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論文名稱 Title |
鹹水型紅樹林人工濕地各處理單元菌相之分析研究 Analysis of bacterial communities in different treatment components for salt water type mangrove constructed wetland |
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系所名稱 Department |
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畢業學年期 Year, semester |
語文別 Language |
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學位類別 Degree |
頁數 Number of pages |
140 |
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研究生 Author |
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指導教授 Advisor |
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召集委員 Convenor |
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口試委員 Advisory Committee |
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口試日期 Date of Exam |
2017-12-08 |
繳交日期 Date of Submission |
2017-12-12 |
關鍵字 Keywords |
大鵬灣、環境微生物、人工濕地、菌相、DGGE environmental bactrium, Dapeng Bay, constructed wetland, bacterial communities, DGGE |
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統計 Statistics |
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中文摘要 |
本研究為瞭解沿岸鹹水的人工濕地菌相四季的變化和差異,透過定序了解其中菌種並找出其與環境變化之關係。採樣地點位於屏東縣大鵬灣的紅樹林濕地和大潭濕地的西進水口、淺水池和深水池。分別採集秋、冬、春和夏的水及土壤。微生物的基因經萃取、純化後,進行聚合酶鍊鎖反應(PCR)、(Denaturing gradient gel electrophoresis,DGGE),再藉由Quantity One的UPGMA方法,分析菌相相似度。將冬季樣品中不同菌種之基因分離後進行基因定序,再與NCBI上的資料庫做比對。水樣的水質檢測項目包含:pH、溶氧、BOD、硝酸鹽、亞硝酸鹽、氨氮及硫酸鹽;空氣的檢測項目包含氧化亞氮及甲烷。結果顯示四季菌相的變化可做為水質穩定的參考指標之一。各紅樹林濕地菌相優勢族群的豐富度較大潭濕地為高,而紅樹林濕地對於水體中汙染物之處理效果亦顯示較好。冬季的水樣中,紅樹林濕地的菌種有:Roseobactor sp.、Maribacter sp.、Desulfocapsa sp.、Desulfatibacillum sp.及Sulfitobacter sp.;而於紅樹林濕地土壤中優勢族群則包含:Roseobacter sp.、Loktanella sp.、Sulfitobacter sp.及Alkalimonas collagenimarina 。大潭濕地西進水的優勢菌種皆為未鑑定出之菌種。大潭濕地淺水池的優勢菌種則包含:Roseobacter sp.、Sulfitobacter sp.、Roseivivax lentus 、Cyanobium sp.及Synechococcus sp.;大潭濕地淺水池土壤中優勢族群則包含:Thioalkalivibrio sp.及Marinobacter sp.。大潭濕地深水池水中的優勢族群包含: Vibrio sp.等;大潭濕地深水池土壤中優勢族群則包含有:Marinomonas sp.與Photobacterium sp.。由大潭濕地各處理單元內鑑定之菌種推論水質狀況,皆可透過水中溶氧和水質檢測項目驗證之。由於在大潭濕地淺水池之沉積土樣中鑑定到Marinobacter sp.,因此推估於該地區內之濕地沉積土讓內有可能含錳及砷,但仍需透過化學分析驗證之。 |
Abstract |
The aim of this study is to exam the seasonal variation of bacterial communities among the coastal salt wetlands. The variations and relations between bacterial communities and water quality were evaluated by identifying bacteria species and the level of chemicals in the water. The water and soil samples were collected at the mangrove forest wetland, and the west inlet, the shallow, the deep area in Datan wetland in Pintung. The bacterial genes in the water and the soil were extracted and purified before they were amplified by polymerase chain reactions. The genes were sepreated by denatureing gradient gel electrophoresis (DGGE), and the smililaritied on the images of DGGE were analyzed by program UPGMA which is in the software, Quantity One.The sequenced sepecies were analyzed with BLAST on NCBI website to find the identified species. The items of water quality included pH, dissolved oxygen, BOD, nitite, nitrate, ammonia, and sulfate. The results of similarities of bacterial communities indicated that the bacterial communities in spring and winter were similar in most of the components of wetlands, except the deep area in Datan wetland. During the winter, the bacterial diversity in mangrove forest wetland was higher than the one in Datan wetland, which means that the mangrove forest weland had better capability of degrading pollutants. Durinig winter, the dominant bacterium included Roseobactor sp., Maribacter sp., Desulfocapsa sp., Desulfatibacillum sp., and Sulfitobacter sp. in water; the ones included Roseobacter sp., Loktanella sp., Sulfitobacter sp., and Alkalimonas collagenimarina in soil in forest wetland. The dominat bacterium were unidentified species in both soil and water in west inlet in Datan. The dominat bacterium were consisted of Roseobacter sp., Sulfitobacter sp. , Roseivivax lentus , Cyanobium sp., and Synechococcus sp. in water; Thioalkalivibrio sp. and Marinobacter sp. in soil in the shallow water area in Datan weland. The dominat baterium contained Vibrio sp.. in the water; Thioalkalivibrio sp. and Marinobacter sp in the soil in the deep water area in Datan wetland. The identified bacterila species are helpful to infer the results of water quility, and the results of water quility can verify the most of the inferences. Marinobacter sp., species which is capable of oxidizing As(III) and Mn(II), existed in the soil in the west inlet area and the shallow water area in Dantan wetland, speculating that the soil might contain As(III) and Mn(II). |
目次 Table of Contents |
論文審定書........................................................................i 誌謝........................................................................ ii 中文摘要........................................................................ iii Abstract........................................................................ iv 第一章 前言........................................................................1 1.1 研究動機........................................................................1 1.2 研究目的........................................................................2 第二章 文獻回顧........................................................................3 2.1 濕地之定義........................................................................3 2.2 人工濕地........................................................................4 2.3 人工濕地氮去除機制........................................................................5 2.3.1氨化作用(Ammonification)........................................................................6 2.3.2硝化作用(Nitrification)........................................................................6 2.3.3脫硝作用(Denitrification)........................................................................7 2.3.4厭氧氨氧化作用(Anammox)........................................................................9 2.3.5植物吸收(Plant uptake)........................................................................9 2.3 人工濕地去硫機制........................................................................9 2.4 微生物定義........................................................................10 2.5分子生物學監測技術........................................................................11 2.5.1 16s rDNA........................................................................11 2.5.2 PCR-DGGE........................................................................12 第三章 研究方法........................................................................14 3.1 研究場址及採樣時間........................................................................14 3.1.1大潭濕地生態公園........................................................................14 3.1.2紅樹林復育濕地公園........................................................................16 3.1.3採樣時間........................................................................16 3.2 樣品採及、保存與分析方法........................................................................18 3.2.1土壤........................................................................18 3.2.2 水........................................................................18 3.2.3 空氣........................................................................20 3.3 微生物的genomic DNA萃取、純化........................................................................21 3.4 PCR-DGGE 分析菌相........................................................................23 3.4.1 聚合酶連鎖反應(PCR)........................................................................23 3.4.2 變性梯度膠體電泳(DGGE)........................................................................24 3.4.3 DNA膠體圖譜分析........................................................................26 3.5 菌種鑑定與分析........................................................................27 3.5.1 聚合酶鏈鎖反應(PCR)........................................................................28 3.5.2 PCR產物回收........................................................................28 3.5.3 Ligation........................................................................28 3.5.4 Transformation........................................................................29 3.5.5 藍白菌落篩選........................................................................29 3.5.6 定序比對分析........................................................................30 第四章 結果與討論........................................................................31 4.1 水質檢測結果........................................................................31 4.1.1 四季各地點水質項目結果........................................................................31 4.1.2 冬季水質檢測結果........................................................................37 4.2 氣體檢測結果........................................................................40 4.2.1 各季節各地點水表之氧化亞氮濃度........................................................................40 4.2.2 冬季各地點水表之氧化亞氮濃度........................................................................41 4.2.3 冬季各地點水表之甲烷濃度........................................................................42 4.3 菌相結果........................................................................43 4.3.1四季的各地點菌相比較........................................................................43 4.3.2 各地點的四季菌相變化........................................................................49 4.3.3 冬季樣品DGGE分析結果........................................................................55 4.4 優勢族群與環境因子........................................................................63 4.4.1紅樹林濕地........................................................................63 4.4.2大潭濕地........................................................................63 第五章 結論........................................................................67 研究結果........................................................................67 研究限制、建議........................................................................68 參考文獻........................................................................69 附錄........................................................................84 |
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