Optimization of Enterocin Production from Probiotic Enterococcus faecium Using Taguchi Experimental Design.

IF 1.8 Q3 PHARMACOLOGY & PHARMACY
Dina Manny, Amr El-Waseif, Eslam Abd El-Wahed
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引用次数: 0

Abstract

Objectives: Enterocin is a significant broad-spectrum peptide antibiotic produced by Enterococcus faecium (E. faecium). Enterocin production by E. faecium was investigated using the Taguchi experimental design. The Taguchi models were used to save the time and effort required for optimizing the different conditions affecting its production. They were applied to optimize the conditions for enterocin production using the least number of experiments and the least number of required materials.

Materials and methods: Seven factors i.e., pH, temperature, time of incubation, aeration rate, inoculum size, carbohydrate concentration, and bile salt concentrations, each at three levels were selected and an orthogonal array layout of L273 was performed.

Results: The experimental results indicated that the best incubation conditions were; 48 hours incubation on a nutrient medium at pH 6.5, temperature at 25 °C, aeration rate at 0 round per minute, inoculum size 20 mL, and bile salt concentration. It was 5%, and the carbon concentration was 2.0%. All these factors combined led to the best enterocin production by E. faecium.

Conclusion: This optimization of enterocin production by the Taguchi experimental models emphasized some important results regarding the interaction of the different driving factors leading to the best enterocin production in one experiment.

田口实验设计优化益生菌粪肠球菌产肠毒素的研究
肠毒素是由粪肠球菌产生的一种重要的广谱肽类抗生素。采用田口实验设计研究了粪肠球菌产肠毒素的情况。使用田口模型是为了节省优化影响其生产的不同条件所需的时间和精力。它们被应用于通过最少的实验次数和最少的所需材料量来优化肠肽生产的条件。选择三个水平的七个因素,即pH、温度、培养时间、通气率、接种物大小、碳水化合物浓度和胆盐浓度,并进行L27(3)的正交阵列布局。实验结果表明,最佳培养条件为:;在pH 6.5、温度25°C、通气速度0 rpm、接种量20 ml、胆汁盐浓度的营养培养基上培养48小时。为5%,碳浓度为2.0%。所有这些因素加在一起导致粪肠球菌产生最佳的肠毒素。田口实验模型对肠毒素生产的优化强调了关于不同驱动因素相互作用的一些重要结果,这些驱动因素在一个实验中产生了最佳的肠毒素生产。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
3.60
自引率
5.90%
发文量
79
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