Gene-Regulatory Interactions in Neural Crest Evolution and Development

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Gene-Regulatory Interactions in Neural Crest Evolution and Development Daniel Meulemans, Marianne Bronner-Fraser  Developmental Cell  Volume 7, Issue 3, Pages 291-299 (September 2004) DOI: 10.1016/j.devcel.2004.08.007

Figure 1 Comparison of Putative Gene-Regulatory and Signaling Interactions Operating at the Neural Plate Border of Vertebrates and Amphioxus Red arrows indicate proven direct regulatory interactions. Black arrows are genetic interactions suggested by gain- and loss-of-function analyses largely in Xenopus. Gray lines indicate repression. (A) In vertebrates, dorsal ectoderm is segregated into presumptive epidermal, neural crest, and neural plate domains by distinct but interacting genetic cascades. The epidermal fate is specified early by high levels of BMP signaling which act through a battery of transcription factors to turn on epidermis-specific effector genes such as keratin. In the neural plate, BMP inhibition, as well as inductive signals from underlying mesoderm, leads to the expression of Zic and Sox1,2,3 (group B) genes, proneural bHLH transcription factors, and neural-specific effectors. At the neural plate border, Wnt and Fgf signals, as well as intermediate levels of BMPs, induce expression of neural plate border and neural crest specifiers. Gene-regulatory crosstalk between neural crest genes maintains their expression until migration and differentiation, when neural crest effector genes are expressed. (B) Ectodermal gene expression in amphioxus neurulae. While gene expression implies that the essential structure of the epidermal and neural regulatory cascades is conserved in amphioxus and vertebrates, only the earliest steps of neural plate border specification appear conserved between the two subphyla. Thus, amphioxus lacks a vertebrate-like neural plate border gene network below the level of Snail expression. Developmental Cell 2004 7, 291-299DOI: (10.1016/j.devcel.2004.08.007)

Figure 2 Putative Co-Option of Neural Crest Specifiers to the Neural Plate Border Early in Vertebrate Evolution as Inferred from Comparisons of Amphioxus and Vertebrate Gene Expression Patterns (A) Expression of neural crest marker homologs in amphioxus neurulae. In vertebrates, Id, Snail, and AP-2 genes are coexpressed in presumptive neural crest cells at the neural plate border. In amphioxus, these genes have almost completely nonoverlapping patterns of expression; Id is expressed in the endoderm and axial mesoderm, Snail is expressed in the paraxial mesoderm and neural plate, and AP-2 is expressed in the epidermal ectoderm. (B) In a hypothetical amphioxus-like vertebrate ancestor, FoxD, AP-2, Id, Twist, and SoxE are expressed in various nonneural tissues. (C) Early in the vertebrate lineage, all these factors became coexpressed in cells at the neural plate border. Figure 2A from Meulemans et al. (2003). Developmental Cell 2004 7, 291-299DOI: (10.1016/j.devcel.2004.08.007)