Reaction Network Analysis of Metabolic Insulin Signaling.

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ID: 279207
2022
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Abstract
Absolute concentration robustness (ACR) and concordance are novel concepts in the theory of robustness and stability within Chemical Reaction Network Theory. In this paper, we have extended Shinar and Feinberg's reaction network analysis approach to the insulin signaling system based on recent advances in decomposing reaction networks. We have shown that the network with 20 species, 35 complexes, and 35 reactions is concordant, implying at most one positive equilibrium in each of its stoichiometric compatibility class. We have obtained the system's finest independent decomposition consisting of 10 subnetworks, a coarsening of which reveals three subnetworks which are not only functionally but also structurally important. Utilizing the network's deficiency-oriented coarsening, we have developed a method to determine positive equilibria for the entire network. Our analysis has also shown that the system has ACR in 8 species all coming from a deficiency zero subnetwork. Interestingly, we have shown that, for a set of rate constants, the insulin-regulated glucose transporter GLUT4 (important in glucose energy metabolism), has stable ACR.
Reference Key
lubenia2022reactionbulletin Use this key to autocite in the manuscript while using SciMatic Manuscript Manager or Thesis Manager
Authors Lubenia, Patrick Vincent N;Mendoza, Eduardo R;Lao, Angelyn R;
Journal Bulletin of mathematical biology
Year 2022
DOI
10.1007/s11538-022-01087-3
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