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Collier1996 - Delta Notch intercellular signalling and lateral inhibition


ABSTRACT: ODE model describing how slight variations in Notch and Delta cellular concentrations, through lateral inhibition, lead to cells with different states of differentiation. Lateral inhibition is a process whereby a given cell adopting a given fate prevents its immediate neighbouring cells from doing likewise. Notch and Delta are interacting transmembrane proteins and according to this model, lateral inhibition is due to a process where the inhibited cells (where notch has been activated by Delta) loose their ability to inhibit other cells (by synthesizing Delta). This process creates a feedback loop where cells with more delta proteins on their surface inhibit their immediate neighbours and adopt a different cell fate than those neighbours.

SUBMITTER: Mikal Daou  

PROVIDER: BIOMD0000001047 | BioModels | 2022-04-05

REPOSITORIES: BioModels

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Publications

Pattern formation by lateral inhibition with feedback: a mathematical model of delta-notch intercellular signalling.

Collier J R JR   Monk N A NA   Maini P K PK   Lewis J H JH  

Journal of theoretical biology 19961201 4


In many developing tissues, adjacent cells diverge in character so as to create a fine-grained pattern of cells in contrasting states of differentiation. It has been proposed that such patterns can be generated through lateral inhibition--a type of cell-cell interaction whereby a cell that adopts a particular fate inhibits its immediate neighbors from doing likewise. Lateral inhibition is well documented in flies, worms and vertebrates. In all of these organisms, the transmembrane proteins Notch  ...[more]

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