IECON 2018 - 44th Annual Conference of the IEEE Industrial Electronics Society 2018
DOI: 10.1109/iecon.2018.8591653
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Insights into Digital Twin Based on Finite Element Simulation of a Large Hydro Generator

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Cited by 21 publications
(9 citation statements)
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“…-I: Cyberphysical analysis of the energy systems with Internet of Things (IoT) and cloud computing [74] -I: Detection and analysis of anomalies in flexible energy deployments [97] -E: Grid control enablement through Digital Dynamic Mirror (DDM) [98] -E: Operations and scheduling of microgrid energy storage using optimization models [99] -G: Cyber resiliency analysis of networked microgrids by leveraging Amazon Web Services (AWS) [100] -I: Maintenance and fault diagnosis of power grid equipment/systems/assets including transmission lines [101] -P: Power converters condition monitoring [102] -I: Windfarm fault/failure predictive maintenance; distributed PV fault diagnosis [103] -M: Prosumer infrastructure ontological modeling to identify optimal configuration of hybrid power system with renewable energy sources [104] -M: Operations analysis, energy economic studies, and optimization modeling for coal-fired thermal power plants [105] -I: Prediction of useful life of offshore wind turbine power converters to facilitate proactive maintenance [106] -M: Finite element method-based digital twin models for hydro power generators [107] -M: Coordination of multivector energy systems combined with machine learning and real-time IoT integration to facilitate optimal control, scheduling, forecasting of energy assets, and pertinent energy management processes/tool [108] -I: Design of intelligent digital twin for cyber-physical production systems using heterogenous data acquisition and data integration [109] -M: Rooftop PV system studies/analysis [76] -M: Evaluation of net zero buildings [110] Table A2. Cont.…”
Section: Refmentioning
confidence: 99%
“…-I: Cyberphysical analysis of the energy systems with Internet of Things (IoT) and cloud computing [74] -I: Detection and analysis of anomalies in flexible energy deployments [97] -E: Grid control enablement through Digital Dynamic Mirror (DDM) [98] -E: Operations and scheduling of microgrid energy storage using optimization models [99] -G: Cyber resiliency analysis of networked microgrids by leveraging Amazon Web Services (AWS) [100] -I: Maintenance and fault diagnosis of power grid equipment/systems/assets including transmission lines [101] -P: Power converters condition monitoring [102] -I: Windfarm fault/failure predictive maintenance; distributed PV fault diagnosis [103] -M: Prosumer infrastructure ontological modeling to identify optimal configuration of hybrid power system with renewable energy sources [104] -M: Operations analysis, energy economic studies, and optimization modeling for coal-fired thermal power plants [105] -I: Prediction of useful life of offshore wind turbine power converters to facilitate proactive maintenance [106] -M: Finite element method-based digital twin models for hydro power generators [107] -M: Coordination of multivector energy systems combined with machine learning and real-time IoT integration to facilitate optimal control, scheduling, forecasting of energy assets, and pertinent energy management processes/tool [108] -I: Design of intelligent digital twin for cyber-physical production systems using heterogenous data acquisition and data integration [109] -M: Rooftop PV system studies/analysis [76] -M: Evaluation of net zero buildings [110] Table A2. Cont.…”
Section: Refmentioning
confidence: 99%
“…Liu et al [178,179] proposed an intelligent management platform for coal mine electromechanical equipment based on the IoT, effectively reduces the probability of equipment failure, improves the level of equipment refinement management, and realizes the whole life cycle management of equipment. Moussa et al [114] proposed a digital twin model for large hydroelectric generators. To improve the accuracy and efficiency of prediction and health management of wind power, Tao et al [112,[180][181][182][183] proposed a digital twin failure prediction model for complex equipment, which effectively utilized the interaction mechanism of digital twin and data fusion techniques.…”
Section: The Applicationsmentioning
confidence: 99%
“…The work developed in [12] derives an electromagnetic FEM model of a large hydro generator to be used as a digital twin. As the FEM model showed its capability to perform reliable simulations in several conditions, e.g., noload, rated load, and overexcited, the digital twin based on this model should aid the diagnosis and maintenance scheme of the generator, which is helpful and convenient for large machines.…”
Section: Physics-based Modellingmentioning
confidence: 99%