July 12, 2017. Jun Inoue
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総説.分子分析による Paleozoic (251MYA より前) divergence dates と crown teleosts の出現 (Mexo)


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化石種を入れると真骨魚類は海起源と推定される.このことは,アミアやアロワナの化石種には,海水に生育する種が存在した事実と一致 (P448左中). 
 淡水より海水の生物の方が化石になりやすいことが知られるため (e.g., Shipman, 1993),化石種を入れた解析は海起源になりやすいとも考察 (P448左下).このため祖先種の生息域推定は,海水と淡水の間となるが,化石種を用いないと推定生息域が淡水に偏ってしまうと主張.さらに,海の方が種の入れ替わりが激しいため,海域はスズキ類など派生的なグループにとってかわられる一方で,淡水域は根幹から分岐する古代魚などの refugia (退避地) となったと指摘 (P448右中).

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Albula, Pterothrissus, notacanthiforms, anguilliforms の関係に注目して時間軸付き系統樹を推定.分子データ (6 核遺伝子) と形態データ (化石)を合わせた解析を行う.

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Phylogeny of the Elopomorpha (Teleostei): evidence from six nuclear and mitochondrial markers. Mol Phylogenet Evol 70:152–161

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A multi-locus molecular timescale for the origin and diversification of eels (Order: Anguilliformes). Mol Phylogenet Evol 69:884–894

フウセンウナギ類がウナギ目内部に分岐.ムカシウナギとホラアナゴが近縁と指摘.5 核遺伝子と 2 ミトコンドリア遺伝子を合わせた解析.

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3R 全ゲノム重複
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