter. J. App. Met. 17: 1286–1297.
 
3Brown-Jr JT, Schowengerdt FD,
1979. Analysis of a continous flow parallel plate thermal diffusion cloud chamber. J. Aerosol Sci. 10: 339–348.
 
4Charlson RJ, Schwartz SE, Hales JM, Cess RD, Coakley-Jr JA, Hansen JE, Hofmann DJ,
1992. Climate forcing by anthropogenic aerosols. Science 255:423–430.
 
5Chuang CC, Penner JE, Taylor KE, Grossman AS, Walton JJ,
1997. An assessment of the radiative effects of anthropogenic sulfate. J. Geophys. Res. 102:3761–3778.
 
6Curry JA,
1995. Interactions among aerosols, clouds and climate of the Artic Ocean. The Science of the Total Environment 160/161: 777–791.
 
7Hartmann DL, Doelling D,
1991. On the net radiative effectiveness of clouds. J. Geophys. Res. 96: 869–891.
 
8Haywood JM, Ramaswamy V,
1998. Global sensitivity studies of the direct radiative forcing due to anthropogenic sulfate and black carbon aerosols. J. Geophys. Res. 103: 6043–6058.
 
9Hudson JG, Squires P,
1976. An Improved Continuous Flow Diffusion Cloud Chamber. Journal of Applied Meteorology 15: 776–782
 
10Hudson JG,
1989. An Instantaneous CCN spectrometer. Journal of Atmospheric and Oceanic Technology 6:1055–1065.
 
11Kaufman YJ, Fraser RS,
1997. The effect of smoke particles on clouds and climate forcing. Science 277:1636–1639.
 
12Korhonen P, Kulmala M, Hansson HC, Svenningsson IB, Rusko N,
1996a. Hygroscopicity of pre-existing particle distribution and formation of cloud droplets: A model study. Atmospheric Research 41: 249–266.
 
13Korhonen P, Kulmala M, Vesala T,
1996b. Model simulation of the amount of soluble mass during cloud droplet formation. Atmos. Environ. 30: 1773–1785.
 
14Kulmala M, Laaksonen A, Korhonen P, Vesala T, Ahonen T, Barrett JC,
1993. The effect of atmospheric nitric acid vapour on cloud condensation nucleus activation. J. Geophys. Res. 98: 22949–22958.
 
15Kulmala M, Korhonen P, Vesala T, Hansson HC, Noone K, Svenningsson B,
1996. The effect of hygroscopicity on cloud droplet formation. Tellus 48B:347–360.
 
16Kulmala M, Laaksonen A, Charlson RJ, Korhonen P,
1997. Cloud without supersaturation. Nature 388: 336–337.
 
17Kulmala M, Hameri K, Makela JM, Aalto PP, Pirjola L, Vakeva M, Nilsson ED, Koponen IK, Buzorius G, Keronen P, Rannik U, Laakso L, Vesala T, Bigg K, Seidl W, Forkel R, Hoffmann T, Spanke J, Jansson R, Shimmo M, Hansson HC, O-Dowd C, Becker E, Paatero J, Teinila K, Hillamo R, Viisanen Y, Laaksonen A, Swietlicki E, Saalm J, Hari P, Altimir N,
2000. Biogenic aerosol formation in the boreal forest. Boreal Env. Res. 5: XX–XX.
SRCosmos
18Laaksonen A, Korhonen P, Kulmala M, Charlson RJ,
1998. Modification of the Kohler Equation to Include Soluble Trace Gases and Slightly Soluble Substances. J. Atmos. Sci. 55: 853–862.
 
19Laktionov AG,
1972. A Constant Temperature Method of determining the Concentrations of Cloud Condensation Nuclei. Izv. Atmospheric and Oceanic Physics 8: 672–677.
 
20Leaitch R, Megaw WJ,
1982. The diffusion tube: a Cloud Condensation Nucleus Counter for use below 0.3% supersaturation. J. Aerosol Sci. 13: 297–319.
 
21Raes F, Bates T, Mcgovern F, Van-Liedekerke M,
2000. The 2nd aerosol characterization experiment (ACE-2): general overview and main results. Tellus 52B: 111–125.
 
22Seinfeld JH, Pandis SN,
1998. Atmospheric chemistry and physics: from air pollution to climate change, A Wiley-Interscience publication, USA, 1326 pp.
 
23Sokolik IN, Toon OB,
1996. Direct radiative forcing by anthropogenic airborne mineral aerosols. Nature 381:681–683.
 
24Svenningsson IB, Hansson HC, Wiedensohler A, Ogren JA, Noone KJ, Hallberg A,
1992. Hygroscopic growth of aerosol particles in the Po-valley. Tellus 44B:556–569.
 
25Svenningsson IB, Hansson HC, Wiedensohler A, Noone KJ, Ogren J, Hallberg A, Colvile R,
1994. Hygroscopic growth of aerosol particles and its influence on nucleation scavenging in cloud: experimental results from Kleiner Feldberg. J. Atmos. Chem. 19: 129–152.
 
26Swietlicki E, Zhou J, Covert DS, Hameri K, Busch B, Vakeva M, Dusek U, Berg OH, Wiedensohler A, Aalto P, Makela J, Martinsson BG, Papaspiropulos G, Mentes B, Frank G, Sratmann F,
2000. Hygroscopic prperties of aerosol particles in the northeastern Atlantic during ACE-2. Tellus 52B: 201–227.
 
27Twomey S,
1963. Measurements of natural cloud nuclei. Journal de Recherches Atmosphiriques 1: 101–105
 
28Twomey S,
1977. The influence of pollution on the shortwave albedo of clouds. J. Atmos. Sci. 34: 1149–1152.
 
29Winter B, Chylek P,
1997. Contribution of sea salt aerosol to the planetary clear-sky albedo. Tellus 49B: 72–79.
 
30Zhang XQ, Mcmurry PH, Hering SV, Casuccio GS,
1993. Mixing characteristics and water content of submicron aerosols measured in Los Angles and at the Grand Canyon. Atmos. Environ. 27A: 1593–1608.