Multimodal Feature Fusion for Wide-Angle Image Generation

Image stitching combines visible light images from various perspectives to create wide-angle composites. However, adverse weather degrades these images, compromising stitching quality. Infrared sensors, which capture thermal radiation, excel in such conditions by highlighting targets. To overcome these challenges, we propose a multimodal fusion approach that integrates the robustness of infrared imaging with the rich textures of visible light. Our method uses a coarse-to-fine offset estimation based on infrared structural features and visible texture details, followed by a non-parametric Direct Linear Transformation for accurate geometric alignment, and finally fuses the stitched images to enhance scene perception. Tested on a real dataset of 530 multimodal pairs and a synthetic set of 200 pairs, our approach reduces average corner point error by 53%, eliminates ghosting, and boosts information entropy by 24.6% over DATFuse-UDIS++, demonstrating superior robustness and accuracy.

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Publication Details

Journal
International Journal of Scientific Engineering and Research
Published
2025-06-30
DOI
https://doi.org/10.70729/se25626090951
Primary Topic
Advanced Image Fusion Techniques
Type
article
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article

Multimodal Feature Fusion for Wide-Angle Image Generation

Qiyu Peng
International Journal of Scientific Engineering and Research
Advanced Image Fusion Techniques
article

Multimodal Feature Fusion for Wide-Angle Image Generation

Qiyu Peng
article en

Abstract

Image stitching combines visible light images from various perspectives to create wide-angle composites. However, adverse weather degrades these images, compromising stitching quality. Infrared sensors, which capture thermal radiation, excel in such conditions by highlighting targets. To overcome these challenges, we propose a multimodal fusion approach that integrates the robustness of infrared imaging with the rich textures of visible light. Our method uses a coarse-to-fine offset estimation based on infrared structural features and visible texture details, followed by a non-parametric Direct Linear Transformation for accurate geometric alignment, and finally fuses the stitched images to enhance scene perception. Tested on a real dataset of 530 multimodal pairs and a synthetic set of 200 pairs, our approach reduces average corner point error by 53%, eliminates ghosting, and boosts information entropy by 24.6% over DATFuse-UDIS++, demonstrating superior robustness and accuracy.

International Journal of Scientific Engineering and Research
North China Electric Power University (CN)
Openalex Percentile: Top 79%
Advanced Image Fusion Techniques
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Multimodal Feature Fusion for Wide-Angle Image Generation — Qiyu Peng · International Journal of Scientific Engineering and Research (2025) | TGRS Research Map | TGRS