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Determination of volumetric gas-liquid mass transfer coefficient of carbon monoxide in a batch cultivation system using kinetic simulations

机译:用动力学模拟测定分批栽培系统中一氧化碳体积气液传质系数

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摘要

A mathematical model of microbial kinetics was introduced to predict the overall volumetric gas-liquid mass transfer coefficient (k(L)a) of carbon monoxide (CO) in a batch cultivation system. The cell concentration (X), acetate concentration (C-ace), headspace gas (N-co and N-co2), dissolved CO concentration in the fermentation medium (C-co), and mass transfer rate (R) were simulated using a variety of kLa values. The simulated results showed excellent agreement with the experimental data for a k(L)a of 13/hr. The C-co values decreased with increase in cultivation times, whereas the maximum mass transfer rate was achieved at the mid-log phase due to vigorous microbial CO consumption rate higher than R. The model suggested in this study may be applied to a variety of microbial systems involving gaseous substrates. (C) 2017 Elsevier Ltd. All rights reserved.
机译:引入了微生物动力学的数学模型,以预测分批栽培系统中的一氧化碳(CO)的总体容积气体传质系数(K(L)A)。 使用溶解培养基(C-CO)中的细胞浓度(x),乙酸盐浓度(C-ace),乙酸浓度(c-ace),溶解的CO浓度和传质速率(R) 各种KLA值。 模拟结果表明,与13 / hr的K(l)a中的实验数据显示出优异的一致性。 C-Co值随着培养时间的增加而降低,而由于剧烈的微生物CO消费率高于R的中间对数阶段实现了最大传质速率。本研究中提出的模型可以应用于各种各样的模型 涉及气态基材的微生物系统。 (c)2017 Elsevier Ltd.保留所有权利。

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