An Algorithm of Deformation Image Correction Based on Spatial Mapping

The original image undergoes geometric deformation in terms of position, shape, size, and orientation due to the shooting angle or capturing process during image acquisition. This leads to inconveniences and significant challenges in various image processing fields such as image fusion, denoising, recognition, and segmentation. To enhance the processing ability and recognition accuracy of deformation images, an adaptive algorithm for correcting image deformities is proposed for quadrilaterals and triangles. Firstly, the deformation image undergoes preprocessing, and the contour of the image edge is extracted. Then, discrete points on the image edge are identified to accurately locate the edges. Finally, the deformation of the quadrilateral or triangle is transformed into a standard rectangular or equilateral triangular image using the proposed three-dimensional homography transformation algorithm. This effectively completes the conversion from an irregular image to a regular image in an adaptive manner. Numerous experiments demonstrate that the proposed algorithm surpasses traditional methods like Hough transform and Radon transform. It improves the effectiveness of correcting deformation in images, effectively addresses the issue of geometric deformation, and provides a new technical method for processing deformation images.

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Publication Details

Journal
Chinese Journal of Electronics
Published
2024-09-01
DOI
https://doi.org/10.23919/cje.2022.00.443
Primary Topic
Image and Video Stabilization
Type
article
Field-Weighted Citation Impact
0.00

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article

An Algorithm of Deformation Image Correction Based on Spatial Mapping

Xiangyu Deng, Aijia Zhang, Jinhong Ye
Chinese Journal of Electronics
Image and Video Stabilization
article

An Algorithm of Deformation Image Correction Based on Spatial Mapping

Xiangyu Deng, Aijia Zhang, Jinhong Ye
article en

Abstract

The original image undergoes geometric deformation in terms of position, shape, size, and orientation due to the shooting angle or capturing process during image acquisition. This leads to inconveniences and significant challenges in various image processing fields such as image fusion, denoising, recognition, and segmentation. To enhance the processing ability and recognition accuracy of deformation images, an adaptive algorithm for correcting image deformities is proposed for quadrilaterals and triangles. Firstly, the deformation image undergoes preprocessing, and the contour of the image edge is extracted. Then, discrete points on the image edge are identified to accurately locate the edges. Finally, the deformation of the quadrilateral or triangle is transformed into a standard rectangular or equilateral triangular image using the proposed three-dimensional homography transformation algorithm. This effectively completes the conversion from an irregular image to a regular image in an adaptive manner. Numerous experiments demonstrate that the proposed algorithm surpasses traditional methods like Hough transform and Radon transform. It improves the effectiveness of correcting deformation in images, effectively addresses the issue of geometric deformation, and provides a new technical method for processing deformation images.

Chinese Journal of ElectronicsVol. 33(5)
Northwest Normal University (CN)
National Natural Science Foundation of China, Gansu Education Department
Openalex Percentile: Top 86%
Image and Video Stabilization
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