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Fuzzy TOPSIS approach for failure mode, effects and criticality analysis
298
Citations
17
References
2003
Year
EngineeringFuzzy SystemsIndustrial EngineeringSmart ManufacturingCriticality AnalysisMultiple-criteria Decision AnalysisFuzzy Risk AnalysisDecision AnalyticsQuality Function DeploymentOperations ResearchFuzzy Multi-criteria Decision-makingReliability EngineeringRisk ManagementManagementFailure AnalysisSystems EngineeringMulti-criteria Decision MakingFuzzy OptimizationFuzzy Topsis ApproachReliabilityFuzzy LogicFmeca ParametersEngineering Failure AnalysisFuzzy Logic TheoryFuzzy Expert SystemDecision Technology
Conventional FMECA using US MIL‑STD‑1629A has limitations that the proposed technique seeks to overcome. The paper proposes an alternative multi‑attribute decision‑making approach to prioritize failures in FMECA. The method applies a fuzzy version of TOPSIS, using fuzzy logic to evaluate chance of failure, non‑detection, and severity without a knowledge base, and employs a classification scheme to rank the resulting fuzzy criticality values efficiently. Applied to an Italian appliance manufacturer, the fuzzy TOPSIS approach outperforms conventional FMECA and sensitivity analysis shows it yields a robust, reasonable priority ranking. © 2003 John Wiley & Sons, Ltd.
Abstract In this paper, an alternative multi‐attribute decision‐making approach for prioritizing failures in failure mode, effects and criticality analysis (FMECA) is presented. The technique is specifically intended to overcome some of the limitations concerning the use of the conventional US MIL‐STD‐1629A method. The approach is based on a fuzzy version of the ‘technique for order preference by similarity to ideal solution’ (TOPSIS).The use of fuzzy logic theory allows one to avoid the intrinsic difficulty encountered in assessing ‘crisp’ values in terms of the three FMECA parameters, namely chance of failure, chance of non‐detection, and severity. With the proposed approach, the definition of a knowledge base supported by several qualitative rule bases is no longer required. To solve the fundamental question of ranking the final fuzzy criticality value, a particular method of classification is adopted, allowing a fast and efficient sorting of the final outcome. An application to an important Italian domestic appliance manufacturer and a comparison with conventional FMECA are reported to demonstrate the characteristics of the proposed method. Finally, a sensitivity analysis of the fuzzy judgement weights has confirmed that the proposed approach gives a reasonable and robust final priority ranking of the different causes of failure. Copyright © 2003 John Wiley & Sons, Ltd.
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