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Evolutionary developmental biology and vertebrate head segmentation: A perspective from developmental constraint

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Summary

The question of vertebrate head segmentation has become one of the central issues in Evolutionary Developmental Biology. Beginning as a theory based in comparative anatomy, a segmental theory of the head has been adopted and further developed by comparative embryologists. With the use of molecular and cellular biology, and in particular analyses of the Hox gene complex, the question has been addressed at new levels, but it remains unresolved. In this review, vertebrate head segmentation is reevaluated, by introducing findings from experimental embryology and evolutionary biology. Developmental biology has shown that pattern is generated through hierarchically organized and causally linked series of events. The question of head segmentation can be viewed as a question of generative constraint, that is whether segmentation in the head is imposed by underlying segmental patterns, as it is in the trunk. In this respect, amphioxus appears to be segmented along the entire anteroposterior axis, with myotomes and peripheral nerves repeating with the same rhythm (somitomerism). Similarly, in the vertebrate trunk, the segmental patterns shared by myotomes, peripheral nerves and vertebrae are derived from the somites. However, in the head of vertebrates there is no such mesodermal pattern, although neuromerism and branchiomerism do indicate the presence of constraints derived from rhombomeres and pharyngeal pouches, respectively. These data fit better the concept of dual metamerism of the vertebrate body proposed by Romer (1972), than the traditional head cavity-based segmental model by Goodrich (1930).

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  1. Laboratory for Evolutionary Morphology, Center for Developmental Biology, RIKEN, 2-2-3 Minatojima-minami, Chuo-ku, Kobe, 650-0047, Hyogo, Japan

    Shigeru Kuratani PhD

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Kuratani, S. Evolutionary developmental biology and vertebrate head segmentation: A perspective from developmental constraint. Theory Biosci. 122, 230–251 (2003). https://doi.org/10.1007/s12064-003-0055-6

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