A deterioration-aware energy management strategy for the lifetime improvement of a multi-stack fuel cell system subject to a random dynamic load

Proton exchange membrane (PEM) fuel cells still suffer from the challenge of limited durability, hindering their widespread commercialization. To overcome this limitation, resorting to Multi-stack Fuel Cell (MFC) systems instead of single fuel cells is a promising solution. Indeed, by optimally dist...

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Published inReliability engineering & system safety Vol. 241; no. January 2024; p. 109660
Main Authors Zuo, Jian, Cadet, Catherine, Li, Zhongliang, Bérenguer, Christophe, Outbib, Rachid
Format Journal Article
LanguageEnglish
Published Elsevier Ltd 01.01.2024
Elsevier
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Online AccessGet full text
ISSN0951-8320
1879-0836
DOI10.1016/j.ress.2023.109660

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Abstract Proton exchange membrane (PEM) fuel cells still suffer from the challenge of limited durability, hindering their widespread commercialization. To overcome this limitation, resorting to Multi-stack Fuel Cell (MFC) systems instead of single fuel cells is a promising solution. Indeed, by optimally distributing the power demand among the different stacks while taking into account their state of health, an efficient Energy Management Strategy (EMS) can be achieved. Here a new multi-stack configuration, based on an oversized multi-stack system is explored. The problem addressed in this paper is to develop a methodology that manages the operation of an oversized three-stack system where only two of them operate simultaneously. The first stage is to predict the deterioration rate of each stack according to the load allocation, and link the deterioration rate of each stack with the load dynamics. To that end, several stochastic deterioration models, from the classical Gamma process model to more complex models with random effects have been developed and tailored to the fuel cell specificities. Then, an event-based decision-making strategy has been established, that determines the load allocations among the operating stacks. This strategy is based on the minimization of the deterioration phenomena due to both the load amplitude and the load variations. Finally, this strategy is extended to the three-stack oversized system by adding the decision to start or stop a stack. These strategies have been validated under random dynamic load profiles, and Monte Carlo simulation results verify the efficiency of the proposed strategies through improved system lifetime. •Stochastic deterioration model with load-dependent and stack-to-stack variability.•Multi-stack fuel cell system operating under random dynamic load profiles.•Proposition of a deterioration aware energy management strategy.•Joint management of load allocation and switching decisions for multi-stack fuel cells.
AbstractList Proton exchange membrane (PEM) fuel cells still suffer from the challenge of limited durability, hindering their widespread commercialization. To overcome this limitation, resorting to Multi-stack Fuel Cell (MFC) systems instead of single fuel cells is a promising solution. Indeed, by optimally distributing the power demand among the different stacks while taking into account their state of health, an efficient Energy Management Strategy (EMS) can be achieved. Here a new multi-stack configuration, based on an oversized multi-stack system is explored. The problem addressed in this paper is to develop a methodology that manages the operation of an oversized three-stack system where only two of them operatesimultaneously. The first stage is to predict the deterioration rate of each stack according to the load allocation, and link the deterioration rate of each stack with the load dynamics. To that end, several stochastic deterioration models, from the classical Gamma process model to more complex models with random effects havebeen developed and tailored to the fuel cell specificities. Then, an event-based decision-making strategy has been established, that determines the load allocations among the operating stacks. This strategy is based on the minimization of the deterioration phenomena due to both the load amplitude and the load variations. Finally, this strategy is extended to the three-stack oversized system by adding the decision to start or stop a stack. These strategies have been validated under random dynamic load profiles, and Monte Carlo simulation results verify the efficiency of the proposed strategies through improved system lifetime.
Proton exchange membrane (PEM) fuel cells still suffer from the challenge of limited durability, hindering their widespread commercialization. To overcome this limitation, resorting to Multi-stack Fuel Cell (MFC) systems instead of single fuel cells is a promising solution. Indeed, by optimally distributing the power demand among the different stacks while taking into account their state of health, an efficient Energy Management Strategy (EMS) can be achieved. Here a new multi-stack configuration, based on an oversized multi-stack system is explored. The problem addressed in this paper is to develop a methodology that manages the operation of an oversized three-stack system where only two of them operate simultaneously. The first stage is to predict the deterioration rate of each stack according to the load allocation, and link the deterioration rate of each stack with the load dynamics. To that end, several stochastic deterioration models, from the classical Gamma process model to more complex models with random effects have been developed and tailored to the fuel cell specificities. Then, an event-based decision-making strategy has been established, that determines the load allocations among the operating stacks. This strategy is based on the minimization of the deterioration phenomena due to both the load amplitude and the load variations. Finally, this strategy is extended to the three-stack oversized system by adding the decision to start or stop a stack. These strategies have been validated under random dynamic load profiles, and Monte Carlo simulation results verify the efficiency of the proposed strategies through improved system lifetime. •Stochastic deterioration model with load-dependent and stack-to-stack variability.•Multi-stack fuel cell system operating under random dynamic load profiles.•Proposition of a deterioration aware energy management strategy.•Joint management of load allocation and switching decisions for multi-stack fuel cells.
ArticleNumber 109660
Author Bérenguer, Christophe
Zuo, Jian
Cadet, Catherine
Li, Zhongliang
Outbib, Rachid
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Issue January 2024
Keywords Multi-stack fuel cells
Stochastic deterioration
Health-aware energy management strategies
Random dynamic load profile
Multi-stack fuel cells, Stochastic deterioration, Random dynamic load profile, Health-aware energy management strategies
Language English
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Snippet Proton exchange membrane (PEM) fuel cells still suffer from the challenge of limited durability, hindering their widespread commercialization. To overcome this...
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StartPage 109660
SubjectTerms Automatic
Electric power
Engineering Sciences
Fluid mechanics
Health-aware energy management strategies
Mechanics
Multi-stack fuel cells
Physics
Random dynamic load profile
Stochastic deterioration
Thermics
Title A deterioration-aware energy management strategy for the lifetime improvement of a multi-stack fuel cell system subject to a random dynamic load
URI https://dx.doi.org/10.1016/j.ress.2023.109660
https://hal.science/hal-04257440
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