A one-class support vector machine for detecting valve stiction

IF 3 Q2 ENGINEERING, CHEMICAL
Harrison O’Neill , Yousaf Khalid , Graham Spink , Patrick Thorpe
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引用次数: 0

Abstract

In industrial processes, control valve stiction is known to be one of the primary causes for poor control loop performance. Stiction introduces oscillatory behaviour in the process, leading to increased energy consumption, variations in product quality, shortened equipment lifespan and a reduction in overall plant profitability. Several detection algorithms using routine operating data have been developed over the last few decades. However, with the exception of a handful of recent publications, few attempts to apply classical supervised learning techniques have been published thus far. In this work, principal component analysis, linear discriminant analysis and a one-class support vector machine are trained to detect stiction using time series features as input. These features are extracted from the data using the tsfresh package for Python. The training data consists of simulated stiction examples generated using the XCH stiction model as well as other sources of oscillation. The classifier is subsequently benchmarked against closed-loop stiction data collected in an industrial setting, with performance exceeding that of existing methods.

一种检测气门静摩擦力的一类支持向量机
在工业过程中,控制阀的粘滞是导致控制回路性能差的主要原因之一。粘滞在过程中引入振荡行为,导致能源消耗增加,产品质量变化,设备寿命缩短,工厂整体盈利能力降低。在过去的几十年里,已经开发了几种使用常规操作数据的检测算法。然而,除了少数最近的出版物外,迄今为止很少有应用经典监督学习技术的尝试发表。在这项工作中,主成分分析、线性判别分析和一类支持向量机被训练成使用时间序列特征作为输入来检测粘滞。这些特性是使用Python的tsfresh包从数据中提取的。训练数据包括使用XCH粘滞模型和其他振荡源生成的模拟粘滞样例。分类器随后对在工业环境中收集的闭环伸缩数据进行基准测试,其性能超过现有方法。
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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CiteScore
3.10
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0.00%
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