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UMCFuse: A Unified Multiple Complex Scenes Infrared and Visible Image Fusion Framework
Summary
This study introduces UMCFuse, a novel framework for infrared and visible image fusion in complex scenes. UMCFuse enhances detail preservation and interference removal for superior performance in challenging conditions.
Area of Science:
- Computer Vision
- Image Processing
Background:
- Infrared and visible image fusion is crucial but underperforms in complex scenes with interference.
- Existing methods struggle with detail preservation and noise reduction in challenging environments.
Purpose of the Study:
- To develop a unified framework, UMCFuse, for robust infrared and visible image fusion in complex scenes.
- To improve fusion performance by balancing interference removal and detail preservation.
Main Methods:
- Classifying visible image pixels based on light scattering to separate details from intensity.
- Implementing an adaptive denoising strategy for detail layer fusion.
- Fusing multi-modal energy features by analyzing them from multiple directions.
Main Results:
- UMCFuse demonstrates superior performance over representative methods on complex scene datasets.
- The method excels in adverse conditions like noise, blur, and overexposure.
- Effective fusion is shown across various downstream tasks, including segmentation and object detection.
Conclusions:
- UMCFuse provides a significant advancement in infrared and visible image fusion for complex scenes.
- The proposed adaptive denoising and multi-directional feature fusion strategies are key to its success.
- The framework generalizes well to diverse challenging scenarios and downstream applications.
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