故障结构分析在质子交换膜燃料电池水管理中的应用

Etienne Dijoux, N. Steiner, M. Benne, M. Péra, B. Grondin-Perez
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引用次数: 4

摘要

质子交换膜燃料电池是一种相关的发电系统。然而,它们缺乏可靠性,主要是由于它们的结构复杂性。事实上,它们的运行涉及电化学、热和电现象,这意味着强耦合,使其难以维持标称运行。这种复杂性给设计适当的控制、诊断或容错控制策略带来了一些问题。因此,有必要了解燃料电池的结构,以便对这些策略进行相关的设计。本文提出了一种燃料电池故障结构分析方法,提出了故障结构图。这张图将用于强调控制变量和燃料电池功能之间的相互作用,从而强调改变参数以减轻故障如何影响燃料电池状态并最终导致另一个故障。这项工作的最终目的是在提出的图形表示的基础上,允许更容易地实现高效和容错的控制策略。
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Fault Structural Analysis Applied to Proton Exchange Membrane Fuel Cell Water Management Issues
Proton exchange membrane fuel cells are relevant systems for power generation. However, they suffer from a lack of reliability, mainly due to their structural complexity. Indeed, their operation involves electrochemical, thermal, and electrical phenomena that imply a strong coupling, making it harder to maintain nominal operation. This complexity causes several issues for the design of appropriate control, diagnosis, or fault-tolerant control strategies. It is therefore mandatory to understand the fuel cell structure for a relevant design of these kinds of strategies. This paper proposes a fuel cell fault structural analysis approach that leads to the proposition of a structural graph. This graph will then be used to highlight the interactions between the control variables and the functionalities of a fuel cell, and therefore to emphasize how changing a parameter to mitigate a fault can influence the fuel cell state and eventually cause another fault. The final aim of this work is to allow an easier implementation of an efficient and fault-tolerant control strategy on the basis of the proposed graphical representation.
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