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Physics-Informed Neural Network Solution of Point Kinetics Equations for a Nuclear Reactor Digital Twin
by
Prantikos, Konstantinos
, Tsoukalas, Lefteri H.
, Heifetz, Alexander
in
Big Data
/ Differential equations
/ digital twin
/ Digital twins
/ Feedback
/ GENERAL STUDIES OF NUCLEAR REACTORS
/ Investigations
/ Kinetics
/ Machine learning
/ Neural networks
/ Neutrons
/ Nuclear facilities
/ nuclear reactor
/ nuclear reactor monito
/ nuclear reactor monitoring
/ Nuclear reactors
/ Ordinary differential equations
/ Partial differential equations
/ Physics
/ physics-informed neural networks
/ point kinetics equations
/ stiff ordinary differential equations
2022
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Physics-Informed Neural Network Solution of Point Kinetics Equations for a Nuclear Reactor Digital Twin
by
Prantikos, Konstantinos
, Tsoukalas, Lefteri H.
, Heifetz, Alexander
in
Big Data
/ Differential equations
/ digital twin
/ Digital twins
/ Feedback
/ GENERAL STUDIES OF NUCLEAR REACTORS
/ Investigations
/ Kinetics
/ Machine learning
/ Neural networks
/ Neutrons
/ Nuclear facilities
/ nuclear reactor
/ nuclear reactor monito
/ nuclear reactor monitoring
/ Nuclear reactors
/ Ordinary differential equations
/ Partial differential equations
/ Physics
/ physics-informed neural networks
/ point kinetics equations
/ stiff ordinary differential equations
2022
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Physics-Informed Neural Network Solution of Point Kinetics Equations for a Nuclear Reactor Digital Twin
by
Prantikos, Konstantinos
, Tsoukalas, Lefteri H.
, Heifetz, Alexander
in
Big Data
/ Differential equations
/ digital twin
/ Digital twins
/ Feedback
/ GENERAL STUDIES OF NUCLEAR REACTORS
/ Investigations
/ Kinetics
/ Machine learning
/ Neural networks
/ Neutrons
/ Nuclear facilities
/ nuclear reactor
/ nuclear reactor monito
/ nuclear reactor monitoring
/ Nuclear reactors
/ Ordinary differential equations
/ Partial differential equations
/ Physics
/ physics-informed neural networks
/ point kinetics equations
/ stiff ordinary differential equations
2022
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Physics-Informed Neural Network Solution of Point Kinetics Equations for a Nuclear Reactor Digital Twin
Journal Article
Physics-Informed Neural Network Solution of Point Kinetics Equations for a Nuclear Reactor Digital Twin
2022
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Overview
A digital twin (DT) for nuclear reactor monitoring can be implemented using either a differential equations-based physics model or a data-driven machine learning model. The challenge of a physics-model-based DT consists of achieving sufficient model fidelity to represent a complex experimental system, whereas the challenge of a data-driven DT consists of extensive training requirements and a potential lack of predictive ability. We investigate the performance of a hybrid approach, which is based on physics-informed neural networks (PINNs) that encode fundamental physical laws into the loss function of the neural network. We develop a PINN model to solve the point kinetic equations (PKEs), which are time-dependent, stiff, nonlinear, ordinary differential equations that constitute a nuclear reactor reduced-order model under the approximation of ignoring spatial dependence of the neutron flux. The PINN model solution of PKEs is developed to monitor the start-up transient of Purdue University Reactor Number One (PUR-1) using experimental parameters for the reactivity feedback schedule and the neutron source. The results demonstrate strong agreement between the PINN solution and finite difference numerical solution of PKEs. We investigate PINNs performance in both data interpolation and extrapolation. For the test cases considered, the extrapolation errors are comparable to those of interpolation predictions. Extrapolation accuracy decreases with increasing time interval.
Publisher
MDPI AG,MDPI
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