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博碩士論文 etd-0620116-151829 詳細資訊
Title page for etd-0620116-151829
論文名稱
Title
西北太平洋飛魚的系統分類與族群遺傳
Systematics and Population Genetics of Flyingfishes (Teleostei: Exocoetidae) in the Northwestern Pacific Ocean
系所名稱
Department
畢業學年期
Year, semester
語文別
Language
學位類別
Degree
頁數
Number of pages
117
研究生
Author
指導教授
Advisor
召集委員
Convenor
口試委員
Advisory Committee
口試日期
Date of Exam
2016-06-08
繳交日期
Date of Submission
2016-07-20
關鍵字
Keywords
粒線體DNA、親緣關係、尖頭細身飛魚、唇鬚飛魚亞科、族群遺傳
population genetics, Cypselurinae, Hirundichthys oxycephalus, phylogeny, mitochondrial DNA
統計
Statistics
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The thesis/dissertation has been browsed 5725 times, has been downloaded 43 times.
中文摘要
飛魚科(Exocoetidae)分佈在熱帶及溫暖的水域,在西北太平的飛魚有四亞科六屬35種。然而,擁有四屬及最多物種的唇鬚飛魚亞科(Cypselurinae)的親緣關係中仍有不同的推論。並且在西北太平洋針對飛魚的族群遺傳研究仍相當缺乏。本論文的目的,第一是用形態及兩段粒線體DNA序列建構西北太平洋飛魚的親緣關係;第二是使用全部粒線體序列來建構唇鬚飛魚亞科的親緣關係;第三是利用一段粒線體DNA序列研究西北太平洋尖頭細身飛魚(Hirundichthys oxycephalus)的族群遺傳結構。目前為止,研究共蒐集到六屬32種的飛魚。使用22個形態特徵建構的親緣關係樹顯示飛魚科及三個亞科都是單系群。在唇鬚飛魚亞科中,細身飛魚屬(Hirundichthys)是位於最基部的支系,而另外唇鬚飛魚屬(Cheilopogon)、斑鰭飛魚屬(Cypselurus) 及原飛魚屬(Prognichthys)則呈現多分岔的支系,並不能解決三屬的關係。分子部份共定序了67個樣本使用了1637 bp包含COI (615 bp)及Cytb (1022 bp)序列。分子親緣關係支持飛魚科及三個亞科也都是單系群。而細身飛魚屬與唇鬚飛魚屬、斑鰭飛魚屬及原飛魚屬可區分開來。唇鬚飛魚屬是旁系群且切分成三個支系。原飛魚屬及斑鰭飛魚屬則形成姊妹群並靠近唇鬚飛魚屬的第三支系。根據分子的結果,唇鬚飛魚屬的三個支系對應到五個亞屬,而新的分類可能需要被提出。本論文使用次世代定序成功完整地定序出白鰭飛魚(Cheilopogon unicolor)、弓頭飛魚(Ch. arcticeps)及紅斑鰭飛魚(Ch. atrisignis)的全部粒線體序列。而透過Primer walkimg方法部份定序出阿戈飛魚(Ch. agoo)、黑鰭飛魚(Ch. cyanopterus)、短鰭原飛魚(Pr. brevipinnis)及尖頭細身飛魚(Hi. oxycephalus)的粒線體序列。唇鬚飛魚亞科的親緣關係指出細身飛魚屬較唇鬚飛魚屬、斑鰭飛魚屬及原飛魚屬原始,而斑鰭飛魚屬及原飛魚屬成為一姊妹群。而結果也指出唇鬚飛魚屬是旁系群且切分成三個支系。將來的研究需要在唇鬚飛魚屬的不同亞屬分類上再繼續探討。在尖頭細身飛魚的族群遺傳結構中,共定序了156個樣本,長度為615 bp的COI 序列。結果指出不同地點的遺傳分化程度很低,並且有很高的基因交流。親緣關係樹顯示在西北太平洋的尖頭細身飛魚是分成兩群,但是在地理上並沒有明顯區隔開來,加上高度的基因交流,這兩群被認為是一個族群來探討。因此,對於尖頭細身飛魚的漁業資源管理,需要在其族群的邊界上邀請不同國家共同參與使其能永續發展。
Abstract
The flyingfish family Exocoetidae is widespread in tropical and temperate waters with about 35 species in six genera, four subfamilies in the northwestern Pacific. The phylogeny of the subfamily Cypselurinae including four genera and most species had controvsersy. In addition, research on population genetics of flyingfish in the northwestern Pacific is rare. The aims of this study were 1. to reconstruct phylogeny of flyingfishes from the northwestern Pacific Ocean based on morphology and two mitochondrial sequences; 2. to reconstruct the phylogeny of Cypselurinae using complete mitochondrial genome; 3. to investigate the population genetic structure of Hirundichthys oxycephalus in the northwestern Pacific Ocean. Six genera and 32 species were included in this study. Morphological phyologeny used 22 characters showed that the family Exocoetidae and three subfamilies were found to be monophyly. In Cypselurinae clade, Hirundichthys was at the basal place, but Cheilopogon + Cypselurus + Prognichthys formed a trichotomy which could not resolve the relationship of these genera. A total of 1637 bp of the partial COI gene (615 bp) and Cytb gene (1022 bp) was sequenced from 66 samples. Molecular phyologeny showed that the family Exocoetidae and three subfamilies were found to be monophyletic. Genus Hirundichthys was separated from Prognichthys + Cheilopogon + Cypselurus. Genus Cheilopogon was paraphyletic and divided into three clades. Genera Cypselurus + Prognichthys formed a sister group which was close to Cheilopogon clade III. According to molecular phylogeny, three clades of Cheilopogon corresponded with the five subgenera and new classification might need to be proposed. The complete mitogenomes of Cheilopogon unicolor, Ch. arcticeps and Ch. atrisignis were successfully determined by next-generation sequencing method. Partial mitogenomes of Ch. agoo, Ch. cyanopterus, Pr. brevipinnis and Hi.oxycephalus were determined by primer walking method. Phylogeny of Cypselurinae indicated that the Hirundichthys was ancestral genus than Cheilopogon + Cypselurus + Prognichthys, and Cypselurus + Prognichthys formed a sister group. Our results indicated that Cheilopogon was paraphyletic and can be divided into three clades. Future work should be designed to explore and classify the relationships of the subgenera within Cheilopogon. For the population genetic structure of H. oxycephalus, 156 specimens were collected and 616 bp of mtDNA COI gene were sequenced. Results indicated that the genetic differentiations among different localities were small and a high gene flow in the region with undergoing population expansion. Although phylogenetic trees showed two groups of H. oxycephalus in the northwestern Pacific Ocean, the separation was not geologically evident. However, due to high gene flow, an association of either group to a spatial distribution was not observed, and so the two groups may be considered as one population. Therefore, effective fishery management of H. oxycephalus requires joint efforts from countries within its population boundary in order to maintain sustainable exploitation.
目次 Table of Contents
Acknowledgment…i
Abstract……ii
List of Figures………vii
List of Tables……ix
Chapter 1: Introduction 1
Appendix .……17
Chapter 2: Systematics of Flyingfishes (Teleostei Exocoetidae) in the Northwestern Pacific Ocean
Introduction………21
Materials and methods………………23
Results……………25
Discussion…………27
Conclusion…………30
Chapter 3: Phylogeny of the Cypselurinae based on mitochondrial DNA sequences
Introduction……………43
Materials and methods…………………45
Results……………48
Discussion…………50
Chapter 4: Population structure of Hirundichthys oxycephalus in the northwestern Pacific inferred from mitochondrial cytochrome oxidase I genes
Introduction………………63
Materials and methods………………………65
Results…………………68
Discussion………………69
Conclusion………………74
Chapter 5: Conclusion……………86
References ……………………………88
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