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蝴蝶眼斑图案以及进化的微调如何产生多样性。

Butterfly eyespot patterns and how evolutionary tinkering yields diversity.

作者信息

Brakefield Paul M

机构信息

Institute of Biology, Leiden University, P.O. Box 9516, 2300 RA Leiden, The Netherlands.

出版信息

Novartis Found Symp. 2007;284:90-101; discussion 101-15. doi: 10.1002/9780470319390.ch6.

Abstract

Eyespots are repeated elements in the wing pattern of butterflies. In the species-rich genus of Bicyclus, all eyespots are formed by the same developmental process. Artificial selection in B. anynana has explored how readily two of the eyespots can become different to each other. There is sufficient standing genetic and developmental variation in a single stock of this species for high flexibility in the responses for eyespot size; indeed selection over 25 generations in several directions of morphospace yielded phenotypes far beyond the variability found in the whole genus. In contrast, experiments on another eyespot trait, their colour composition, indicate that comparable flexibility occurs only along the axis of least resistance in which both eyespots change in the same direction. This result is reflected in both a clear difference in the developmental regulation of eyespot size and colour composition, and in the patterns of variability among species. Such research that integrates evolutionary genetics and Evo-Devo will eventually reveal how evolutionary tinkering occurs in both genetical and developmental terms, and will also explore the consequences of differences in evolvability for patterns of diversity.

摘要

眼状斑纹是蝴蝶翅膀图案中的重复元素。在物种丰富的双环蝶属中,所有眼状斑纹都是通过相同的发育过程形成的。对鞍带双环蝶进行的人工选择研究了其中两个眼状斑纹彼此之间能够多么容易地变得不同。在该物种的单一群体中存在足够的现存遗传和发育变异,以使眼状斑纹大小的反应具有高度灵活性;事实上,在形态空间的几个方向上经过25代的选择产生的表型远远超出了整个属中发现的变异性。相比之下,对另一个眼状斑纹特征——它们的颜色组成——进行的实验表明,只有在两个眼状斑纹沿阻力最小的轴以相同方向变化时,才会出现类似的灵活性。这一结果既体现在眼状斑纹大小和颜色组成的发育调控上的明显差异,也体现在物种间的变异性模式上。这种将进化遗传学和演化发育生物学相结合的研究最终将揭示进化修补在遗传和发育方面是如何发生的,还将探讨可进化性差异对多样性模式的影响。

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