Damage Scene Change Detection Based on Infrared Polarization Imaging and Fast-PCANet

Change detection based on optical image processing plays a crucial role in the field of damage assessment. Although existing damage scene change detection methods have achieved some good results, they are faced with challenges, such as low accuracy and slow speed in optical image change detection. T...

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Main Authors: Min Yang, Jie Yang, Hongxia Mao, Chong Zheng
Format: Article
Language:English
Published: MDPI AG 2024-09-01
Series:Remote Sensing
Subjects:
Online Access:https://www.mdpi.com/2072-4292/16/19/3559
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author Min Yang
Jie Yang
Hongxia Mao
Chong Zheng
author_facet Min Yang
Jie Yang
Hongxia Mao
Chong Zheng
author_sort Min Yang
collection DOAJ
description Change detection based on optical image processing plays a crucial role in the field of damage assessment. Although existing damage scene change detection methods have achieved some good results, they are faced with challenges, such as low accuracy and slow speed in optical image change detection. To solve these problems, an image change detection approach that combines infrared polarization imaging with a fast principal component analysis network (Fast-PCANet) is proposed. Firstly, the acquired infrared polarization images are analyzed, and pixel image blocks are extracted and filtered to obtain the candidate change points. Then, the Fast-PCANet network framework is established, and the candidate pixel image blocks are sent to the network to detect the change pixel points. Finally, the false-detection points predicted by the Fast-PCANet are further corrected by region filling and filtering to obtain the final binary change map of the damage scene. Comparisons with typical PCANet-based change detection algorithms are made on a dataset of infrared-polarized images. The experimental results show that the proposed Fast-PCANet method improves the <i>PCC</i> and the <i>Kappa</i> coefficient of infrared polarization images over infrared intensity images by 6.77% and 13.67%, respectively. Meanwhile, the inference speed can be more than seven times faster. The results verify that the proposed approach is effective and efficient for the change detection task with infrared polarization imaging. The study can be applied to the damage assessment field and has great potential for object recognition, material classification, and polarization remote sensing.
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spelling doaj-art-c162d34a780348b894167261ccc38be12025-08-20T01:47:34ZengMDPI AGRemote Sensing2072-42922024-09-011619355910.3390/rs16193559Damage Scene Change Detection Based on Infrared Polarization Imaging and Fast-PCANetMin Yang0Jie Yang1Hongxia Mao2Chong Zheng3National Key Laboratory of Scattering and Radiation, Beijing 100854, ChinaCollege of Information and Electrical Engineering, China Agricultural University, Beijing 100091, ChinaNational Key Laboratory of Scattering and Radiation, Beijing 100854, ChinaNational Key Laboratory of Scattering and Radiation, Beijing 100854, ChinaChange detection based on optical image processing plays a crucial role in the field of damage assessment. Although existing damage scene change detection methods have achieved some good results, they are faced with challenges, such as low accuracy and slow speed in optical image change detection. To solve these problems, an image change detection approach that combines infrared polarization imaging with a fast principal component analysis network (Fast-PCANet) is proposed. Firstly, the acquired infrared polarization images are analyzed, and pixel image blocks are extracted and filtered to obtain the candidate change points. Then, the Fast-PCANet network framework is established, and the candidate pixel image blocks are sent to the network to detect the change pixel points. Finally, the false-detection points predicted by the Fast-PCANet are further corrected by region filling and filtering to obtain the final binary change map of the damage scene. Comparisons with typical PCANet-based change detection algorithms are made on a dataset of infrared-polarized images. The experimental results show that the proposed Fast-PCANet method improves the <i>PCC</i> and the <i>Kappa</i> coefficient of infrared polarization images over infrared intensity images by 6.77% and 13.67%, respectively. Meanwhile, the inference speed can be more than seven times faster. The results verify that the proposed approach is effective and efficient for the change detection task with infrared polarization imaging. The study can be applied to the damage assessment field and has great potential for object recognition, material classification, and polarization remote sensing.https://www.mdpi.com/2072-4292/16/19/3559infrared polarization imagingFast-PCANetdamage scenechange detection
spellingShingle Min Yang
Jie Yang
Hongxia Mao
Chong Zheng
Damage Scene Change Detection Based on Infrared Polarization Imaging and Fast-PCANet
Remote Sensing
infrared polarization imaging
Fast-PCANet
damage scene
change detection
title Damage Scene Change Detection Based on Infrared Polarization Imaging and Fast-PCANet
title_full Damage Scene Change Detection Based on Infrared Polarization Imaging and Fast-PCANet
title_fullStr Damage Scene Change Detection Based on Infrared Polarization Imaging and Fast-PCANet
title_full_unstemmed Damage Scene Change Detection Based on Infrared Polarization Imaging and Fast-PCANet
title_short Damage Scene Change Detection Based on Infrared Polarization Imaging and Fast-PCANet
title_sort damage scene change detection based on infrared polarization imaging and fast pcanet
topic infrared polarization imaging
Fast-PCANet
damage scene
change detection
url https://www.mdpi.com/2072-4292/16/19/3559
work_keys_str_mv AT minyang damagescenechangedetectionbasedoninfraredpolarizationimagingandfastpcanet
AT jieyang damagescenechangedetectionbasedoninfraredpolarizationimagingandfastpcanet
AT hongxiamao damagescenechangedetectionbasedoninfraredpolarizationimagingandfastpcanet
AT chongzheng damagescenechangedetectionbasedoninfraredpolarizationimagingandfastpcanet