Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/5091
標題: 奈米乳化液與奈米氧化鐵對底泥中多氯聯苯生物降解之影響探討
Influence of Nanoemulsion and Magnetite Nanoparticle on Biodegradation of Polychlorinated Biphenyls in a Simulated River Sediment
作者: 江蓬鈺
Chiang, Peng-Yu
關鍵字: Polychlorinated biphenyls;多氯聯苯;Aroclor 1242;Sediment;Dechlorination;Oxidative degradation;Nanoemulsion;Magnetite nanoparticle;Aroclor 1242;底泥;厭氧脫氯;好氧分解;奈米乳化液;奈米氧化鐵
出版社: 環境工程學系所
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摘要: 
多氯聯苯為具有數個氯原子之聯苯分子,具有絕佳熱傳導性、電絕緣性,大量用於製造變電箱、電容器、油漆及油墨等。但因親脂性高、物化性穩定,一旦散佈到自然環境中易累積於土壤與底泥中,甚至藉由食物鏈逐漸累積於生物體乃至於人體內,持久存在於環境中、於生物體內代謝緩慢;且將使皮膚病變、損害神經系統與免疫系統,為疑似致癌物。以我國污染最為嚴重之一的二仁溪為例,其河床底泥中含高量多氯聯苯且高於管制上限,急需進行整治。生物降解法可分為厭氧性或好氧性生物降解法,雖二仁溪底泥中多氯聯苯可由生物降解處理,但底泥中同時含有高量足以影響生物代謝作用之重金屬,故降解多氯聯苯的同時須防止重金屬對生物降解的影響。基於以上污染特性,本研究於自行模擬配製之二仁溪底泥中,添加奈米乳化液與奈米氧化鐵,以探討厭氧與好氧下奈米乳化液提升脫氯效果之可行性並探討預計作為重金屬吸附劑之奈米氧化鐵對於好氧分解、厭氧脫除多氯聯苯之影響。研究結果顯示無添加奈米乳化液與奈米氧化鐵時好氧降解Aroclor 1242優於厭氧脫氯之效果;當已含有碳源時添加奈米乳化液可提升厭氧脫氯作用之效率,但產氣量將隨添加量增加而下降,且添加低量奈米氧化鐵亦有助於還原脫氯。於好氧環境下添加奈米乳化液將降低好氧分解效果,而添加奈米氧化鐵則不影響分解效果。整體而言,於相同操作條件下最佳Aroclor 1242 處理環境為靜置。

Polychlorinated biphenyls (PCBs) are a family of biphenyl molecule compounds which pick of several chlorine atoms. Because of their excellent thermal conductivity, electrical insulation, PCBs are used extensively for the industrial manufacture of transformer boxes, capacitors, paints and inks. Because of the high lipophilicity, and the physical and chemical stability, PCBs is easy to accumulate in the soil, sediment, and even through the food chain accumulate in higher organisms as well as in the human body. And PCBs are also highly resistant to degradation in nature and metabolize slowly in organisms. If they enter into human body could lead to skin disease, and damage to the nervous system and immune system, also carcinogenic. For example, to one of Taiwan''s most polluted Er-Ren river, the sediment in the Taiwan''s most polluted Er-Ren river contain high levels of PCBs above the regulatory limit and in urgent to regulate. There are two biologically processes which could degrade PCBs effective in sediment: anaerobic reductive dechlorination and aerobic oxidative degradation. These processes have been used to for several years, but the biodegradation time was needed. However, the sediment in the Er-Ren river also contain high levels of heavy metal which could reduction the biodegradation of PCBs. Based on the above characteristics of pollution, this study will try to add nanoemulsion to increase the efficiency of biodegradation in simulation sediment content Aroclor 1242 (one commodity of PCBs), and also add magnetite nanoparticle which be report could adsorb heavy metal to identify the influence for biodegradation.
The result show that the efficiency of aerobic biodegradation is better than anaerobic biodegradation without adding nanoemulsion and magnetite nanoparticle. When adding few amount (0.1%) of nanoemulsion into the sediment contented yeast extract under the anaerobic condition could increase the efficiency of anaerobic reductive dechlorination, but will product a little of gas volume with adding high amount of nanoemulsion (10%). Adding few amount (20 mg L-1) of magnetite nanoparticle also could increase the efficiency of anaerobic reductive dechlorination. However, adding nanoemulsion will reduce the efficiency of aerobic oxidative degradation, and magnetite nanoparticle will not change the efficiency. Furthermore, under the same additional amount of nanoemulsion and magnetite nanoparticle the best condition to degrade Aroclor 1242 is standing environment.
URI: http://hdl.handle.net/11455/5091
其他識別: U0005-2807201110504400
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