2021
DOI: 10.1016/j.oceaneng.2021.108629
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Subsystem selection for digital twin development: A case study on an unmanned underwater vehicle

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Cited by 28 publications
(9 citation statements)
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“…For that, Zhang et al [ 56 ] define a set of metrics to analyze how to define the right DT for a system. Similarly, Kutzke et al [ 57 ] propose an approach to evaluate which subsystems and functionalities will be implemented in the DT. It chooses the DT subsystems based on a set of priority metrics for each component.…”
Section: Digital Twin Designmentioning
confidence: 99%
“…For that, Zhang et al [ 56 ] define a set of metrics to analyze how to define the right DT for a system. Similarly, Kutzke et al [ 57 ] propose an approach to evaluate which subsystems and functionalities will be implemented in the DT. It chooses the DT subsystems based on a set of priority metrics for each component.…”
Section: Digital Twin Designmentioning
confidence: 99%
“…Their digital twin is a physicsbased model used to generate training data for the pathplanner; neither data flows nor a model update were implemented. Data flows and model update have not been implemented also in (Kutzke et al, 2021) and (Lambertini et al, 2022): in the former, a graph of the digital twin of an unmanned underwater vehicle is defined where the nodes are sub-models of the whole model; it is unclear whether the authors used a physics-based or statisticsbased modeling approach; in the latter, an underwater drone is designed and built while the digital twin is left as an important future work. To estimate the speed loss of a ship due to marine fouling, Coraddu et al (Coraddu et al, 2019) trained an extreme learning machine (Huang et al, 2006) on real-world data.…”
Section: Resultsmentioning
confidence: 99%
“…3 Ph. system Score (Vasanthan and Nguyen, 2021) Yes (physics) No (none) No Vessel 1 (Coraddu et al, 2019) Yes (statistics) No (P → M → H) No Ship 1.5 (Taskar and Andersen, 2021) Yes (physics) No (P → M → H) No Ship 1.5 (Kutzke et al, 2021) Yes (n.…”
Section: Workmentioning
confidence: 99%
“…This sharp increase in the complexity of ensuring the proper system behavior during the course of production can be successfully achieved only by the extensive use of model-based simulation [14]. These concepts were extended later on to simulations merging physical and virtual worlds in all lifecycle phases in the case of mechatronic systems [15], marine fouling monitoring [16], wind turbines [17], underwater vehicles [18], ship operation in waves [19], and others. Except for simulation, the importance of the digital thread, as a tissue connecting digital twins and physical objects, is stressed in the context of Industry 4.0 [20], while a distinction between digital models, digital shadows, and digital twins is pointed out in [21].…”
Section: Brief Literature Reviewmentioning
confidence: 99%