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Resolving forebrain developmental organisation by analysis of differential growth patterns.

Elizabeth Manning1,2,3, Kavitha Chinnaiya1,2,3, Caitlyn Furley1,2,3

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This study reveals modular growth patterns in the embryonic chick forebrain, challenging the prosomere model. It proposes a new

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Area of Science:

  • Developmental Neuroscience
  • Comparative Neuroanatomy
  • Molecular Biology

Background:

  • The developmental organization of the vertebrate forebrain, the most complex CNS region, remains controversial.
  • Existing models, like the prosomere model, face challenges in explaining observed growth and patterning.

Purpose of the Study:

  • To elucidate the developmental organization and growth dynamics of the embryonic chick anterior neural tube.
  • To challenge existing models and propose a new framework for forebrain organization.

Main Methods:

  • Fate-mapping of the embryonic chick anterior neural tube.
  • Construction of a 4D model of brain growth.
  • Multiplex hybridisation chain reaction for progenitor region analysis.
  • Comparative gene expression analysis and cell mixing experiments.
  • Fate conversion experiments.

Main Results:

  • Identified modular patterns of anisotropic growth, with directional expansion towards the eye, isometric expansion in the prethalamus and dorsal telencephalon, and anterior cell movement into the hypothalamus.
  • Revealed a contiguous transverse boundary region, including the zona limitans intrathalamica and retromammillary hypothalamus, dividing anterior and posterior forebrain.
  • Demonstrated that the hypothalamus is topologically tripartite, situated ventral to the telencephalon, prethalamus, and zona limitans intrathalamica.

Conclusions:

  • The findings challenge the widely accepted prosomere model and do not support a segmented anterior forebrain.
  • A novel 'tripartite hypothalamus' model is proposed based on the observed developmental organization and growth patterns.
  • The study provides new insights into the complex morphogenesis and regionalization of the vertebrate forebrain.