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Optimization of fermentation medium for triterpenoid production from Antrodia camphorata ATCC 200183 using artificial intelligence-based techniques

机译:使用基于人工智能的技术优化樟脑牛樟芝ATCC 200183生产三萜类物质的发酵培养基

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摘要

In this study, alteration in morphology of submergedly cultured Antrodia camphorata ATCC 200183 including arthroconidia, mycelia, external and internal structures of pellets was investigated. Two optimization models namely response surface methodology (RSM) and artificial neural network (ANN) were built to optimize the inoculum size and medium components for intracellular triterpenoid production from A. camphorata. Root mean squares error, R 2, and standard error of prediction given by ANN model were 0.31%, 0.99%, and 0.63%, respectively, while RSM model gave 1.02%, 0.98%, and 2.08%, which indicated that fitness and prediction accuracy of ANN model was higher when compared to RSM model. Furthermore, using genetic algorithm (GA), the input space of ANN model was optimized, and maximum triterpenoid production of 62.84 mg l−1 was obtained at the GA-optimized concentrations of arthroconidia (1.78 × 105 ml−1) and medium components (glucose, 25.25 g l−1; peptone, 4.48 g l−1; and soybean flour, 2.74 g l−1). The triterpenoid production experimentally obtained using the ANN–GA designed medium was 64.79 ± 2.32 mg l−1 which was in agreement with the predicted value. The same optimization process may be used to optimize many environmental and genetic factors such as temperature and agitation that can also affect the triterpenoid production from A. camphorata and to improve the production of bioactive metabolites from potent medicinal fungi by changing the fermentation parameters.
机译:在这项研究中,调查了水下培养樟芝牛樟芝ATCC 200183的形态变化,包括关节炎,菌丝体,颗粒的内部和内部结构。建立了两个优化模型,分别是响应面法(RSM)和人工神经网络(ANN),以优化樟脑草细胞内三萜类化合物生产的接种量和培养基成分。 ANN模型给出的均方根误差,R 2 和预测标准误差分别为0.31%,0.99%和0.63%,而RSM模型分别为1.02%,0.98%和2.08% ,表明与RSM模型相比,ANN模型的适应度和预测精度更高。此外,使用遗传算法(GA)对ANN模型的输入空间进行了优化,并且在GA优化的节肢动物(1.78×10&浓度)下,最大三萜生成量为62.84 mg l −1 。 sup> 5 ml -1 )和中等成分(葡萄糖,25.25 gl -1 ;蛋白,, 4.48 gl -1 ;和大豆粉,2.74 gl -1 )。使用ANN-GA设计的培养基实验获得的三萜类化合物产量为64.79±2.32 mg l -1 ,与预测值相符。可以使用相同的优化过程来优化许多环境和遗传因素,例如温度和搅动,这些因素也可能影响樟脑曲霉产生三萜类化合物,并通过更改发酵参数来改善有效药用真菌的生物活性代谢物的产生。

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