复杂化学反应网络中的多重平衡:对捕获物种模型的扩展。

G Craciun, M Feinberg
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引用次数: 3

摘要

在之前的两篇论文中,提供了确定复杂化学反应网络的能力的方法,采用质量作用动力学,在等温均匀连续流搅拌槽反应器(CFSTR)的背景下,允许多重平衡。在这样的反应堆中,所有的物种都被认为是在流出,这一事实对控制方程的性质有重要的影响。相反,我们可以想象类似cfstr的细胞模型,其中某些大分子(如酶)仍然被困在细胞内,而较小的分子(如代谢物)可以自由地扩散穿过细胞边界。尽管这些模型在物理上与经典CFSTR图非常相似,但在相应的数学上却存在实质性的差异。在没有质量作用动力学假设的情况下,本研究旨在指出一种将经典CFSTR背景下平衡的唯一性结果扩展到捕获物种模型的一般方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Multiple equilibria in complex chemical reaction networks: extensions to entrapped species models.

In two earlier papers, means were provided to decide the capacity of complex chemical reaction networks, taken with mass-action kinetics, to admit multiple equilibria in the context of the isothermal homogeneous continuous flow stirred tank reactor (CFSTR). In such a reactor, all species are deemed to be in the outflow, a fact which has an important bearing on the nature of the governing equations. In contrast, one can imagine CFSTR-like models of the cell in which certain large molecules (e.g., enzymes) remain entrapped within the cell, whereas smaller ones (e.g., metabolites) are free to diffuse through the cell boundary. Although such models bear a strong physical resemblance to the classical CFSTR picture, there are substantive differences in the corresponding mathematics. Without a presumption of mass-action kinetics, this research is intended to indicate a general way in which results about uniqueness of equilibria in the classical CFSTR context extend to entrapped species models.

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