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Diffusion Models in Low-Level Vision: A Survey
Summary
This paper reviews denoising diffusion models for low-level vision tasks, offering a comprehensive overview of their theory, applications, and future directions. It synthesizes advances in diffusion models for high-quality image generation and processing.
Area of Science:
- Computer Vision
- Deep Learning
- Generative Models
Background:
- Deep generative models excel in low-level vision.
- Diffusion models are prominent for high-quality image generation.
- A comprehensive survey of diffusion models in low-level vision is lacking.
Purpose of the Study:
- To provide the first comprehensive review of denoising diffusion models in low-level vision.
- To cover theoretical and practical contributions.
- To synthesize advances and identify future research directions.
Main Methods:
- Outlined three general diffusion modeling frameworks.
- Explored connections with other deep generative models.
- Categorized diffusion models by framework and application.
- Reviewed benchmarks and evaluation metrics.
- Evaluated diffusion models across six representative tasks.
Main Results:
- Diffusion models demonstrate powerful generative capabilities in low-level vision.
- Applications span natural image processing, medical imaging, remote sensing, and video processing.
- Extensive evaluation shows quantitative and qualitative performance.
Conclusions:
- Denoising diffusion models are crucial for low-level vision tasks.
- Current limitations exist, with promising future research directions identified.
- This review fosters a deeper understanding of diffusion models in the field.
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