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Fractional Derivatives Application to Image Fusion Problems
Szymon Motłoch1, Grzegorz Sarwas1, Andrzej Dzieliński1
1Institute of Control and Industrial Electronics, Warsaw University of Technology, ul. Koszykowa 75, 00-662 Warsaw, Poland.
This study analyzes fractional calculus for multispectral image fusion, exploring fractional derivatives and their impact on fusion quality. Results show fractional methods can outperform traditional integer-order derivative techniques.
Area of Science:
- Image Processing
- Calculus
- Computer Vision
Background:
- Multispectral image fusion combines information from multiple spectral bands to enhance image quality.
- Fractional calculus offers advanced mathematical tools for signal and image analysis.
- Traditional image processing often relies on integer-order derivatives.
Purpose of the Study:
- To analyze the application of fractional order calculus in multispectral image fusion.
- To investigate the definitions and methods for calculating fractional order derivatives in digital images.
- To evaluate the impact of fractional order on image fusion quality and compare with integer-order methods.
Main Methods:
- Analysis of fractional order calculus definitions relevant to image processing.
- Testing various methods for computing fractional derivatives of digital images.
- Implementing and evaluating multispectral image fusion using fractional derivatives.
- Comparative analysis against fusion methods employing integer order derivatives.
Main Results:
- Demonstration of fractional order derivative methods for image fusion.
- Quantification of the influence of fractional order on fusion outcomes.
- Comparative performance assessment highlighting advantages of fractional methods.
Conclusions:
- Fractional order calculus provides a viable and effective approach for multispectral image fusion.
- The choice of fractional order significantly impacts the quality of the fused image.
- Fractional derivative-based fusion methods show potential for superior results compared to integer-order methods.
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