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研究不同菊芋块茎来源的富含菊糖的基质制剂对高效菊粉低聚糖生产的影响。

Investigating the effect of different inulin-rich substrate preparations from Jerusalem artichoke ( L.) tubers on efficient inulooligosaccharides production.

机构信息

Department of Process Engineering, Stellenbosch University, Stellenbosch, South Africa.

出版信息

Prep Biochem Biotechnol. 2021;51(5):440-449. doi: 10.1080/10826068.2020.1827429. Epub 2020 Oct 12.

DOI:10.1080/10826068.2020.1827429
PMID:33044121
Abstract

Commercial production of inulooligosaccharides (IOS) relies largely on chicory roots. However, Jerusalem artichoke (JA) tubers provide a suitable alternative due to their high inulin content and low cultivation requirements. In this study, three inulin-rich substrate preparations from JA were investigated to maximize IOS production, namely powder from dried JA tuber slices (Substrate 1), solid residues after extracting protein from the JA powder (Substrate 2) and an inulin-rich fraction extracted from protein extraction residues (Substrate 3). The preferred temperature, pH and inulin substrate concentration were determined after which enzyme dosage and extraction time were optimized to maximize IOS extraction from the three substrates, using pure chicory inulin as benchmark. Under the optimal conditions, Substrate 3 resulted in the highest IOS yield of 82.3% (). However, IOS production from the Substrate 1 proved more efficient since it renders the highest overall IOS yield (mass of IOS per mass of the starting biomass). In the case of co-production of protein and IOS from the JA tuber in a biorefinery concept, IOS production from the Substrate 2 is preferred since it reduces the inulin losses incurred during substrate preparation. For all the inulin-rich substrates studied, an enzyme dosage of 14.8 U/g was found to be optimal at reaction time less than 6 h. JA tuber exhibited excellent potential for commercial production of IOS with improved yield and the possible advantage of a reduced biomass cost.

摘要

菊苣根是低聚果糖(IOS)商业化生产的主要原料。然而,由于其富含菊粉且种植要求低,洋姜块茎为其提供了一个合适的替代品。本研究选用三种富含菊粉的洋姜块茎制备物来提高 IOS 产量,分别为:干洋姜切片制成的粉末(底物 1)、从洋姜粉末中提取蛋白质后的固体残渣(底物 2)和从蛋白质提取残渣中提取的富含菊粉的部分(底物 3)。在确定最佳温度、pH 值和菊粉底物浓度后,以纯菊苣菊粉为基准,优化酶剂量和提取时间,以从三种底物中最大程度地提取 IOS。在最佳条件下,底物 3 的 IOS 产量最高,达到 82.3%()。然而,底物 1 的 IOS 生产效率更高,因为它产生的总 IOS 产量最高(起始生物质质量的 IOS 质量)。在生物炼制概念中从洋姜块茎同时生产蛋白质和 IOS 的情况下,由于在底物制备过程中减少了菊粉损失,因此从底物 2 中生产 IOS 更具优势。对于研究的所有富含菊粉的底物,在反应时间小于 6 小时时,发现 14.8 U/g 的酶剂量最适。洋姜块茎具有提高 IOS 产量和降低生物质成本的潜力,有望实现 IOS 的商业化生产。

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