April 2025
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4 Reads
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3 Citations
Annals of Nuclear Energy
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April 2025
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4 Reads
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3 Citations
Annals of Nuclear Energy
February 2025
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2 Reads
February 2025
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9 Reads
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2 Citations
Annals of Nuclear Energy
January 2025
October 2024
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41 Reads
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1 Citation
In this chapter we examine the first fully operation digital twin of a fissile nuclear reactor. In 2023, Idaho National Laboratory (INL) partnered with Idaho State University (ISU) to create and run a digital twin of their AGN-201 fissile nuclear reactor. This reactor can produce up to 5 watts and has proven to be the perfect testbed for discovering how best to implement a digital twin of a larger reactor system. INL created an integrated, cloud-based digital twin capable of measuring data from the reactor in near real-time and built the foundation for running operations such as machine learning and analytics in near real-time in an offsite location. This experiment is a key step in building a digital twin of a larger reactor system and has helped highlight many potential pitfalls and problems that such an endeavor might face. This experiment has also shown the great promise that a cloud-first approach has when creating digital twins.
August 2024
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65 Reads
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1 Citation
Digital engineering and digital twins are increasingly being used in nuclear energy projects with important impacts. At Idaho National Laboratory, these approaches have been applied in a variety of nuclear energy research, development, and demonstration projects, with key lessons and evolutions occurring for each. In this paper, we describe the use of digital engineering and digital twins in the Versatile Test Reactor design, National Reactor Innovation Center test beds, and nonproliferation analysis of the AGN-201 reactor design. We share key lessons learned for these projects related to tool selection, adoption and training, and working with existing assets versus beginning at the design phase. We also share highlights of future potential uses of digital twins and digital engineering, including using artificial intelligence to perform repetitive design tasks and digital twins to move towards semiautonomous nuclear power plant operations.
February 2024
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17 Reads
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2 Citations
Science and Global Security
January 2024
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4 Reads
January 2024
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5 Reads
January 2024
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1 Read
... By providing comprehensive insights into the operational performance and condition of the vessel, digital twins facilitate more efficient resource utilization and minimize waste. This is particularly relevant in the nuclear sector, where the management of radioactive materials and the safety of operations are paramount [71]. The ability to monitor, simulate, analyze, and test various scenarios allows for proactive maintenance and operational adjustments, ultimately leading to improved reliability and reduced environmental impact. ...
April 2025
Annals of Nuclear Energy
... Their applications extend across a broad spectrum, from optimizing renewable energy generation to ensuring grid stability and predictive maintenance. By providing real-time monitoring, simulation, and optimization capabilities, DTs are revolutionizing the management of energy assets such as wind farms, solar panels, nuclear reactors, and smart power grids [67,72,[235][236][237][238][239]. These applications facilitate the seamless integration of renewable and non-renewable energy sources, optimize resource allocation, and enhance system reliability through predictive maintenance [240][241][242]. ...
February 2025
Annals of Nuclear Energy
... The data acquisition system was integrated into LabView and assessed to verify data validity. The testing identified some deviation between the manual readings and the data acquisition readings, indicating the persistence of a physical issue that was then addressed by the Idaho State University reactor team [49]. ...
August 2024
... Cyber security regulations are currently in place for existing NPPs; however, they must be adapted to consider the unique threats associated with these novel technologies. Sabharwall et al. presented a review of the cyber security concerns, threat identification, and threat mitigation strategies that are relevant to microreactor technologies including HPMRs [22]. They proposed recommendations for future research based on concepts such as autonomous cyber defense systems and digital twins that could utilize artificial intelligence and machine learning. ...
June 2021
Cyber Security A Peer-Reviewed Journal
... DE has been prioritized in the U.S. Department of Defense, real estate, and aerospace industries, as examples (DoD, 2023;Attaran and Celik, 2023;Grosse, 2019;Dang et al., 2018;Bazilevs et al., 2015;Glaessgen and Stargel, 2012;Seshadri and Krishnamurthy, 2017;Li et al., 2017;Tuegel et al., 2011). Increasingly, DE is being used in biotechnology, medicine, agriculture, nuclear energy, and other fields (Cai et al., 2017;Bruynseels et al., 2018;Rassolkin et al., 2019;Kochunas and Huan, 2021;Crowder et al., 2022;Prantikos et al., 2022;Attaran and Celik, 2023;Javaid et al., 2023;Sandhu et al., 2023;Plachinda et al., 2021;Yadav et al., 2021;Soori et al., 2023). ...
May 2022
... The design effort was a collaboration across six national laboratories, ten universities, and over 15 industry partners and was concentrated between 2017 and 2021. The VTR program implemented elements of the Department of Defense Digital Engineering Strategy (DoD, 2023) through the use of data-driven tools, a digital thread, cloud computing, and close collaboration with the Digital Innovation Center of Excellence (Ritter et al., 2022b). These tools were implemented through design and procurement, with the intent to continue their use during construction and operation. ...
March 2022
Insight
... Применение сочетания технологий MBSE и создания цифровых двойников позволяет применять методы машинного обучения нейросетей (ML), которые превосходно подходят для решения многоцелевых задач оптимизации с ограничениями, возникающих при проектировании и производстве летательных аппаратов и ракет [9]. Действительно, новые методы машинного обучения можно рассматривать как методы оптимизации на основе данных, которые идеально подходят для ре- 10 , поскольку большинство требований являются текстовыми и, как правило, формально не моделируются, даже если они имеют определенный уровень структуры и правил. Используя технологию NLP, семантическая информация может быть извлечена из текстовых требований, что может иметь несколько преимуществ, которые будут оценены: найти связанные требования, сравнение содержимого спецификаций, идентификация перекрывающихся требований и связывание инженерных текстовых артефактов (таких, как отчеты о проектировании, отчеты об испытаниях и т.д.) с содержимым цифровых моделей. ...
March 2022
... This approach improves accuracy and efficiency across engineering and management disciplines, results in better cost and performance outcomes, and unlocks potential advanced uses of digital tools, including predictive capabilities, AI/ML, remote operation, and customized uses such as safeguards development (Basher, 2003;Wood, 2004;Upadhyaya et al., 2007;Tuegel et al., 2011;Li et al., 2017;Rajesh et al., 2019;Ritter et al., 2022a;Wang et al., 2022;Javaid et al., 2023;Tao et al., 2019). For a more comprehensive description of the benefits of DTs, see Javaid et al. (2023). ...
March 2022
Journal of Energy Resources Technology, Transactions of the ASME