分层故障诊断在臭氧装置中的应用

A.M. Idghamishi, S. Hashtrudi Zad
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引用次数: 2

摘要

提出了一种基于层次有限状态机(HFSM)的在线被动故障诊断框架,并将其应用于臭氧发生器。该方法利用系统结构降低了计算复杂度。在这里,系统模型被分解成更简单的子结构,称为d -空子。为每个D-holon构造一个诊断器。在任何给定时间,只有一小部分诊断器处于活动状态,因此,只有与活动诊断器相关的d -空子模型才用于诊断,而不是系统的整个模型。在此基础上,给出了诊断过程实现半模块化的充分条件。所研究的臭氧发生装置由两个单元组成,用HFSM建模。结果表明,适当选择传感器可实现模块化诊断(每个单元一个诊断器)。在此基础上,设计了基于层次分析法的故障诊断系统。结果表明,该方法显著降低了诊断系统的构建和存储复杂度。
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Hierarchical fault diagnosis: application to an ozone plant
A framework for online passive fault diagnosis in hierarchical finite-state machines (HFSM) is presented and applied to an ozone generation plant. This approach takes advantage of system structure to reduce computational complexity. Here, the system model is broken into simpler substructures called D-holons. A diagnoser is constructed for each D-holon. At any given time, only a subset of the diagnosers are active, and as a result, instead of the entire model of the system, only the models of D-holons associated with active diagnosers are used for diagnosis. Furthermore, a set of sufficient conditions is provided under which the diagnosis process becomes semi-modular. The ozone generation plant under study, consisting of two units, is modeled as an HFSM. It is shown that a proper choice of sensors results in modular diagnosis (one diagnoser for each unit). Following the proposed framework, a hierarchical fault diagnosis system is designed for the plant. It is shown that the proposed approach significantly reduces the complexity of constructing and storing the diagnosis system.
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