Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/28133
標題: 經由不完全燃燒所產生之碳微粒吸附有機化合物之研究
Sorption study of organic compounds on pyrogenic carbon particles
作者: 蘇博信
Su, Po-Hsin
關鍵字: 黑碳,吸附,有機化合物
black carbons,sorption,organic compounds
出版社: 土壤環境科學系所
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摘要: Pyrogenic carbon particles such as carbon black, soot and charcoal et al., collectively termed black carbon (BC), have been reported to exhibit an extremely strong sorption of organic compounds in the environment. The sorption process dominated the fate and transport of organic contaminants in the soil and sediment environments. This study aims to analyse the characterization of black carbon and study the sorption behaviors and sorption mechanisms of several organic compounds in these black carbons in an aqueous phase. The results demonstrate that produced process and starting material are potential factors that can explain the sorptive variability of black carbons. Sorption kinetics of organic contaminants into black carbons revealed that around several hours were enough to reach sorption equilibrium. Sorption isotherms of organic compounds can be described by sorion models including linear equation, Freundlich equation, and Langmuir equation. The results showed that use Freundlich equation can describe the sorption of organic compounds on black carbon form aqueous solutions well. The surface properties of black carbons controlled by their production conditions and depend on their starting material. Because of the surface area of BC1 is more than BC3 and BC4, the sorption coefficients of aromatic compounds without functional groups on BC1 were larger than those on BC3 and BC4. Sorption behaviors of black carbons were affected by functional groups, so sorption capacity of aromatic compounds with functional groups on BC4 is more than BC3 due to more functional groups observed on BC 3. The surface properties of these pyrogenic carbon particles such as surface area and functional groups affected the sorption behaviors of these compounds. The sorption coefficients of organic compounds including polar and non-polar chemicals on black carbons have been obtained via a reversed-phase liquid chromatography (RP-LC) method. Because of the surface area of BC1 is more than the other black carbons, the sorption coefficients of organic chemicals on BC1 were larger than those on the other four black carbons. The effect of sorption behaviors on black carbons also depended suface functional groups, so sorption of aromatic compounds with functional groups on BC3 is larger than that of BC4. Five black carbons have mostly non-polar surface, the observed sorption coefficients of organic compounds on black carbons increased with their octanol-water partition coefficient values (Kow). The results obtained that sorption coefficients of chloroethylenes and chlorophenols on the black carbons became larger with more chloro atoms on the molecular structures of chloroethylenes and chlorophenols and larger with more carbon atoms on the benzene compounds. By the regression of the sorption coefficients of organic compounds on these black carbons with the properties of organic compounds, several linear solvation energy relationship (LSER) equations were built. The analysis of the interactions based on these LSERs indicated that the London dispersion force and interaction through π- and n- elactrons were the major adsorption interaction in the sorption process on black carbons. The effects of the dipolarity / polarisability, the hydrogen bond acidity, and the hydrogen bond basicity were less. For selected organic chemicals, some specific interactions occur during the sorption process. Several LSERs equations were developed to facilitate the prediction of different organic chemicals on black carbons. The better understanding of the sorption behaviors of organic chemicals into pyrogenic carbon particles can facilitate the fate transport and risk assessment processes of contaminants in the environment.
經由不完成燃燒所生成之碳微粒,包括黑碳、soot及charcoal等,總稱為黑碳(black carbon 或 BC),許多文獻指出當黑碳存在於環境中時,對於有機化合物具高吸附能力,而黑碳之吸附能力將對於有機化合物之宿命扮演重要之角色。本研究之目的為分析黑碳之基本性質及探討水溶液中黑碳對於有機化合物之吸附行為,並說明黑碳對於有機化合物之吸附機制。由分析資料得知,由於生成黑碳之起始物質及生成條件,所生成之黑碳基本性質也有所不同,而對於有機化合物之吸附造成重要之影響。 黑碳吸附有機化合物之等溫吸附曲線可用等溫吸附模式加以描述之,所使用之吸附模式包括線性模式,Freundlich模式,及Langmuir模式,而使用Freundlich模式對於黑碳吸附有機化合物有較佳之描述。由於BC1之比表面積較大,可吸附較多之有機化合物,故所求得之BC1吸附未含官能基之苯環化合物之吸附平衡常數較BC3及BC4大,而吸附行為也受官能基影響,使得BC3對於含官能基有機化合物之吸附能力大於BC4。經由不完全燃燒之碳微粒所生成之表面特性如比表面積及官能基等會影響黑碳吸附有機化合物之能力。 利用逆相液相層析法求得黑碳對於極性及非極性有機化合物之吸附平衡常數。由研究得知,BC1吸附有機化合物之吸附平衡常數較其他四種黑碳之吸附平衡常數大;這是由於黑碳之比表面積較大,故黑碳表面可吸附較多之有機化合物。而由於BC3對於含官能基有機化合物之吸附能力大於BC4,說明官能基也會對於黑碳在低濃度範圍下之吸附行為造成影響。而由於黑碳具有非極性表面,求得之吸附平衡常數隨著辛醇-水系數(Kow)增加而增加,顯示黑碳對於氯烯類及氯酚類有機化合物之吸附平衡常數皆有隨著含氯數增加而增加的趨勢。 而利用所得之吸附平衡常數與LSER參數將建立線性溶合能量關係式(LSER;linear solvation energy relationship),結果得知黑碳與有機化合物之間的主要作用力為倫敦分散力及π電子或未共用電子對之吸附作用力,而偶極-偶極或偶極-誘導偶極作用力及氫鍵作用力則對於吸附影響較小。而由於有機化合物之不同,黑碳所提供之吸附能力也有所不同。經由不完全燃燒所產生之碳微粒吸附有機化合物之了解,將可加以說明當含碳物質存在於自然界時,環境中有機汙染物之宿命及傳輸分布情形。
URI: http://hdl.handle.net/11455/28133
其他識別: U0005-2108200817154700
文章連結: http://www.airitilibrary.com/Publication/alDetailedMesh1?DocID=U0005-2108200817154700
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