Restoring Images Captured in Arbitrary Hybrid Adverse Weather Conditions
in One Go
- URL: http://arxiv.org/abs/2305.09996v2
- Date: Tue, 13 Jun 2023 05:57:07 GMT
- Title: Restoring Images Captured in Arbitrary Hybrid Adverse Weather Conditions
in One Go
- Authors: Ye-Cong Wan, Ming-Wen Shao, Yuan-Shuo Cheng, Yue-Xian Liu, Zhi-Yuan
Bao
- Abstract summary: We present a novel unified framework, dubbed RAHC, to Restore Arbitrary Hybrid adverse weather Conditions.
We also construct a new dataset, HAC, for learning and benchmarking arbitrary Hybrid Adverse Conditions restoration.
- Score: 2.0054257354429925
- License: http://creativecommons.org/licenses/by/4.0/
- Abstract: Adverse conditions typically suffer from stochastic hybrid weather
degradations (e.g., rainy and hazy night), while existing image restoration
algorithms envisage that weather degradations occur independently, thus may
fail to handle real-world complicated scenarios. Besides, supervised training
is not feasible due to the lack of a comprehensive paired dataset to
characterize hybrid conditions. To this end, we have advanced the
aforementioned limitations with two tactics: framework and data. First, we
present a novel unified framework, dubbed RAHC, to Restore Arbitrary Hybrid
adverse weather Conditions in one go. Specifically, our RAHC leverages a
multi-head aggregation architecture to learn multiple degradation
representation subspaces and then constrains the network to flexibly handle
multiple hybrid adverse weather in a unified paradigm through a discrimination
mechanism in the output space. Furthermore, we devise a reconstruction vectors
aided scheme to provide auxiliary visual content cues for reconstruction, thus
can comfortably cope with hybrid scenarios with insufficient remaining image
constituents. Second, we construct a new dataset, termed HAC, for learning and
benchmarking arbitrary Hybrid Adverse Conditions restoration. HAC contains 31
scenarios composed of an arbitrary combination of five common weather, with a
total of ~316K adverse-weather/clean pairs. Extensive experiments yield
superior results and establish new state-of-the-art results on both HAC and
conventional datasets.
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