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Modeling the ponto-medullary respiratory network
Journal article   Peer reviewed

Modeling the ponto-medullary respiratory network

I.A Rybak, N.A Shevtsova, J.F.R Paton, T.E Dick, W.M St.-John, M Mörschel and M Dutschmann
Respiratory physiology & neurobiology, v 143(2)
2004
PMID: 15519563

Abstract

Model, computational Brainstem, ponto-medullary respiratory network Reflexes, respiratory Pattern of breathing, rhythm generation, eupnea, apneusis, gasping
The generation and shaping of the respiratory motor pattern are performed in the lower brainstem and involve neuronal interactions within the medulla and between the medulla and pons. A computational model of the ponto-medullary respiratory network has been developed by incorporating existing experimental data on the medullary neural circuits and possible interactions between the medulla and pons. The model reproduces a number of experimental findings concerning alterations of the respiratory pattern following various perturbations/stimulations applied to the pons and pulmonary afferents. The results of modeling support the concept that eupneic respiratory rhythm generation requires contribution of the pons whereas a gasping-like rhythm (and the rhythm observed in vitro) may be generated within the medulla and involve pacemaker-driven mechanisms localized within the medullary pre-Bötzinger Complex. The model and experimental data described support the concept that during eupnea the respiration-related pontine structures control the medullary network mechanisms for respiratory phase transitions, suppress the intrinsic pacemaker-driven oscillations in the pre-BötC and provide inspiration-inhibitory and expiration-facilitatory reflexes which are independent of the pulmonary Hering–Breuer reflex but operate through the same medullary phase switching circuits.

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Collaboration types
Domestic collaboration
International collaboration
Web of Science research areas
Physiology
Respiratory System
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