2022
DOI: 10.1016/j.compind.2021.103586
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A framework for data-driven digital twins of smart manufacturing systems

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Cited by 92 publications
(28 citation statements)
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References 55 publications
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“…In addition, data-driven digital twins will enable integrated ongoing model validation that can be started as soon as parts of the model are being extracted. The methodology presented in the current paper is compatible with the results and conclusions of the work [21]. • Most commercial simulators are not programming languages but rather graphical modelling systems.…”
supporting
confidence: 61%
See 1 more Smart Citation
“…In addition, data-driven digital twins will enable integrated ongoing model validation that can be started as soon as parts of the model are being extracted. The methodology presented in the current paper is compatible with the results and conclusions of the work [21]. • Most commercial simulators are not programming languages but rather graphical modelling systems.…”
supporting
confidence: 61%
“…In [21], the authors claim and discuss the fact that manual simulation modelling is not an option with the modern manufacturing systems that undergo numerous and rapid reconfigurations during their lifetimes. For this reason, they propose a datadriven development of simulation models for smart manufacturing systems, as a basis for their digital twins.…”
mentioning
confidence: 99%
“…Simulation of physical process on ad hoc or continuous basis process simulation [63], automated simulation model generation, [64] Digital model richness Robustness, resilience, self-adaption, fidelity of virtual model Robustness, resilience, self-adaption, fidelity [44], DT fidelity [53], fidelity [61], DT behaviour model [37], high-fidelity of DTs [64] Human interaction Bridging human and machine Human-machine collaboration [5], bridges a human user and robot [25] Product life-cycle Product design, manufacturing and service Service stage: service, data analytics [38], Full product life-cycle management [37,63,65], Manufacturing stage: fault prediction [3], predicting energy efficiency [37], predictive maintenance, feature extraction [30] Figure 16 shows contribution of ML-based DT in manufacturing PLM. ML-based DT is marginally used in full product life-cycle management [37,63,65].…”
Section: Simulation Capabilitiesmentioning
confidence: 99%
“…According to Figure 14, geometric, definition, and behaviour models were implemented following this theme in the period 2018-2019. Additionally, model improvement [43] and expert knowledge incorporation [64] were implemented, which are not stated as future research alternatives.…”
Section: Model-based Taskmentioning
confidence: 99%
“…One example of a mathematically sound simplification method that can be used is model order reduction (MOR), see for instance [HHW18] for a corresponding discussion in the context of digital twins and [BGTQ + 21a, BGTQ + 21b, BGTQ + 21c] for a general overview. One may also rely on data-driven surrogate models obtained from measurement data [FFLMM22].…”
Section: Introduction: Numerical Simulation and Requirements For A Di...mentioning
confidence: 99%