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Eigenimage2Eigenimage (E2E): A Self-Supervised Deep Learning Network for Hyperspectral Image Denoising
Summary
This study introduces a self-supervised deep learning method for hyperspectral image (HSI) denoising, overcoming the lack of clean training data in remote sensing. The Eigenimage2Eigenimage (E2E) framework effectively removes noise from HSIs without needing paired data.
Area of Science:
- Remote Sensing
- Image Processing
- Deep Learning
Background:
- Deep learning denoisers require extensive paired noisy-clean data, which is scarce for hyperspectral images (HSIs).
- Existing methods struggle with the high dimensionality and spectral redundancy of HSIs.
Purpose of the Study:
- To develop a self-supervised learning framework for hyperspectral image denoising.
- To enable effective HSI denoising without requiring paired noisy-clean training data.
Main Methods:
- Proposed the Eigenimage2Eigenimage (E2E) framework, transforming HSI denoising into eigenimage denoising.
- Developed a self-supervised learning strategy to generate noisy-noisy paired training data from single noisy HSIs.
- Applied the E2E framework to denoise HSIs without constraints on the number of spectral bands.
Main Results:
- The E2E framework successfully trained a denoiser using only noisy data.
- Experimental results demonstrated superior performance compared to existing deep learning-based HSI denoising methods.
- The method effectively denoises HSIs across varying spectral band counts.
Conclusions:
- Self-supervised learning offers a viable solution for HSI denoising when clean data is unavailable.
- The E2E framework provides a robust and flexible approach for hyperspectral image denoising.
- The proposed method advances deep learning applications in remote sensing image analysis.
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