基于Box-Behnken 响应面试验设计结合AHP-CRITIC法和BP神经网络-遗传算法优化参莲草方提取工艺

    Optimization of the Extraction Process of Shenliancao Prescription Based on Box-Behnken Response Surface Design Combined with AHP-CRITIC Method and BP Neural Network-genetic Algorithm

    • 摘要:
      目的 利用 BP神经网络-遗传算法结合AHP-CRITIC法优选参莲草方提取工艺。
      方法 以去乙酰车叶草苷酸甲酯、野黄芩苷、出膏率为指标,以AHP-CRITIC法确定各指标混合权重系数,基于Box-Behnken 响应面试验设计,以BP神经网络-遗传算法对参莲草方提取过程中加水倍数、提取时间、提取次数的非线性影响进行反映,确定最佳提取工艺,并对优化结果进行工艺验证。
      结果 BP神经网络-遗传算法优选结果为加水倍数8倍、煎煮时间1.5 h、煎煮次数2次,验证试验显示其综合评分为93.24。
      结论 基于BP神经网络-遗传算法优选的参莲草方提取工艺稳定可行,可有效应用于该过程的工艺参数优化,同时此方法也为中药复方制剂提取工艺的优选提供一种新思路。

       

      Abstract:
      OBJECTIVE To optimize the extraction process of Shenliancao prescription used a combination of BP neural network-genetic algorithm and AHP-CRTIC method.
      METHODS This study determined the mixed weight coefficients of various indicators using the AHP-CRITIC method, with deacetyl asperulosidic acid methyl ester, scutellarin, and extract yield as indicators. Based on the Box-Behnken response surface design, the non-linear effects of water addition ratio, extraction time, and extraction frequency during the extraction process of Shenliancao prescription were reflected using BP neural network-genetic algorithm. Therefore, the optimal extraction process was determined, and the optimized results were validated through process validation.
      RESULTS The BP neural network-genetic algorithm optimized the results of adding water 8 times, boiling for 1.5 h, and boiling twice, and the comprehensive score was shown to be 93.24 through validation experiments.
      CONCLUSION Based on BP neural network-genetic algorithm, the extraction process of Shenliancao prescription optimized is stable and feasible. It can be effectively applied to optimize the process parameters, and also provides a new idea for the optimization of the extraction process of traditional Chinese medicine compound preparations.

       

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