Matches in SemOpenAlex for { <https://semopenalex.org/work/W1998914891> ?p ?o ?g. }
- W1998914891 abstract "[1] An aerosol optical closure study was performed using the observed high time- and size-resolved soot mixing states determined by a Volatility Tandem Differential Mobility Analyzer (VTDMA) at a polluted regional site, Yufa, in the south of Beijing during the summer of 2006. Good agreement was found between the simulated and measured aerosol absorption (σap, R = 0.9) and scattering (σsp, R ≥ 0.95). The soot mixing state at Yufa can be generally determined by VTDMA, in terms of properly predicting the σap using a simple optical model combined with spherical homogeneous and core-shell coated Mie codes. The possible uncertainties in the modeled σap were discussed. Rapid soot aging was observed, which led to large variations in the fractional contributions to σap by externally mixed and coated soot. On average, about 37% of the σap (∼10–60%) arose by the coated soot. The coating enhancement in σap and σsp of the coated soot can reach up to a factor of 8–10 within several hours owing to the secondary processing during daytime. It was contributed not only by the increased thickness of coating shell, but also the transition of soot from externally mixed to coated one. Hence, assuming constant soot mixing state for the regional climate model is not realistic and may lead to uncertainties. In the highly polluted region in northeastern China, the aerosol single scattering albedo may increase very fast owing to the rapid secondary particle formation and condensation (up to 0.90–0.95). This increase took place although the concurrent coating processing enhanced the light absorption capability of soot." @default.
- W1998914891 created "2016-06-24" @default.
- W1998914891 creator A5021112220 @default.
- W1998914891 creator A5023907818 @default.
- W1998914891 creator A5026304853 @default.
- W1998914891 creator A5035606234 @default.
- W1998914891 creator A5045617018 @default.
- W1998914891 creator A5045647259 @default.
- W1998914891 creator A5052166339 @default.
- W1998914891 creator A5057359066 @default.
- W1998914891 creator A5062393196 @default.
- W1998914891 creator A5067021502 @default.
- W1998914891 creator A5079221039 @default.
- W1998914891 creator A5080041548 @default.
- W1998914891 creator A5085384616 @default.
- W1998914891 creator A5091126537 @default.
- W1998914891 date "2009-06-06" @default.
- W1998914891 modified "2023-10-13" @default.
- W1998914891 title "Influence of soot mixing state on aerosol light absorption and single scattering albedo during air mass aging at a polluted regional site in northeastern China" @default.
- W1998914891 cites W1560749659 @default.
- W1998914891 cites W1672766972 @default.
- W1998914891 cites W1966085628 @default.
- W1998914891 cites W1971238777 @default.
- W1998914891 cites W1971641092 @default.
- W1998914891 cites W1972151806 @default.
- W1998914891 cites W1972989419 @default.
- W1998914891 cites W1973785587 @default.
- W1998914891 cites W1975439410 @default.
- W1998914891 cites W1977252578 @default.
- W1998914891 cites W1977702720 @default.
- W1998914891 cites W1981719480 @default.
- W1998914891 cites W1982172802 @default.
- W1998914891 cites W1982208287 @default.
- W1998914891 cites W1983175659 @default.
- W1998914891 cites W1987375879 @default.
- W1998914891 cites W1988021838 @default.
- W1998914891 cites W1989913777 @default.
- W1998914891 cites W1991321472 @default.
- W1998914891 cites W1993138195 @default.
- W1998914891 cites W1993602674 @default.
- W1998914891 cites W1996488940 @default.
- W1998914891 cites W1997280005 @default.
- W1998914891 cites W1997289136 @default.
- W1998914891 cites W1997573858 @default.
- W1998914891 cites W1998080930 @default.
- W1998914891 cites W1999596703 @default.
- W1998914891 cites W2002743879 @default.
- W1998914891 cites W2007841777 @default.
- W1998914891 cites W2010003285 @default.
- W1998914891 cites W2010588978 @default.
- W1998914891 cites W2010668724 @default.
- W1998914891 cites W2014794419 @default.
- W1998914891 cites W2018680235 @default.
- W1998914891 cites W2021606238 @default.
- W1998914891 cites W2022904453 @default.
- W1998914891 cites W2025194650 @default.
- W1998914891 cites W2026266406 @default.
- W1998914891 cites W2028149424 @default.
- W1998914891 cites W2028999185 @default.
- W1998914891 cites W2029896116 @default.
- W1998914891 cites W2031921063 @default.
- W1998914891 cites W2033501581 @default.
- W1998914891 cites W2034267278 @default.
- W1998914891 cites W2036180834 @default.
- W1998914891 cites W2039727323 @default.
- W1998914891 cites W2042504647 @default.
- W1998914891 cites W2044141801 @default.
- W1998914891 cites W2044582584 @default.
- W1998914891 cites W2045500525 @default.
- W1998914891 cites W2046351356 @default.
- W1998914891 cites W2048322876 @default.
- W1998914891 cites W2049001489 @default.
- W1998914891 cites W2049991075 @default.
- W1998914891 cites W2050557673 @default.
- W1998914891 cites W2051534002 @default.
- W1998914891 cites W2053651823 @default.
- W1998914891 cites W2054799169 @default.
- W1998914891 cites W2055902907 @default.
- W1998914891 cites W2058400908 @default.
- W1998914891 cites W2059202413 @default.
- W1998914891 cites W2063087184 @default.
- W1998914891 cites W2063196138 @default.
- W1998914891 cites W2065953131 @default.
- W1998914891 cites W2067131914 @default.
- W1998914891 cites W2067324806 @default.
- W1998914891 cites W2069580129 @default.
- W1998914891 cites W2069962980 @default.
- W1998914891 cites W2071823046 @default.
- W1998914891 cites W2074568061 @default.
- W1998914891 cites W2074891151 @default.
- W1998914891 cites W2075489374 @default.
- W1998914891 cites W2083441060 @default.
- W1998914891 cites W2083857688 @default.
- W1998914891 cites W2087648208 @default.
- W1998914891 cites W2089307597 @default.
- W1998914891 cites W2090127491 @default.
- W1998914891 cites W2091308375 @default.
- W1998914891 cites W2093941112 @default.
- W1998914891 cites W2096477182 @default.
- W1998914891 cites W2101623331 @default.