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A novel framework for prediction of dam deformation based on extreme learning machine and Lévy flight bat algorithm
Author(s) -
Youliang Chen,
Xiangjun Zhang,
Hamed Karimian,
Gang Xiao,
Jinsong Huang
Publication year - 2021
Publication title -
journal of hydroinformatics
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.654
H-Index - 50
eISSN - 1465-1734
pISSN - 1464-7141
DOI - 10.2166/hydro.2021.178
Subject(s) - extreme learning machine , generalization , kernel (algebra) , gaussian function , algorithm , deformation (meteorology) , deformation monitoring , polynomial kernel , computer science , artificial intelligence , function (biology) , machine learning , radial basis function kernel , kernel method , support vector machine , gaussian , mathematics , artificial neural network , geography , mathematical analysis , meteorology , physics , combinatorics , quantum mechanics , evolutionary biology , biology
Dam deformation monitoring and prediction are crucial for evaluating the safety of reservoirs. There are several elements that influence dam deformation. However, the mixed effects of these elements are not always linear. Oppose to a single-kernel extreme learning machine, which suffers from poor generalization performance and instability, in this study, we proposed an improved bat algorithm for dam deformation prediction based on a hybrid-kernel extreme learning machine. To improve the learning ability of the global kernel and the generalization ability of the local kernel, we combined the global kernel function (polynomial kernel function) and local kernel function (Gaussian kernel function). Moreover, a Lévy flight bat optimization algorithm (LBA) was proposed to overcome the shortages of bat algorithms. The results showed that our model outperformed other models. This proves that our proposed algorithm and methods can be used in dam deformation monitoring and prediction in different projects and regions.

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