Completed Genetics & Molecular Biology Brain & Nervous System

Forebrain development: From neural plate to cortical specification

In plain English

AI plain-English summary

The forebrain begins as a simple sheet of cells in the embryo and must fold, divide, and specialise into the cerebral hemispheres that govern thought, movement, and emotion. This matters because when these early developmental steps go wrong, the result can be mild to severe intellectual disability. Scientists do not yet understand the sequence of molecular and cellular events that transforms that flat neural plate into the intricately layered human forebrain. This programme aims to map those events in vertebrates, with a particular focus on the steps that create the extra complexity seen in the mammalian brain. This is fundamental science. It will not produce a drug or a diagnostic test in the short term. But understanding how the forebrain builds itself could, in the longer term, reveal new targets for treating intellectual disabilities. It may also give stem cell researchers the instructions they need to grow organised brain tissue in the lab for regenerative therapies. Similar fundamental work on neural development has already underpinned advances in organoid models and our understanding of conditions such as autism and epilepsy.

View original technical description
The most complicated part of our brain is called the forebrain and forms the cerebral hemispheres. It develops from a very simple group of cells in the embryo and the events that transform the simple structure into the complex human cerebral hemispheres are not well understood. However, when one or many of these events are not taking place, it leads to mild or severe mental retardations. Understanding what these events are and how they shape our brain is therefore very important. This programme of research aims to identify the key events that lead to forebrain formation in vertebrates. It also seeks to discover the particular steps that create the complexity inherent to our mammalian brain. Understanding these steps will show new ways to approach mental retardation and give new tools for stem cell regenerative therapies.

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Researchers

Corinne Houart (Principal Investigator)

Related Research

Grants with similar aims, by meaning.

Specification of forebrain territories: commitments and signalling.
Cellular and Molecular Biology of Forebrain Development
Evolutionary mechanisms controlling brain size and complexity
Formation of the earliest circuits in the cerebral cortex
Control of Cell-Cell interactions in Forebrain Morphogenesis.

Original classification

Research Grant

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