Bionic Algorithm for Color Fusion of Infrared and Low Light Level Image Based on Rattlesnake Bimodal Cells

Night vision technology is becoming ever-more widely used in military and civil fields, and it will be more accurate for target detection and recognition through color fusion of infrared and low light level images. Since the classic Waxman fusion model-only simulates the rattlesnake's IR-depres...

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Main Authors: Zhen Zhang, Huiqi Li, Guoru Zhao
Format: Article
Language:English
Published: IEEE 2018-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/8531685/
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spelling doaj-2dfe484bd5f24dfaaef05fae6994fbf62021-03-29T21:36:53ZengIEEEIEEE Access2169-35362018-01-016689816898810.1109/ACCESS.2018.28808458531685Bionic Algorithm for Color Fusion of Infrared and Low Light Level Image Based on Rattlesnake Bimodal CellsZhen Zhang0https://orcid.org/0000-0003-4307-6577Huiqi Li1Guoru Zhao2CAS Key Laboratory of Health Informatics, Shenzhen Institutes of Advanced Technology, Chinese Academy of Sciences, Shenzhen, ChinaCAS Key Laboratory of Health Informatics, Shenzhen Institutes of Advanced Technology, Chinese Academy of Sciences, Shenzhen, ChinaCAS Key Laboratory of Health Informatics, Shenzhen Institutes of Advanced Technology, Chinese Academy of Sciences, Shenzhen, ChinaNight vision technology is becoming ever-more widely used in military and civil fields, and it will be more accurate for target detection and recognition through color fusion of infrared and low light level images. Since the classic Waxman fusion model-only simulates the rattlesnake's IR-depressed Visual Cell and the target in fusion image is not obvious, a novel fusion model is proposed in this paper. We enhance the edge information through the ON neural network for the infrared and low light-level images and then establish a mathematical model to process the rattlesnake's “enhanced cells”and “depressed cells”. Next, we input the ON-central receptive field for fusion and RGB spatial mapping, which can fully realize the union function of the “enhanced cells”and “depressed cells”. Finally, we conduct comparative experiments and image quality evaluation with the classical Waxman fusion model. The results show that image targets are more obvious obtained by our algorithm and increased by an average of 51.97%, 4.07%, and 7.62% than Waxman algorithm in terms of color, mutual information, and structural similarity, respectively. It turned out that our fusion images are richer in color than the Waxman fusion images, which contain more source image information, and more similar to the source image structure.https://ieeexplore.ieee.org/document/8531685/Infrared imagelow light level imagecolor fusionbionicbimodal cell
collection DOAJ
language English
format Article
sources DOAJ
author Zhen Zhang
Huiqi Li
Guoru Zhao
spellingShingle Zhen Zhang
Huiqi Li
Guoru Zhao
Bionic Algorithm for Color Fusion of Infrared and Low Light Level Image Based on Rattlesnake Bimodal Cells
IEEE Access
Infrared image
low light level image
color fusion
bionic
bimodal cell
author_facet Zhen Zhang
Huiqi Li
Guoru Zhao
author_sort Zhen Zhang
title Bionic Algorithm for Color Fusion of Infrared and Low Light Level Image Based on Rattlesnake Bimodal Cells
title_short Bionic Algorithm for Color Fusion of Infrared and Low Light Level Image Based on Rattlesnake Bimodal Cells
title_full Bionic Algorithm for Color Fusion of Infrared and Low Light Level Image Based on Rattlesnake Bimodal Cells
title_fullStr Bionic Algorithm for Color Fusion of Infrared and Low Light Level Image Based on Rattlesnake Bimodal Cells
title_full_unstemmed Bionic Algorithm for Color Fusion of Infrared and Low Light Level Image Based on Rattlesnake Bimodal Cells
title_sort bionic algorithm for color fusion of infrared and low light level image based on rattlesnake bimodal cells
publisher IEEE
series IEEE Access
issn 2169-3536
publishDate 2018-01-01
description Night vision technology is becoming ever-more widely used in military and civil fields, and it will be more accurate for target detection and recognition through color fusion of infrared and low light level images. Since the classic Waxman fusion model-only simulates the rattlesnake's IR-depressed Visual Cell and the target in fusion image is not obvious, a novel fusion model is proposed in this paper. We enhance the edge information through the ON neural network for the infrared and low light-level images and then establish a mathematical model to process the rattlesnake's “enhanced cells”and “depressed cells”. Next, we input the ON-central receptive field for fusion and RGB spatial mapping, which can fully realize the union function of the “enhanced cells”and “depressed cells”. Finally, we conduct comparative experiments and image quality evaluation with the classical Waxman fusion model. The results show that image targets are more obvious obtained by our algorithm and increased by an average of 51.97%, 4.07%, and 7.62% than Waxman algorithm in terms of color, mutual information, and structural similarity, respectively. It turned out that our fusion images are richer in color than the Waxman fusion images, which contain more source image information, and more similar to the source image structure.
topic Infrared image
low light level image
color fusion
bionic
bimodal cell
url https://ieeexplore.ieee.org/document/8531685/
work_keys_str_mv AT zhenzhang bionicalgorithmforcolorfusionofinfraredandlowlightlevelimagebasedonrattlesnakebimodalcells
AT huiqili bionicalgorithmforcolorfusionofinfraredandlowlightlevelimagebasedonrattlesnakebimodalcells
AT guoruzhao bionicalgorithmforcolorfusionofinfraredandlowlightlevelimagebasedonrattlesnakebimodalcells
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