Physics-Driven Turbulence Image Restoration with Stochastic Refinement
Ajay Jaiswal, Xingguang Zhang, Stanley H. Chan, Zhangyang Wang

TL;DR
This paper introduces PiRN and PiRN-SR, physics-based neural networks that improve turbulence image restoration by integrating stochastic simulation, leading to better generalization and perceptual quality in real-world conditions.
Contribution
The paper presents a novel physics-integrated neural network framework with stochastic refinement for turbulence image restoration, enhancing generalization and perceptual quality.
Findings
PiRN and PiRN-SR outperform existing methods in real-world turbulence restoration.
The physics-based training improves generalization to unknown turbulence conditions.
Stochastic refinement boosts perceptual quality of restored images.
Abstract
Image distortion by atmospheric turbulence is a stochastic degradation, which is a critical problem in long-range optical imaging systems. A number of research has been conducted during the past decades, including model-based and emerging deep-learning solutions with the help of synthetic data. Although fast and physics-grounded simulation tools have been introduced to help the deep-learning models adapt to real-world turbulence conditions recently, the training of such models only relies on the synthetic data and ground truth pairs. This paper proposes the Physics-integrated Restoration Network (PiRN) to bring the physics-based simulator directly into the training process to help the network to disentangle the stochasticity from the degradation and the underlying image. Furthermore, to overcome the ``average effect" introduced by deterministic models and the domain gap between the…
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Taxonomy
TopicsAdvanced Image Processing Techniques · Adaptive optics and wavefront sensing · Image Enhancement Techniques
