Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/92122
標題: 台灣西南海域深海底泥Methanoculleus及Methanosarcina之純化與特性分析
Isolation and Characterization of Methanoculleus and Methanosarcina from deep sea marine sediment offshore SW of Taiwan
作者: Chieh-Yin Weng
翁杰愔
關鍵字: 甲烷太古生物;台灣西南海域;變形前緣區;甲烷水合物;Methanogen;gas hydrate;Taiwan;deformation front
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摘要: 
Taiwan is situated on the boundary separating the Eurasian plate to the west from the Philippine Sea Plate to the east. There were complex landforms from SW of Taiwan, such as ridges, mud volcanos, cold seeps and gas hydrate bearing regions. The isotopic data from Prof. Tsan-Yao Yang's lab was suggested that most of the methane produced in Taiwan methane hydrate potential area is biogenic origin. To explore the methanogens at methane seeps or hydrate habitats, sediment samples obtained from piston core at Tainan Ridge, Good Weather Ridge, 96 Mud Volcano and Deformation Front by ORI (Ocean Reasearch I) cruises were enriched anaerobically. After anaerobic enrichment and serial sub-transfer, Methanoculleus sp. S3Fa from 96 Mud Volcano Groups was purified and characterized by MS Mei-Fei Chen. The 16S rRNA sequence of strain S3Fa showed 99% similarity with deep sea gas hydrate isolate Methanoculleus submarinus. Similar isolation methods were used in this study, three strains CYW1, CYW2 and CYW3, were purified from Deformation Front, Tainan Ridge and Good Weather Ridge, respectively. The 16S rRNA sequence of three strains showed 99% similarity with Methanosarcina mazei Go1. The whole-cell protein profile of strain CYW1, CYW2 and CYW3 are identical with M. mazei N2M9705. The irregular cocci cells of Methanoclleus sp. CYW4 was isolated from Defromation Front and showed 96-97% similarity with genus Methanoculleus. Strain CYW4 used H2 plus CO2 or formate as catabolic substrates. The optimum growth condition was 37°C, pH 8.02 and 0.08 M NaCl. The result showed that strain CYW4 was the novel new species and might be the new clade in genus Methanoculleus. It is expected that these methanogens isolated from methane seep and gas hydrate potential bearing regions contribute to the methane hydrate formation.

台灣受到菲律賓海板塊及歐亞大陸板塊擠壓碰撞,造成廣大的增積岩體與台灣造山帶,使得台灣西南海域地形結構含有海脊、海底泥火山、冷泉、甲烷水合物賦存區等特殊地理環境。台大地質系楊燦堯教授實驗室以同位素研究顯示甲烷大多屬於生物性來源,應是甲烷太古生物甲烷化作用的產物。為了瞭解海洋底泥或甲烷水合物區的甲烷太古生物多樣性,藉由分離純化甲烷太古生物並與已知序列做比較分析,以探討台灣西南海域的甲烷太古生物相。2008-2011年間,以海洋研究船(Ocean Reasearch I, ORI)於台南海脊、好景海脊、96泥火山群及變形前緣區取出活塞岩心樣品。經過增殖培養及連續稀釋法後,陳眉霏碩士在96泥火山群分離純化出Methanoculleus sp. S3Fa,經由親緣關係比對,發現與天然氣水合物棲地純化的Methanoculleus submarinus有99%相似度。本研究以類似的增殖方法,分別自變形前緣區、台南海脊及好景海脊的活塞岩心底泥樣品純化出Methanosarcina mazei CYW1、CYW2及CYW3,經由親緣關係比對,菌株CYW1、CYW2及CYW3與Methanosarcina mazei Go1有99-100%相似度,能利用甲醇為碳源,且在全細胞蛋白質分析表現與M. mazei N2M9705非常相近。自變形前緣區的活塞岩心底泥樣品純化出Methanoculleus sp. CYW4,菌株CYW4與Methanoculleus屬有96-97%相似度,在生理特性分析方面,能利用甲酸及H2/CO2為甲烷生成之基質,最適生長溫度、鹽度及pH分別為37°C、0.08 M及pH 8.02,為新型的甲烷太古生物。M. mazei廣泛存在於各種環境中,可能在各種環境有良好的適應能力。由於處於特殊地理環境,菌株CYW4在Methanoculleus菌群當中獨立於另一分支,這些結果顯示已純化的甲烷菌株在台灣西南海域中對甲烷生成扮演著重要地位,進一步了解台灣西南海域海底底泥可能參與甲烷生成的甲烷太古生物,並可增加微生物資料庫,對於未來甲烷水合物的開採利用及甲烷資源的開發值得更進一步探討。
URI: http://hdl.handle.net/11455/92122
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