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在加利福尼亚发现一种发光的千足虫以及倍足纲动物生物发光的逐渐进化。

Discovery of a glowing millipede in California and the gradual evolution of bioluminescence in Diplopoda.

作者信息

Marek Paul E, Moore Wendy

机构信息

Department of Entomology, Virginia Polytechnic Institute and State University, Blacksburg, VA 24061; and

Department of Entomology, University of Arizona, Tucson, AZ 85721.

出版信息

Proc Natl Acad Sci U S A. 2015 May 19;112(20):6419-24. doi: 10.1073/pnas.1500014112. Epub 2015 May 4.

Abstract

The rediscovery of the Californian millipede Xystocheir bistipita surprisingly reveals that the species is bioluminescent. Using molecular phylogenetics, we show that X. bistipita is the evolutionary sister group of Motyxia, the only genus of New World bioluminescent millipedes. We demonstrate that bioluminescence originated in the group's most recent common ancestor and evolved by gradual, directional change through diversification. Because bioluminescence in Motyxia has been experimentally demonstrated to be aposematic, forewarning of the animal's cyanide-based toxins, these results are contrary to aposematic theory and empirical evidence that a warning pattern cannot evolve gradually in unpalatable prey. However, gradual evolution of a warning pattern is plausible if faint light emission served another function and was co-opted as an aposematic signal later in the diversification of the genus. Luminescence in Motyxia stem-group taxa may have initially evolved to cope with reactive oxygen stress triggered by a hot, dry environment and was repurposed for aposematism by high-elevation crown-group taxa colonizing new habitats with varying levels of predation. The discovery of bioluminescence in X. bistipita and its pivotal phylogenetic location provides insight into the independent and repeated evolution of bioluminescence across the tree of life.

摘要

加州千足虫Xystocheir bistipita的重新发现令人惊讶地揭示了该物种具有生物发光特性。通过分子系统发育学,我们表明X. bistipita是新世界生物发光千足虫唯一属Motyxia的进化姐妹群。我们证明生物发光起源于该类群最近的共同祖先,并通过多样化的逐渐定向变化而进化。由于已通过实验证明Motyxia的生物发光具有警戒作用,是对动物基于氰化物毒素的预先警告,这些结果与警戒理论以及难吃猎物的警告模式不能逐渐进化的经验证据相反。然而,如果微弱的光发射具有其他功能,并在该属多样化的后期被用作警戒信号,那么警告模式的逐渐进化是合理的。Motyxia干群分类群中的发光最初可能是为了应对炎热干燥环境引发的活性氧应激,而被高海拔冠群分类群重新用于警戒,这些冠群分类群在不同捕食水平的新栖息地定殖。X. bistipita中生物发光的发现及其关键的系统发育位置为整个生命树中生物发光的独立和重复进化提供了见解。

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