基于混合深度学习模型的复杂建筑场景放射性核素扩散预测研究

IF 1.9 3区 工程技术 Q1 NUCLEAR SCIENCE & TECHNOLOGY
Yuheng Li , Tao Wang , Jintao Wang , Wanxiao Guo , Weiyi Li , Hongbo Qiu , Yue Lin , Yilin Fang , Minghua Lv
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引用次数: 0

摘要

在发生极端核事故时,放射性核素扩散预测是核应急的关键。传统的大气扩散模型难以平衡准确性和时间效率,不能满足核应急情况的要求。因此,本研究提出了一种创新的混合深度学习模型- dual CNN-LSTM。在印第安纳波利斯数据集上,该模型表现出良好的预测性能,具有决定系数(R2 = 0.6351, RMSE = 0.0495,训练时间= 1919.00 s,预测时间= 1.11 s)。该研究还发现,将高斯羽流结果纳入输入特征会降低模型在复杂场景下的性能。通过仿真验证,模型生成的羽流形态与实验数据高度吻合,表明大气稳定性对浓度峰有显著影响,为相关决策提供了科学依据。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Research on predicting the diffusion of radionuclide in complex building scenarios based on a hybrid deep learning model
In the event of an extreme nuclear accident, predicting the dispersion of radionuclide is critical for nuclear emergency response. Traditional atmospheric dispersion models struggle to balance accuracy and time efficiency, failing to meet the demands of nuclear emergency situations. Therefore, this study proposes an innovative hybrid deep learning model—Dual CNN-LSTM. On the Indianapolis dataset, the model demonstrates favorable predictive performance, with a coefficient of determination(R2 = 0.6351, RMSE = 0.0495, training time = 1919.00 s, prediction time = 1.11 s).The study also found that incorporating Gaussian plume results into the input features reduced the model’s performance in complex scenarios. Through simulation validation, the plume shapes produced by the model were found to be highly consistent with experimental data, indicating that atmospheric stability significantly affects concentration peaks and providing a scientific basis for relevant decision-making.
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来源期刊
Nuclear Engineering and Design
Nuclear Engineering and Design 工程技术-核科学技术
CiteScore
3.40
自引率
11.80%
发文量
377
审稿时长
5 months
期刊介绍: Nuclear Engineering and Design covers the wide range of disciplines involved in the engineering, design, safety and construction of nuclear fission reactors. The Editors welcome papers both on applied and innovative aspects and developments in nuclear science and technology. Fundamentals of Reactor Design include: • Thermal-Hydraulics and Core Physics • Safety Analysis, Risk Assessment (PSA) • Structural and Mechanical Engineering • Materials Science • Fuel Behavior and Design • Structural Plant Design • Engineering of Reactor Components • Experiments Aspects beyond fundamentals of Reactor Design covered: • Accident Mitigation Measures • Reactor Control Systems • Licensing Issues • Safeguard Engineering • Economy of Plants • Reprocessing / Waste Disposal • Applications of Nuclear Energy • Maintenance • Decommissioning Papers on new reactor ideas and developments (Generation IV reactors) such as inherently safe modular HTRs, High Performance LWRs/HWRs and LMFBs/GFR will be considered; Actinide Burners, Accelerator Driven Systems, Energy Amplifiers and other special designs of power and research reactors and their applications are also encouraged.
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