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Endocrine cells in the mammalian pituitary are arranged into three-dimensional homotypic networks that wire the gland and act to optimise hormone output by allowing the transmission of information between cell ensembles in a temporally precise manner. Despite this, the structure-function relationships that allow cells belonging to these networks to display coordinated activity remain relatively uncharacterised. This review discusses the recent technological advances that have allowed endocrine cell network structure and function to be probed and the mathematical models that can be used to analyse and present the resulting data. In particular, we focus on the mechanisms that allow endocrine cells to dynamically function as a population to drive hormone release as well as the experimental and theoretical methods that are used to track and model information flow through the network.

Original publication

DOI

10.1111/j.1365-2826.2010.02052.x

Type

Journal article

Journal

J Neuroendocrinol

Publication Date

2010

Volume

22

Pages

1217 - 1225

Keywords

Animals Humans *Models, Theoretical Neurons/physiology Pituitary Gland/cytology/*physiology