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research article

The segmentation clock: Inherited trait or universal design principle?

Richmond, D. L.
•
Oates, A. C.  
2012
Current Opinion in Genetics and Development

Metamerism is a widespread feature of multicellular body plans; however, our understanding of the underlying mechanisms that generate these patterns is currently based on only a few model organisms. In particular, vertebrate embryos use a segmentation clock to rhythmically and sequentially add segments in concert with posterior elongation of their body. Recent evidence of a segmentation clock acting in arthropods indicates that this mechanism may be a widely used strategy for generating serial anatomy in animals. Whether this is due to homology or convergence is not yet known, but the recent discovery of an oscillatory process associated with the production of sequential root primordia in plants suggests that a segmentation clock is a fundamental patterning principle in growing tissues, independent of ancestry. In this review, we consider the principles of the segmentation clock that may be conserved across the animal and plant kingdoms, and discuss opportunities for cross-fertilization between these active fields of research. © 2012 Elsevier Ltd.

  • Details
  • Metrics
Type
research article
DOI
10.1016/j.gde.2012.10.003
Scopus ID

2-s2.0-84872659899

Author(s)
Richmond, D. L.
Oates, A. C.  
Date Issued

2012

Published in
Current Opinion in Genetics and Development
Volume

22

Issue

6

Start page

600

End page

606

Subjects

Animalia

•

Animals

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anterior posterior axis

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Arabidopsis

•

Arthropoda

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arthropods

•

Biological

•

Biological Clocks

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Body Patterning

•

c hairy1 gene

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cross fertilization

•

Developmental

•

DR5 gene

•

Embryonic development

•

embryo segmentation

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fibroblast growth factor

•

gene

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gene expression regulation

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genetic association

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genetic conservation

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HES1 gene

•

human

•

mesoderm

•

messenger RNA

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Models

•

molecular clock

•

molecular evolution

•

molecular interaction

•

molecular model

•

nonhuman

•

Notch receptor

•

oscillator

•

phase transition

•

plasticity

•

priority journal

•

promoter region

•

protein expression

•

retinoic acid

•

Review

•

signal transduction

•

Somites

•

transcription regulation

•

Tribolium castaneum

•

Vertebrata

•

Vertebrates

•

Wnt protein

•

Wnt signaling pathway

Editorial or Peer reviewed

REVIEWED

Written at

OTHER

EPFL units
UPOATES  
Available on Infoscience
May 30, 2017
Use this identifier to reference this record
https://infoscience.epfl.ch/handle/20.500.14299/137753
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