A hybrid decision-making technique based on extended entropy and trapezoidal fuzzy rough number

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2024-06-18 DOI:10.1007/s12190-024-02150-z
Saba Fatima, Muhammad Akram, Fariha Zafar
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Abstract

The fourth industrial revolution, in which mechanical appliances can be precisely and automatically handled, depends extensively on intelligent manufacturing. It has the potential to create more productive manufacturing facilities. Still, defects and possible mishaps in the production process affect the workflow, deplete resources, and worsen environmental effects. Failure modes and effects analysis (FMEA) is a systematic method for identifying, analyzing, and removing possible failures in products, designs, and procedures. Due to uncertainty’s multiple nature, more than one method or technique is needed to deal with such flaws or failures. Ultimately, there is a dire need to develop hybrid models to address and resolve manufacturing process failures. Many fuzzy rough MCDM techniques have been designed to deal with and quantify uncertainty when assessing failure modes; these methods often use triangular fuzzy numbers and FMEA. When modeling complex and asymmetric fuzzy sets, trapezoidal fuzzy numbers offer a more expressive and accurate alternative to the more basic and limited triangle fuzzy numbers. This study proposes a novel approach to prioritize FMEA risks by combining trapezoidal fuzzy rough numbers with VIKOR method to address ambiguity in expert opinions. Using fuzzy rough intervals rather than a single crisp value, fuzzy rough numbers are utilized to deal with ambiguous information regarding linguistic variables. Robots employed in the cabal industry can have their potential failures identified and assessed more effectively with the help of the suggested trapezoidal fuzzy rough FMEA technique.

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基于扩展熵和梯形模糊粗糙数的混合决策技术
在第四次工业革命中,机械设备可以精确地自动处理,这在很大程度上取决于智能制造。它有可能创造出更具生产力的生产设施。然而,生产过程中的缺陷和可能发生的事故仍会影响工作流程、耗费资源并恶化环境影响。故障模式与影响分析(FMEA)是一种系统化的方法,用于识别、分析和消除产品、设计和程序中可能出现的故障。由于不确定性具有多重性,因此需要不止一种方法或技术来处理此类缺陷或故障。因此,亟需开发混合模型来处理和解决制造过程失效问题。在评估失效模式时,许多模糊粗糙度 MCDM 技术被设计用于处理和量化不确定性;这些方法通常使用三角模糊数和 FMEA。在对复杂和非对称模糊集建模时,梯形模糊数比更基本和有限的三角形模糊数更具表现力和准确性。本研究提出了一种新方法,通过将梯形模糊粗略数与 VIKOR 方法相结合来确定 FMEA 风险的优先级,从而解决专家意见的模糊性问题。利用模糊粗略区间而不是单一的清晰值,模糊粗略数被用来处理语言变量的模糊信息。在所建议的梯形模糊粗糙度 FMEA 技术的帮助下,可更有效地识别和评估驾驶室行业中使用的机器人的潜在故障。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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