2017
DOI: 10.1016/j.eswa.2017.08.025
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Smart Maintenance Decision Support Systems (SMDSS) based on corporate big data analytics

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Cited by 92 publications
(41 citation statements)
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“…Such competency makes digital twin Yet, in today's fast-changing market dynamics, maintaining such multi-dimensional trade-in practices triggers persistent functional and financial burdens caused by the unpredictability surrounding the actual quality status of returned products. This ambiguity leads to a number of inspection and disassembly steps in determining the condition of EOLPs in addition to prolonged bargaining processes between customers and OEMs, increasing the overall complexity and product-recovery cost of operations [9,10]. The appropriate utilization of newly available information technologies, on the other hand, allows manufacturers to reduce the ambiguities in the returned product conditions significantly, therefore promptly responding to the customer needs while reducing the complexity across operational layers.…”
Section: Introductionmentioning
confidence: 99%
“…Such competency makes digital twin Yet, in today's fast-changing market dynamics, maintaining such multi-dimensional trade-in practices triggers persistent functional and financial burdens caused by the unpredictability surrounding the actual quality status of returned products. This ambiguity leads to a number of inspection and disassembly steps in determining the condition of EOLPs in addition to prolonged bargaining processes between customers and OEMs, increasing the overall complexity and product-recovery cost of operations [9,10]. The appropriate utilization of newly available information technologies, on the other hand, allows manufacturers to reduce the ambiguities in the returned product conditions significantly, therefore promptly responding to the customer needs while reducing the complexity across operational layers.…”
Section: Introductionmentioning
confidence: 99%
“…This has supported a change in focus from equipment-centric to asset-operation centered. The concept of smart maintenance decision support systems is being trialed in the US where the data analytics is used to extend the linkage between the analysis of condition monitoring data and statistical trending with prediction and simulation-based scenarios [175]. The availability of large volumes of data to build accurate simulations of complex systems can extend the predictive maintenance concept within large infrastructure organizations.…”
Section: E Big Data Analytics Tool Selection and Challengesmentioning
confidence: 99%
“…As mentioned earlier, within the recent literature (beyond the time horizons of the Bousdekis et al 2015), the same trend on selecting various combinations of statistics and machine learning methods for predictive maintenance is apparent. As an example, one may refer to the following selected studies: for developing a periodic preventive maintenance model (Franciosi, Lambiase, and Miranda 2017), enhancing preventive maintenance through integrating probabilistic and predictive models (Ruschel, Santos, and Loures 2017), establishing a generic simulation-based predictive maintenance (Zarte, Wunder, and Pechmann 2017), developing cloud-based predictive maintenance framework (Schmidt, Wang, and Galar 2017), and introducing a smart maintenance decision support using corporate big data analytics (Bumblauskas et al 2017) as well as applying various combinations of statistical datamining and supervised machine learning for condition-based maintenance examined in (Accorsi et al 2017). Specifically, dynamic-based prognostic models are used for predicting dependability in (Aizpurua et al 2017), Bayesian modelling is employed for optimisation of maintenance strategies in (Belyi et al 2017), and application of various machine learning methods for self-parameterising process monitoring and selfadjusting process strategies for series production has been investigated in (Denkena et al 2017).…”
Section: Review Of Related Kbm Approachesmentioning
confidence: 99%