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哺乳动物系统发育的形态:模式、过程和尺度。

The shape of mammalian phylogeny: patterns, processes and scales.

机构信息

Department of Life Sciences, Imperial College London, Silwood Park, UK.

出版信息

Philos Trans R Soc Lond B Biol Sci. 2011 Sep 12;366(1577):2462-77. doi: 10.1098/rstb.2011.0025.

Abstract

Mammalian phylogeny is far too asymmetric for all contemporaneous lineages to have had equal chances of diversifying. We consider this asymmetry or imbalance from four perspectives. First, we infer a minimal set of 'regime changes'-points at which net diversification rate has changed-identifying 15 significant radiations and 12 clades that may be 'downshifts'. We next show that mammalian phylogeny is similar in shape to a large set of published phylogenies of other vertebrate, arthropod and plant groups, suggesting that many clades may diversify under a largely shared set of 'rules'. Third, we simulate six simple macroevolutionary models, showing that those where speciation slows down as geographical or niche space is filled, produce more realistic phylogenies than do models involving key innovations. Lastly, an analysis of the spatial scaling of imbalance shows that the phylogeny of species within an assemblage, ecoregion or larger area always tends to be more unbalanced than expected from the phylogeny of species at the next more inclusive spatial scale. We conclude with a verbal model of mammalian macroevolution, which emphasizes the importance to diversification of accessing new regions of geographical or niche space.

摘要

哺乳动物的系统发育极不对称,以至于所有同时代的谱系都不可能有均等的多样化机会。我们从四个角度来考虑这种不对称性或不平衡性。首先,我们推断出一组最小的“制度变化”——净多样化率发生变化的点——确定了 15 个重要的辐射和 12 个可能“下降”的进化枝。接下来,我们表明哺乳动物的系统发育与其他脊椎动物、节肢动物和植物群的大量已发表系统发育相似,这表明许多进化枝可能在一套基本相同的“规则”下多样化。第三,我们模拟了六个简单的宏观进化模型,结果表明,那些随着地理或生态位空间的填充而导致物种形成速度减慢的模型,比涉及关键创新的模型产生更符合现实的系统发育。最后,对不平衡的空间缩放分析表明,在一个组合、生态区或更大区域内的物种的系统发育总是比下一个更具包容性的空间尺度上的物种的系统发育更不平衡,这是预期的。我们以哺乳动物宏观进化的口头模型作为结论,强调了进入地理或生态位空间新区域对多样化的重要性。

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