Post-Turing tissue pattern formation: Advent of mechanochemistry.

Chemical and mechanical pattern formation is fundamental during embryogenesis and tissue development. Yet, the underlying molecular and cellular mechanisms are still elusive in many cases. Most current theories assume that tissue development is driven by chemical processes: either as a sequence of c...

Full description

Bibliographic Details
Main Authors: Felix Brinkmann, Moritz Mercker, Thomas Richter, Anna Marciniak-Czochra
Format: Article
Language:English
Published: Public Library of Science (PLoS) 2018-07-01
Series:PLoS Computational Biology
Online Access:http://europepmc.org/articles/PMC6047832?pdf=render
id doaj-5f316c83f5324bdcae593aa643cbae70
record_format Article
spelling doaj-5f316c83f5324bdcae593aa643cbae702020-11-25T01:13:13ZengPublic Library of Science (PLoS)PLoS Computational Biology1553-734X1553-73582018-07-01147e100625910.1371/journal.pcbi.1006259Post-Turing tissue pattern formation: Advent of mechanochemistry.Felix BrinkmannMoritz MerckerThomas RichterAnna Marciniak-CzochraChemical and mechanical pattern formation is fundamental during embryogenesis and tissue development. Yet, the underlying molecular and cellular mechanisms are still elusive in many cases. Most current theories assume that tissue development is driven by chemical processes: either as a sequence of chemical patterns each depending on the previous one, or by patterns spontaneously arising from specific chemical interactions (such as "Turing-patterns"). Within both theories, mechanical patterns are usually regarded as passive by-products of chemical pre-patters. However, several experiments question these theories, and an increasing number of studies shows that tissue mechanics can actively influence chemical patterns during development. In this study, we thus focus on the interplay between chemical and mechanical processes during tissue development. On one hand, based on recent experimental data, we develop new mechanochemical simulation models of evolving tissues, in which the full 3D representation of the tissue appears to be critical for obtaining a realistic mechanochemical behaviour. The presented modelling approach is flexible and numerically studied using state of the art finite element methods. Thus, it may serve as a basis to combine simulations with new experimental methods in tissue development. On the other hand, we apply the developed approach and demonstrate that even simple interactions between tissue mechanics and chemistry spontaneously lead to robust and complex mechanochemical patterns. Especially, we demonstrate that the main contradictions arising in the framework of purely chemical theories are naturally and automatically resolved using the mechanochemical patterning theory.http://europepmc.org/articles/PMC6047832?pdf=render
collection DOAJ
language English
format Article
sources DOAJ
author Felix Brinkmann
Moritz Mercker
Thomas Richter
Anna Marciniak-Czochra
spellingShingle Felix Brinkmann
Moritz Mercker
Thomas Richter
Anna Marciniak-Czochra
Post-Turing tissue pattern formation: Advent of mechanochemistry.
PLoS Computational Biology
author_facet Felix Brinkmann
Moritz Mercker
Thomas Richter
Anna Marciniak-Czochra
author_sort Felix Brinkmann
title Post-Turing tissue pattern formation: Advent of mechanochemistry.
title_short Post-Turing tissue pattern formation: Advent of mechanochemistry.
title_full Post-Turing tissue pattern formation: Advent of mechanochemistry.
title_fullStr Post-Turing tissue pattern formation: Advent of mechanochemistry.
title_full_unstemmed Post-Turing tissue pattern formation: Advent of mechanochemistry.
title_sort post-turing tissue pattern formation: advent of mechanochemistry.
publisher Public Library of Science (PLoS)
series PLoS Computational Biology
issn 1553-734X
1553-7358
publishDate 2018-07-01
description Chemical and mechanical pattern formation is fundamental during embryogenesis and tissue development. Yet, the underlying molecular and cellular mechanisms are still elusive in many cases. Most current theories assume that tissue development is driven by chemical processes: either as a sequence of chemical patterns each depending on the previous one, or by patterns spontaneously arising from specific chemical interactions (such as "Turing-patterns"). Within both theories, mechanical patterns are usually regarded as passive by-products of chemical pre-patters. However, several experiments question these theories, and an increasing number of studies shows that tissue mechanics can actively influence chemical patterns during development. In this study, we thus focus on the interplay between chemical and mechanical processes during tissue development. On one hand, based on recent experimental data, we develop new mechanochemical simulation models of evolving tissues, in which the full 3D representation of the tissue appears to be critical for obtaining a realistic mechanochemical behaviour. The presented modelling approach is flexible and numerically studied using state of the art finite element methods. Thus, it may serve as a basis to combine simulations with new experimental methods in tissue development. On the other hand, we apply the developed approach and demonstrate that even simple interactions between tissue mechanics and chemistry spontaneously lead to robust and complex mechanochemical patterns. Especially, we demonstrate that the main contradictions arising in the framework of purely chemical theories are naturally and automatically resolved using the mechanochemical patterning theory.
url http://europepmc.org/articles/PMC6047832?pdf=render
work_keys_str_mv AT felixbrinkmann postturingtissuepatternformationadventofmechanochemistry
AT moritzmercker postturingtissuepatternformationadventofmechanochemistry
AT thomasrichter postturingtissuepatternformationadventofmechanochemistry
AT annamarciniakczochra postturingtissuepatternformationadventofmechanochemistry
_version_ 1725162914321530880