基于机器学习的高层建筑风荷载功率谱预测算法研究
Prediction of Wind Load Power Spectrum on High-Rise Buildings by Machine Learning Based Algorithms
DOI: 10.12677/CSA.2022.125143, PDF,   
作者: 李慧真:上海勘测设计研究院有限公司,上海
关键词: 高层建筑功率谱机器学习超参数预测High-Rise Building Power Spectrum Machine Learning Hyperparameter Predicting
摘要: 为了评估机器学习算法预测高层建筑风效应的可行性,本研究开展了机器学习算法对高层建筑标准模型基底力矩系数风荷载功率密度谱预测的研究。机器学习模型的输入是湍流强度、风向角和折算频率,输出是风荷载基底弯矩系数功率谱。训练了三种机器学习算法:梯度提升回归树、直方图梯度提升回归树和XGBoost,采用Tree-structured Parzen Estimator和交叉验证的方法优化算法的超参数。通过对比三种算法在测试集的预测性能,发现梯度提升回归树算法能够很好地预测顺风向、横风向和扭转向的基底弯矩系数功率谱,且预测值与试验值之间的相关系数不低于0.97。研究表明了机器学习预测高层建筑标准模型风荷载功率谱的可行性,为机器学习应用于高层建筑的抗风设计提供参考。
Abstract: In order to evaluate the feasibility of machine learning algorithms for prediction of wind effects on high-rise buildings, machine learning algorithms have been adopted to predict base moment coefficient wind load power density spectrum on standard tall building model. The input of the machine learning model is turbulence intensity, wind directions and the reduced frequencies, and the out-put is the power spectrum of the along-wind, across-wind, and torque base moment coefficients. The three machine learning algorithms including gradient boosting regression tree, histogram gradient boosting regression tree and XGBoost were trained, the hyperparameters of the algorithms were optimized by the Tree-structured Parzen Estimator and cross-validation. By comparing the prediction performance of the three algorithms in the test set, it is found that the gradient boosting regression tree can predict the power spectrum of the base moment of standard tall building model well and the correlation coefficient between the predicted value and the experimental value is not less than 0.97. The study shows the feasibility of machine learning to predict the power spectrum of standard tall building model, and provides a reference for applying machine learning to wind-resistant design of high-rise buildings.
文章引用:李慧真. 基于机器学习的高层建筑风荷载功率谱预测算法研究[J]. 计算机科学与应用, 2022, 12(5): 1436-1449. https://doi.org/10.12677/CSA.2022.125143

参考文献

[1] 徐安, 谢壮宁, 葛建斌, 倪振华. CAARC高层建筑标准模型层风荷载谱数学模型研究[J]. 建筑结构学报, 2004, 24(4): 118-123.
[2] Lin, N., Latchford, C., Tamura, Y., Liang, B. and Nakamura, O. (2005) Characteristics of Wind Forces Acting on Tall Buildings. Journal of Wind Engineering and Industrial Aerodynamics, 93, 217-242. [Google Scholar] [CrossRef
[3] Huang, G.Q. and Chen, X.Z. (2007) Wind Load Effects and Equivalent Static Wind Loads of Tall Buildings Based on Synchronous Pressure Measurements. Engineering Structures, 29, 2641-2653. [Google Scholar] [CrossRef
[4] Saunders, J.W. and Melbourne, W.H. (1975) Tall Rectangular Building Response to Cross-Wind Excitation. 4th International Conference on Wind Effects on Buildings and Structures, Heathrow, 369-379.
[5] 叶丰. 高层建筑顺、横风向和扭转方向风致响应及静力等效风荷载研究[D]: [博士学位论文]. 上海: 同济大学, 2004.
[6] Liang, S.G., Li, Q.S., Liu, S.C., Zhang, L.L. and Gu, M. (2004) Torsional Dy-namic Wind Loads on Rectangular Tall Buildings. Engineering Structures, 26, 129-137. [Google Scholar] [CrossRef
[7] Li, Y., Li, Q.S. and Chen, F.B. (2017) Wind Tunnel Study of Wind-Induced Torques on L-Shaped Tall Buildings. Journal of Wind Engineering and Industrial Aerodynamics, 167, 41-50. [Google Scholar] [CrossRef
[8] Li, Y., Zhang, J.W. and Li, Q.S. (2014) Experimental In-vestigation of Characteristics of Torsional Wind Loads on Rectangular Tall Buildings. Structural Engineering and Me-chanics, 49, 129-145. [Google Scholar] [CrossRef
[9] Yan, Y., Lu, D. and Wang, K. (2021) Accelerated Discovery of Single-Phase Refractory High Entropy Alloys Assisted by Machine Learning. Computational Materials Science, 199, Article ID: 110723. [Google Scholar] [CrossRef
[10] Zhang, L., He, M. and Shao, S. (2020) Machine Learning for Halide Perovskite Materials. Nano Energy, 78, Article ID: 105380. [Google Scholar] [CrossRef
[11] 李孝虔. 基于卷积神经网络的心脏病预测方法研究[D]: [硕士学位论文]. 哈尔滨: 东北林业大学, 2019.
[12] 郭宪. 基于梯度提升决策回归树的公交行程时间预测方法[D]: [硕士学位论文]. 武汉: 华中科技大学, 2019.
[13] Hu, G. and Kwok, K.C.S. (2020) Predicting Wind Pressures around Circular Cylinders Using Machine Learning Techniques. Journal of Wind Engineering and Industrial Aerody-namics, 198, Article ID: 104099. [Google Scholar] [CrossRef
[14] Lin, P.F., Hu, G., Li, C., Li, L.X., Xiao, Y.Q., Tse, K.T. and Kwok, K.C.S. (2021) Machine Learning-Based Prediction of Crosswind Vibrations of Rectangular Cylinders. Journal of Wind Engineering and Industrial Aerodynamics, 211, Article ID: 104549. [Google Scholar] [CrossRef
[15] Wardlaw, R.L. and Moss, G.F. (1970) A Standard Tall Building Model for the Comparison of Simulated Natural Winds in Wind Tunnels. Commonwealth Advisory Aeronautical Re-search Council, London.
[16] Melbourne, W.H. (1980) Comparison of Measurements on the CAARC Standard Tall Building Model in Simulated Model Wind Flows. Journal of Wind Engineering and Industrial Aerodynamics, 6, 73-88. [Google Scholar] [CrossRef
[17] Li, Y., Li, C., Li, Q.S., Song, Q., Huang, X. and Li, Y.G. (2020) Aerodynamic Performance of CAARC Standard Tall Building Model by Various Corner Chamfers. Journal of Wind Engineering and Industrial Aerodynamics, 202, Article ID: 104197. [Google Scholar] [CrossRef
[18] Li, Y., Song, Q., Li, C., Huang, X. and Zhang, Y. (2022) Reduc-tion of Wind Loads on Rectangular Tall Buildings with Different Taper Ratio. Journal of Building Engineering, 46, Arti-cle ID: 103588. [Google Scholar] [CrossRef
[19] 中华人民共和国国家标准. GB 50009-2012. 建筑结构荷载规范[S]. 北京: 中国建筑工业出版社, 2012.
[20] Hu, G., Liu, L.B., Tao, D.C., Song, J., Tse, K.T. and Kwok, K.C.S. (2020) Deep Learning-Based Investigation of Wind Pressures on Tall Building under Interference Effects. Journal of Wind Engineering and Industrial Aerodynamics, 201, 104138. [Google Scholar] [CrossRef
[21] Liao, H.L., Mei, H.Y., Hu, G., Wu, B. and Wang, Q. (2021) Machine Learning Strategy for Predicting Flutter Performance of Streamlined Box Girders. Journal of Wind Engineering and Industrial Aerodynamics, 209, Article ID: 104493. [Google Scholar] [CrossRef
[22] Vakharia, V. and Gujar, R. (2019) Prediction of Compressive Strength and Portland Cement Composition Using Cross-Validation and Feature Ranking Techniques. Construction and Building Materials, 225, 292-301. [Google Scholar] [CrossRef
[23] Jiang, P. and Chen, J. (2016) Displacement Prediction of Landslide Based on Generalized Regression Neural Networks with K-Fold Cross-Validation. Neurocomputing, 198, 40-47. [Google Scholar] [CrossRef
[24] Reich, Y. and Barai, S.V. (1999) Evaluating Machine Learning Models for Engineering Problems. Artificial Intelligence in Engineering, 13, 257-272. [Google Scholar] [CrossRef
[25] Refaeilzadeh, P., Tang, L. and Huan, L. (2009) Cross-Validation. In: Liu, L. and Özsu, M.T., Eds., Encyclopedia of Database Systems, Springer, Boston, 532-538. [Google Scholar] [CrossRef
[26] Dong, H., He, D. and Wang, F. (2020) SMOTE-XGBoost Using Tree Parzen Estimator Optimization for Copper Flotation Method Classification. Powder Technology, 375, 174-181. [Google Scholar] [CrossRef
[27] Jo, Y., Min, K., Jung, D., Sunwoo, M. and Han, M. (2019) Comparative Study of the Artificial Neural Network with Three Hyper-Parameter Optimization Methods for the Precise LP-EGR Estimation Using In-Cylinder Pressure in A Turbocharged GDI Engine. Applied Thermal Engineering, 149, 1324-1334. [Google Scholar] [CrossRef
[28] Nguyen, H., Liu, J. and Zio, E. (2020) A Long-Term Prediction Approach Based on Long Short-Term Memory Neural Networks with Automatic Parameter Optimization by Tree-Structured Parzen Estimator and Applied to Time-Series Data of NPP Steam Generators. Applied Soft Computing Journal, 89, Article ID: 106116. [Google Scholar] [CrossRef
[29] Liu, J. and Huang, Q., Ulishney, C. and Dumitrescu, C.E. (2021) Machine Learning Assisted Prediction of Exhaust Gas Temperature of a Heavy-Duty Natural Gas Spark Ignition Engine. Applied Energy, 300, Article ID: 117413. [Google Scholar] [CrossRef
[30] Elith, J., Leathwick, J.R. and Hastie, T. (2008) A Working Guide to Boosted Regression Trees. Journal of Animal Ecology, 77, 802-813. [Google Scholar] [CrossRef] [PubMed]
[31] Chen, T. and Guestrin, C. (2016) XGBoost: A Scalable Tree Boosting System. Proceedings of the 22nd ACM SIGKDD International Conference on Knowledge Discovery and Data Mining, Vol. 16, San Francisc, 13-17 August 2016, 785-794. [Google Scholar] [CrossRef
[32] Tao, T., Liu, Y.Q., Qiao, Y.H., Gao, L.Y., Lu, J.Y., Zhang, C. and Wang, Y. (2021) Wind Turbine Blade Icing Diagnosis Using Hybrid Features and Stacked-XGBoost Algorithm. Re-newable Energy, 180, 1004-1013. [Google Scholar] [CrossRef
[33] Trizoglou, P., Liu, X. and Lin, Z. (2021) Fault Detection by an Ensemble Framework of Extreme Gradient Boosting (XGBoost) in the Operation of Offshore Wind Turbines. Renewable Energy, 179, 945-962. [Google Scholar] [CrossRef
[34] 唐意. 高层建筑弯扭耦合风致振动及静力等效风荷载研究[D]: [博士学位论文]. 上海: 同济大学, 2006.
[35] 全涌. 超高层建筑横风向风荷载及响应研究[D]: [博士学位论文]. 上海: 同济大学, 2002.
[36] 李永贵. 高层建筑风荷载与风致弯扭耦合响应研究[D]: [博士学位论文]. 长沙: 湖南大学, 2012.