用蛋白质工程方法构建球形节杆菌M30耐热D-Allulose 3- epimase

IF 1.2 Q4 BIOCHEMISTRY & MOLECULAR BIOLOGY Journal of applied glycoscience Pub Date : 2024-11-20 eCollection Date: 2024-01-01 DOI:10.5458/jag.jag.JAG-2024_0003
Kouhei Ohtani, Kensaku Shimada, Pushpa Kiran Gullapalli, Kazuhiko Ishikawa
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引用次数: 0

摘要

在球形节杆菌菌株M30中发现了D-Allulose 3-外聚酶催化d -果糖和D-Allulose之间的C-3外聚反应。克隆了该酶基因,并在大肠杆菌中表达了其重组酶和突变体。利用序列信息和模型结构信息,利用蛋白质工程方法,在不显著降低酶活性的前提下,成功地提高了酶的熔化温度。突变体Glu75Pro、Arg137Lys、Ala200Lys、Ala270Lys和Val237Ile的熔化温度分别提高了2.7、2.1、3.7、5.1和8.0℃。每个突变的影响是独立的和加性的。通过整合上述突变,我们构建了一个耐热突变体,其熔融温度比野生型高12℃,并在65℃下保持稳定2小时。这些高度稳定的特性表明,这种耐热酶是工业生产D-allulose的理想酶候选物。
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Construction of the Thermostable D-Allulose 3-Epimerase from Arthrobacter globiformis M30 by Protein Engineering Method.

D-Allulose 3-epimerase catalyzes C-3 epimerization between D-fructose and D-allulose was found in Arthrobacter globiformis strain M30. The enzyme gene was cloned, and its recombinant enzyme and the mutant variants were expressed in E. coli. Using the information of the sequence and model structure, we succeed in the improvement of melting temperature for the enzyme without significant loss of the enzyme activity by protein engineering method. The melting temperatures were increased by 2.7, 2.1, 3.7, 5.1, and 8.0 c[C for the mutants Glu75Pro, Arg137Lys, Ala200Lys, Ala270Lys, and Val237Ile, respectively. Each effect of the mutation was independent and additive. By integrating the above mutations, we constructed a thermostable mutant that exhibits a melting temperature 12 c[C higher than wild type, and remains stable at 65 c[C for 2 h. These highly stable properties suggest that the thermostable enzymes represent an ideal enzyme candidate for the industrial production of D-allulose.

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Journal of applied glycoscience
Journal of applied glycoscience BIOCHEMISTRY & MOLECULAR BIOLOGY-
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9.10%
发文量
13
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