Image-based reinforced concrete component mechanical damage recognition and structural safety rapid assessment using deep learning with frequency information
Image-based reinforced concrete component mechanical damage recognition and structural safety rapid assessment using deep learning with frequency information
Safety assessment of post-event damaged structures is vital and significant because it directly affects life security, structural repair, and economic loss, especially in earthquakes. This study applies deep learning (DL) approaches to structural health monitoring and post-earthquake reconnaissance. An image-based procedure for reinforced concrete (RC) component damage recognition and structural safety rapid assessment is established. An RC component mechanical damage image dataset is built first, and comprehensive component damage recognition tasks (CDRTs) are proposed. EfficientNet-V2 is selected as the baseline model to perform CDRTs. The discrete wavelet transform module that integrates frequency information is then proposed to improve the performance and interpretability of the baseline model. Finally, component and structural damage are linked and structural safety rapid assessment methods based on the results of CDRTs are proposed. This study overcomes the limitations of manual inspections and advances the applications of DL techniques in civil engineering by incorporating frequency information.
Bai, Zhilin
7bb23b3d-31f1-448f-b338-a41dac5969be
Liu, Tiejun
07e72a65-be75-4b13-b54d-9ed949c93470
Zou, Dujian
f932d3d9-b218-4268-a86e-0bb63aec1e31
Zhang, Ming
fb6be749-9892-4426-81f6-8934f21d78ee
Zhou, Ao
5b42c2a4-26b2-416e-ab3c-446f1ece7a20
Li, Ye
86d13351-982d-46c3-9347-22794f647f86
21 March 2023
Bai, Zhilin
7bb23b3d-31f1-448f-b338-a41dac5969be
Liu, Tiejun
07e72a65-be75-4b13-b54d-9ed949c93470
Zou, Dujian
f932d3d9-b218-4268-a86e-0bb63aec1e31
Zhang, Ming
fb6be749-9892-4426-81f6-8934f21d78ee
Zhou, Ao
5b42c2a4-26b2-416e-ab3c-446f1ece7a20
Li, Ye
86d13351-982d-46c3-9347-22794f647f86
Bai, Zhilin, Liu, Tiejun, Zou, Dujian, Zhang, Ming, Zhou, Ao and Li, Ye
(2023)
Image-based reinforced concrete component mechanical damage recognition and structural safety rapid assessment using deep learning with frequency information.
Automation in Construction, 150, [104839].
(doi:10.1016/J.AUTCON.2023.104839).
Abstract
Safety assessment of post-event damaged structures is vital and significant because it directly affects life security, structural repair, and economic loss, especially in earthquakes. This study applies deep learning (DL) approaches to structural health monitoring and post-earthquake reconnaissance. An image-based procedure for reinforced concrete (RC) component damage recognition and structural safety rapid assessment is established. An RC component mechanical damage image dataset is built first, and comprehensive component damage recognition tasks (CDRTs) are proposed. EfficientNet-V2 is selected as the baseline model to perform CDRTs. The discrete wavelet transform module that integrates frequency information is then proposed to improve the performance and interpretability of the baseline model. Finally, component and structural damage are linked and structural safety rapid assessment methods based on the results of CDRTs are proposed. This study overcomes the limitations of manual inspections and advances the applications of DL techniques in civil engineering by incorporating frequency information.
Text
Image-based reinforced concrete component mechanical damage recognition and structural safety rapid assessment using deep learning with frequency information
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Accepted/In Press date: 11 March 2023
e-pub ahead of print date: 21 March 2023
Published date: 21 March 2023
Identifiers
Local EPrints ID: 498369
URI: http://eprints.soton.ac.uk/id/eprint/498369
ISSN: 0926-5805
PURE UUID: 05b6732f-8eea-44da-ad69-f051dc3e008f
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Date deposited: 17 Feb 2025 17:45
Last modified: 18 Feb 2025 03:12
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Contributors
Author:
Zhilin Bai
Author:
Tiejun Liu
Author:
Dujian Zou
Author:
Ming Zhang
Author:
Ao Zhou
Author:
Ye Li
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