基于随机森林模型的催化剂与温度组合策略智能数据预测模型

Xinyi Chen
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引用次数: 0

摘要

乙醇制烯烃、烷烃和芳烃技术是中国石化工业的战略选择,具有巨大的发展潜力。首先,以催化剂组合中的参数和温度为输入,以C4烯烃产率为输出,建立数据预测模型;因此,我们利用实验数据对随机森林、BP神经网络和梯度提升回归(GBR)三种模型进行训练,并将预测数据与实验真实数据进行比较。通过对RMSE、MAE和r平方指标的误差分析,发现随机森林模型得到的预测值最接近真实值。然后,为了得到C4烯烃产率最大时的具体参数值,我们采用粒子群优化(PSO)方法建立模型,并以随机森林模型中输出与输入的关系作为适应度函数,得到无温度限制且温度低于350℃时催化剂的最优组成和温度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Intelligent Data Prediction Model of Catalyst and Temperature Combination Strategy Based on Stochastic Forest Model
The technology of ethanol conversion to olefins, alkanes and aromatics is a strategic choice for China’s petrochemical industry and has great development potential. Firstly, the data prediction model was established with the parameters and temperature in the catalyst combination as the input and the C4 olefin yield as the output. Therefore, we use the experimental data to train the three models of random forest, BP neural network and gradient lifting regression (GBR), and compare the predicted data with the experimental real data. Through the error analysis of RMSE, MAE and R-squared indexes, it is found that the predicted value obtained by the random forest model is closest to the real value. Then, in order to obtain the specific parameter value when the C4 olefin yield is the maximum, we use the particle swarm optimization (PSO) to build the model, and take the relationship between output and input in the random forest model as the fitness function to obtain the optimal composition and temperature of the catalyst without temperature limit and when the temperature is lower than 350 °C.
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