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基于层层自组装法修饰电极上辅酶再生的苹果酸酶催化反应固定HCO₃⁻生产L-苹果酸

Production of L-malic acid with fixation of HCO3(-) by malic enzyme-catalyzed reaction based on regeneration of coenzyme on electrode modified by layer-by-layer self-assembly method.

作者信息

Zheng Haitao, Ohno Yoko, Nakamori Toshihiko, Suye Shin-Ichiro

机构信息

School of Material Science and Chemical Engineering, Tianjin Polytechnic University, Tianjin 300160, China.

出版信息

J Biosci Bioeng. 2009 Jan;107(1):16-20. doi: 10.1016/j.jbiosc.2008.09.009.

DOI:10.1016/j.jbiosc.2008.09.009
PMID:19147103
Abstract

Malic enzyme prepared and purified from Brevundimonas diminuta IFO13182 catalyzed the decarboxylation reaction of malate to pyruvate and CO2 using NAD+ as the coenzyme, and the reverse reaction was used in the present study for L-malic acid production with fixation of HCO3(-) as a model compound for carbon source. The L-malic acid production was based on electrochemical regeneration of NADH on a carbon plate electrode modified by layer-by-layer adsorption of polymer-bound mediator (Alginic acid bound viologen derivative, Alg-V), polymer-bound coenzyme (Alginic acid bound NAD+, Alg-NAD+), and lipoamide dehydrogenase (LipDH). Electrochemical reduction of immobilized NAD+ catalyzed by LipDH in a multilayer film was achieved, and the L-malic acid production with HCO3(-) fixation system with layer-by-layer immobilization of Alg-V/LipDH/Alg-NAD+/malic enzyme multilayer film on the electrode gave an L-malic acid production of nearly 11.9 mmol and an HCO3(-) fixation rate of nearly 47.4% in a buffer containing only KHCO3 and pyruvic acid potassium salt, using a cation exchange membrane. The total turnover number of NADH within 48 h was about 19,000, which suggests that efficient NADH regeneration and fast electron transfer were achieved within the multilayer film, and that the modified electrode is a potential method for the fixation of HCO3(-) without addition of free coenzyme.

摘要

从纤细短杆菌IFO13182制备并纯化的苹果酸酶,以NAD⁺作为辅酶催化苹果酸脱羧生成丙酮酸和二氧化碳的反应,本研究采用该反应的逆反应,以固定HCO₃⁻作为碳源的模型化合物来生产L-苹果酸。L-苹果酸的生产基于通过聚合物结合介质(海藻酸结合紫精衍生物,Alg-V)、聚合物结合辅酶(海藻酸结合NAD⁺,Alg-NAD⁺)和硫辛酰胺脱氢酶(LipDH)的层层吸附修饰的碳板电极上NADH的电化学再生。实现了多层膜中LipDH催化固定化NAD⁺的电化学还原,在仅含有KHCO₃和丙酮酸钾盐的缓冲液中,使用阳离子交换膜,将Alg-V/LipDH/Alg-NAD⁺/苹果酸酶多层膜层层固定在电极上的HCO₃⁻固定系统生产L-苹果酸,L-苹果酸产量接近11.9 mmol,HCO₃⁻固定率接近47.4%。48小时内NADH的总周转数约为19,000,这表明在多层膜内实现了高效的NADH再生和快速的电子转移,并且该修饰电极是一种无需添加游离辅酶即可固定HCO₃⁻的潜在方法。

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