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Glycolysis is an alternative means that cells have to get energy for digestion and biochemical synthesis, for maintaining concentration gradients, for muscular contractions and cell division, and for maintaining body heat, and is a way to make the high-energy pyrophosphate bond of ATP. Most cells fall back on Glycolysis only when they have no better biological alternative. Glycolysis in the cytoplasm of yeast cells and in the cell-free extracts of yeast is one of the three biochemical oscillators discovered. Though not Glycolysis, Selkov proposed a single enzyme oscillator built around PFK enzyme and the ADP-ATP couple to account for many of the facts of oscillating Glycolysis. Metabolism rhythms observed in Glycolysis seemed at first to offer the experimental biochemist a particularly favorable opportunity to study regulation. A few irreversible thermodynamics studies on Selkov model and reaction-diffusion Selkov scheme had been done. Our goal is to show in this paper a study on temperature as a dynamic parameter in the reaction-diffusion Selkov model, for that purpose we have used the extended generalized thermodynamics for irreversible processes in order to quantify the levels of energy-matter dissipation under isothermal and non-isothermal environments. The results show that temperature has a dynamic and thermodynamic control on the dissipative structures and on the level of associated thermodynamic dissipation. The irreversible thermodynamics itself is a valuable tool to understand the macroscopic phenomena and the results obtained in studies of nonlinear dynamics.
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