条鰭魚類根幹の系統進化 |
| July 12, 2017. Jun Inoue |
| 総説 |
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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)
| 条鰭魚類下位群の系統関係 |
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総説．
Graham JB, et al. (2014)
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| 真骨魚類は淡水起源か |
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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)．
条鰭魚類の系統樹に海，淡水，汽水など生息域をマッピングし，祖先の生息域を推定．条鰭魚類祖先種の生息域は，原生種のみの解析だと淡水域と推定されてしまうが，化石種を入れると海域となる．
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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原生する海に生息するすべての条鰭魚類は淡水域に起源すると指摘．
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| 真骨魚類下位群の系統関係 |
アロワナ類
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カライワシ類
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総説．カライワシ類をモデルシステムとして提唱．
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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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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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