Prediction model of continuous discharge coefficient from tank based on KPCA-DE-SVR

IF 3.6 3区 工程技术 Q2 ENGINEERING, CHEMICAL
Juanxia He , Liwen Huang , Yao Xiao , Wen Li , Jiamei Yin , Qingshan Duan , Linna Wei
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引用次数: 0

Abstract

The discharge of hazardous liquids from storage tanks poses a serious threat to the surrounding environment and humans in consideration of the potential risk of catastrophic fire and explosion. Hence, it is essential to precisely predict discharge coefficient of a continuous leakage to benefit risk assessment and management and accident prevention. This study proposed a prediction model using a hybrid KPCA-DE-SVR algorithm for the discharge coefficient for sustaining discharge (Cs). It was developed based on experimental data of a continuous discharge. The Kernel Principal Component Analysis (KPCA) algorithm was applied to reduce redundant variables to improve data quality; the Differential Evolution (DE) algorithm was employed to optimize the Support Vector Regression (SVR) model to improve the generalization ability of model; and the SVR algorithm was utilized for both training and testing in order to construct the prediction model of Cs. Compared with the prediction performance of four models (SVR, KPCA-SVR, KPCA-GA-SVR, and KPCA-DE-SVR), it was found that the KPCA-DE-SVR model had the highest prediction accuracy (MAE = 0.0211, RMSE = 0.0006, R2 = 0.9649). This study provides an important technical insight for improving the prediction accuracy of Cs from a continuous discharge.

基于 KPCA-DE-SVR 的水箱连续排放系数预测模型
考虑到潜在的灾难性火灾和爆炸风险,储罐中危险液体的排放对周围环境和人类构成严重威胁。因此,必须精确预测连续泄漏的排放系数,以利于风险评估和管理以及事故预防。本研究提出了一种采用 KPCA-DE-SVR 混合算法的持续泄漏放电系数(Cs)预测模型。该模型是基于持续放电的实验数据开发的。利用核主成分分析(KPCA)算法减少冗余变量,提高数据质量;利用差分进化(DE)算法优化支持向量回归(SVR)模型,提高模型的泛化能力;利用 SVR 算法进行训练和测试,构建 Cs 预测模型。通过比较 SVR、KPCA-SVR、KPCA-GA-SVR 和 KPCA-DE-SVR 四种模型的预测性能,发现 KPCA-DE-SVR 模型的预测精度最高(MAE = 0.0211,RMSE = 0.0006,R2 = 0.9649)。这项研究为提高连续排放铯的预测精度提供了重要的技术启示。
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来源期刊
CiteScore
7.20
自引率
14.30%
发文量
226
审稿时长
52 days
期刊介绍: The broad scope of the journal is process safety. Process safety is defined as the prevention and mitigation of process-related injuries and damage arising from process incidents involving fire, explosion and toxic release. Such undesired events occur in the process industries during the use, storage, manufacture, handling, and transportation of highly hazardous chemicals.
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