KMS Of Academy of mathematics and systems sciences, CAS
p A Mixed Wavelet-Learning Method of Predicting Macroscopic Effective Heat Transfer Conductivities of Braided Composite Materials | |
Dong, Hao1; Kou, Wenbo1; Han, Junyan2; Linghu, Jiale1; Zou, Minqiang3; Cui, Junzhi4 | |
2022-02-01 | |
Source Publication | COMMUNICATIONS IN COMPUTATIONAL PHYSICS
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ISSN | 1815-2406 |
Volume | 31Issue:2Pages:593-625 |
Abstract | In this paper, a novel mixed wavelet-learning method is developed for predicting macroscopic effective heat transfer conductivities of braided composite materials with heterogeneous thermal conductivity. This innovative methodology integrates respective superiorities of multi-scale modeling, wavelet transform and neural networks together. By the aid of asymptotic homogenization method (AHM), off-line multi-scale modeling is accomplished for establishing the material database with highdimensional and highly-complex mappings. The multi-scale material database and the wavelet-learning strategy ease the on-line training of neural networks, and enable us to efficiently build relatively simple networks that have an essentially increasing capacity and resisting noise for approximating the high-complexity mappings. Moreover, it should be emphasized that the wavelet-learning strategy can not only extract essential data characteristics from the material database, but also achieve a tremendous reduction in input data of neural networks. The numerical experiments performed using multiple 3D braided composite models verify the excellent performance of the presented mixed approach. The numerical results demonstrate that the mixed waveletlearning methodology is a robust method for computing the macroscopic effective heat transfer conductivities with distinct heterogeneity patterns. The presented method can enormously decrease the computational time, and can be further expanded into estimating macroscopic effective mechanical properties of braided composites. |
Keyword | Braided composite materials macroscopic effective heat transfer conductivities multi-scale modeling neural networks wavelet transform |
DOI | 10.4208/cicp.OA-2021-0110 |
Indexed By | SCI |
Language | 英语 |
Funding Project | National Natural Science Foundation of China[51739007] ; National Natural Science Foundation of China[61971328] ; National Natural Science Foundation of China[12001414] ; Fundamental Research Funds for the Central Universities[JB210702] ; open foundation of Hubei Key Laboratory of Theory and Application of Advanced Materials Mechanics (Wuhan University of Technology)[WUT-TAM202104] ; China Postdoctoral Science Foundation[2018M643573] ; Natural Science Basic Research Program of Shaanxi Province[2019JQ-048] ; Center for high performance computing of Xidian University |
WOS Research Area | Physics |
WOS Subject | Physics, Mathematical |
WOS ID | WOS:000746990000001 |
Publisher | GLOBAL SCIENCE PRESS |
Citation statistics | |
Document Type | 期刊论文 |
Identifier | http://ir.amss.ac.cn/handle/2S8OKBNM/59927 |
Collection | 中国科学院数学与系统科学研究院 |
Corresponding Author | Dong, Hao; Cui, Junzhi |
Affiliation | 1.Xidian Univ, Sch Math & Stat, Xian 710071, Peoples R China 2.Xidian Univ, Sch Comp Sci & Technol, Xian 710071, Peoples R China 3.Xidian Univ, Sch Mechano Elect Engn, Xian 710071, Peoples R China 4.Chinese Acad Sci, LSEC, ICMSEC, Acad Math & Syst Sci, Beijing 100190, Peoples R China |
Recommended Citation GB/T 7714 | Dong, Hao,Kou, Wenbo,Han, Junyan,et al. p A Mixed Wavelet-Learning Method of Predicting Macroscopic Effective Heat Transfer Conductivities of Braided Composite Materials[J]. COMMUNICATIONS IN COMPUTATIONAL PHYSICS,2022,31(2):593-625. |
APA | Dong, Hao,Kou, Wenbo,Han, Junyan,Linghu, Jiale,Zou, Minqiang,&Cui, Junzhi.(2022).p A Mixed Wavelet-Learning Method of Predicting Macroscopic Effective Heat Transfer Conductivities of Braided Composite Materials.COMMUNICATIONS IN COMPUTATIONAL PHYSICS,31(2),593-625. |
MLA | Dong, Hao,et al."p A Mixed Wavelet-Learning Method of Predicting Macroscopic Effective Heat Transfer Conductivities of Braided Composite Materials".COMMUNICATIONS IN COMPUTATIONAL PHYSICS 31.2(2022):593-625. |
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