Institute of Chemical Engineering and High Temperature Chemical Processes and Department of Chemical Engineering, University of Patras, GR-26110 Patras, Greece.
Biotechnol Bioeng. 1990 Apr 25;35(10):1024-33. doi: 10.1002/bit.260351010.
A mathematical model for an ideal chemostat in which one microbial population feeds on another and where Monod's model is used for the specific growth rates of both populations predicts a less stable behavior for the system than the one observed experimentally. Various factors have been proposed as being the reason for the increased stability of such systems. In this work, the effect of spatial heterogeneity on the dynamics of the microbial feeding interaction is studied. It is concluded that spatial heterogeneity has a stabilizing effect on the system. This effect combined with other factors could be the reason for the increased stability observed in systems where a microbial feeding interaction occurs.
在一个理想的恒化器中,一种微生物种群以另一种微生物种群为食,并且Monod 模型用于两种种群的特定生长率,该模型预测系统的行为比实验观察到的更不稳定。已经提出了各种因素作为导致此类系统稳定性增加的原因。在这项工作中,研究了空间异质性对微生物摄食相互作用动力学的影响。结论是,空间异质性对系统具有稳定作用。这种效应与其他因素结合在一起,可能是在发生微生物摄食相互作用的系统中观察到的稳定性增加的原因。