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利用菊芋中蔗糖和菊粉的共底物同时酶促生产低聚果糖和低聚菊粉的优化。

Optimization of simultaneously enzymatic fructo- and inulo-oligosaccharide production using co-substrates of sucrose and inulin from Jerusalem artichoke.

作者信息

Kawee-Ai Arthitaya, Ritthibut Nuntinee, Manassa Apisit, Moukamnerd Churairat, Laokuldilok Thunnop, Surawang Suthat, Wangtueai Sutee, Phimolsiripol Yuthana, Regenstein Joe M, Seesuriyachan Phisit

机构信息

a Faculty of Agro-Industry , Chiang Mai University , Chiang Mai , Thailand.

b Department of Food Science, College of Agriculture and Life Science , Cornell University , Ithaca , New York , USA.

出版信息

Prep Biochem Biotechnol. 2018 Feb 7;48(2):194-201. doi: 10.1080/10826068.2018.1425708. Epub 2018 Feb 16.

DOI:10.1080/10826068.2018.1425708
PMID:29355454
Abstract

Prebiotic substances are extracted from various plant materials or enzymatic hydrolysis of different substrates. The production of fructo-oligosaccharide (FOS) and inulo-oligosaccharide (IOS) was performed by applying two substrates, sucrose and inulin; oligosaccharide yields were maximized using central composite design to evaluate the parameters influencing oligosaccharide production. Inulin from Jerusalem artichoke (5-15% w/v), sucrose (50-70% w/v), and inulinase from Aspergillus niger (2-7 U/g) were used as variable parameters for optimization. Based on our results, the application of sucrose and inulin as co-substrates for oligosaccharide production through inulinase hydrolysis and synthesis is viable in comparative to a method using a single substrate. Maximum yields (674.82 mg/g substrate) were obtained with 5.95% of inulin, 59.87% of sucrose, and 5.68 U/g of inulinase, with an incubation period of 9 hr. The use of sucrose and inulin as co-substrates in the reaction simultaneously produced FOS and IOS from sucrose and inulin. Total conversion yield was approximately 67%. Our results support the high value-added production of oligosaccharides using Jerusalem artichoke, which is generally used as a substrate in prebiotics and/or bioethanol production.

摘要

益生元物质是从各种植物材料中提取或通过不同底物的酶促水解获得的。低聚果糖(FOS)和低聚菊粉(IOS)的生产是通过使用蔗糖和菊粉这两种底物进行的;使用中心复合设计来评估影响低聚糖生产的参数,以使低聚糖产量最大化。菊芋中的菊粉(5 - 15% w/v)、蔗糖(50 - 70% w/v)和黑曲霉的菊粉酶(2 - 7 U/g)被用作优化的可变参数。根据我们的结果,与使用单一底物的方法相比,将蔗糖和菊粉作为共底物通过菊粉酶水解和合成来生产低聚糖是可行的。使用5.95%的菊粉、59.87%的蔗糖和5.68 U/g的菊粉酶,孵育9小时可获得最大产量(674.82 mg/g底物)。在反应中使用蔗糖和菊粉作为共底物可同时从蔗糖和菊粉中产生FOS和IOS。总转化率约为67%。我们的结果支持利用菊芋进行低聚糖的高附加值生产,菊芋通常被用作益生元生产和/或生物乙醇生产的底物。

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