基于 CNN-LSTM 和 Monte Carlo 方法的重力坝可靠性计算方法研究。

IF 1.1 3区 计算机科学 Q4 COMPUTER SCIENCE, ARTIFICIAL INTELLIGENCE
Ming-Wei Li, Jun-Qi Ren, Jing Geng, Hsin-Pou Huang, Wei-Chiang Hong
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引用次数: 0

摘要

为了提高蒙特卡罗(MC)方法的计算精度,减少计算时间。首先,引入CNN和LSTM深度学习网络,设计模拟大坝应力的非线性动力系统。然后,分别对坝体应力非线性数据进行空间特征挖掘和序列信息提取,提出了一种坝体应力深度组合预测模型(DS-FEM-CNN-LSTM)。其次,针对MC方法计算单个样本点耗时长、工作量大的问题,采用DOE测试方法对样本点进行设计。权重因子和到失效面的距离作为筛选标准。建立了重力坝的可靠度计算方法(DS-FEM-CNN-LSTM-MC)。最后,数值结果表明,所提出的DS-FEM-CNN-LSTM-MC方法在计算时间和精度方面都优于现有方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Investigation on the reliability calculation method of gravity dam based on CNN-LSTM and Monte Carlo method.

To improve the calculation accuracy of the Monte Carlo (MC) method and reduce the calculation time. Firstly, CNN and LSTM deep learning networks are introduced for designing nonlinear dynamic systems simulating dam stress. Then, spatial feature mining and sequence information extraction of nonlinear data of dam stress are carried out respectively, and a combined prediction model of dam stress depth (DS-FEM-CNN-LSTM) is proposed. Secondly, to solve the problem of a long time and heavy workload for the MC method to calculate a single sample point, the DOE test method is used to design the sample points. The weight factor and the distance to the failure surface are used as screening criteria. The reliability calculation method of the gravity dam (DS-FEM-CNN-LSTM-MC) is established. Finally, numerical results show that the proposed DS-FEM-CNN-LSTM-MC method performs better than the existing methods in terms of computational time consumption and accuracy.

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来源期刊
Network-Computation in Neural Systems
Network-Computation in Neural Systems 工程技术-工程:电子与电气
CiteScore
3.70
自引率
1.30%
发文量
22
审稿时长
>12 weeks
期刊介绍: Network: Computation in Neural Systems welcomes submissions of research papers that integrate theoretical neuroscience with experimental data, emphasizing the utilization of cutting-edge technologies. We invite authors and researchers to contribute their work in the following areas: Theoretical Neuroscience: This section encompasses neural network modeling approaches that elucidate brain function. Neural Networks in Data Analysis and Pattern Recognition: We encourage submissions exploring the use of neural networks for data analysis and pattern recognition, including but not limited to image analysis and speech processing applications. Neural Networks in Control Systems: This category encompasses the utilization of neural networks in control systems, including robotics, state estimation, fault detection, and diagnosis. Analysis of Neurophysiological Data: We invite submissions focusing on the analysis of neurophysiology data obtained from experimental studies involving animals. Analysis of Experimental Data on the Human Brain: This section includes papers analyzing experimental data from studies on the human brain, utilizing imaging techniques such as MRI, fMRI, EEG, and PET. Neurobiological Foundations of Consciousness: We encourage submissions exploring the neural bases of consciousness in the brain and its simulation in machines.
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