HATIR: Heat-Aware Diffusion for Turbulent Infrared Video Super-Resolution
Yang Zou, Xingyue Zhu, Kaiqi Han, Jun Ma, Xingyuan Li, Zhiying Jiang, Jinyuan Liu

TL;DR
HATIR introduces a heat-aware diffusion model that jointly addresses turbulence and resolution degradation in infrared video super-resolution, utilizing physical priors and a new dataset for turbulence-aware infrared VSR.
Contribution
The paper proposes a novel heat-aware diffusion framework with a phasor-guided flow estimator and turbulence-aware decoder, and introduces the FLIR-IVSR dataset for turbulent infrared VSR.
Findings
HATIR effectively models turbulent degradation and structural detail loss.
The method outperforms existing approaches on the FLIR-IVSR dataset.
The dataset provides a new benchmark for infrared VSR under turbulence.
Abstract
Infrared video has been of great interest in visual tasks under challenging environments, but often suffers from severe atmospheric turbulence and compression degradation. Existing video super-resolution (VSR) methods either neglect the inherent modality gap between infrared and visible images or fail to restore turbulence-induced distortions. Directly cascading turbulence mitigation (TM) algorithms with VSR methods leads to error propagation and accumulation due to the decoupled modeling of degradation between turbulence and resolution. We introduce HATIR, a Heat-Aware Diffusion for Turbulent InfraRed Video Super-Resolution, which injects heat-aware deformation priors into the diffusion sampling path to jointly model the inverse process of turbulent degradation and structural detail loss. Specifically, HATIR constructs a Phasor-Guided Flow Estimator, rooted in the physical principle…
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Code & Models
Videos
