Browse State-of-the-Art › JPEG Artifact Correction
JPEG Artifact Correction
12 papers with code · 39 benchmarks · 5 datasets archive 2025-07-28
Correction of visual artifacts caused by JPEG compression, these artifacts are usually grouped into three types: blocking, blurring, and ringing. They are caused by quantization and removal of high frequency DCT coefficients.
Description from the archive archive 2025-07-28.
Benchmarks archive 2025-07-28
39 leaderboard tables shown for this task, 39 with rows (a “benchmark” on this site is a table with at least one row, as on /sota), ordered by row count. “Best model” is the first row in the archive's own order at snapshot; nothing is re-ranked here and metric direction is not recorded in the archive. PwC's Trend sparklines are not in the archive, so that column is omitted. 10 shown of 39 until expanded.
Syntology column: samples harvested from the paper's repositories and executed on synthesized fixtures; “ran” is not a correctness claim and does not order the table. A dash means no Syntology record for that paper, not a recorded non-run. Read from the graph 2026-09-24.
Libraries
Not in the archive: the export carries no per-task library table, so there is nothing to show at snapshot 2025-07-28.
Datasets archive 2025-07-28
5 datasets whose archive record lists this task, ordered by the archive's paper count.
Subtasks archive 2025-07-28
No subtask under this task in the archive's task tree.
Parent tasks archive 2025-07-28
Most implemented papers archive 2025-07-28
12 shown of 12 papers with code (18 tagged with this task in all), ordered by repositories listed in the archive, not by stars (the archive holds no stars, so PwC's “Social” and “Latest” sorts cannot be reproduced). Papers without a page here are shown as plain text.
-
13 Aug 2016 22 repositories listed Syntology ran 1 of 6 samples · 5 unverifiedDiscriminative model learning for image denoising has been recently attracting considerable attentions due to its favorable denoising performance.
-
29 Jun 2016 17 repositories listedIn this work, we propose a very deep fully convolutional auto-encoder network for image restoration, which is a encoding-decoding framework with symmetric convolutional-deconvolutional layers.
-
22 Sep 2022 5 repositories listedUsing this method we can tackle the major issues in training transformer vision models, such as training instability, resolution gaps between pre-training and fine-tuning, and hunger on data.
-
18 May 2018 5 repositories listedWith the modified U-Net architecture, wavelet transform is introduced to reduce the size of feature maps in the contracting subnetwork.
-
27 Apr 2015 4 repositories listed Syntology ran 0 of 12 samples · 12 unverifiedLossy compression introduces complex compression artifacts, particularly the blocking artifacts, ringing effects and blurring.
-
25 Dec 2018 3 repositories listedWe fully exploit the hierarchical features from all the convolutional layers.
-
29 Sep 2021 2 repositories listed Syntology ran 9 of 11 samples · 2 unverifiedTraining a single deep blind model to handle different quality factors for JPEG image artifacts removal has been attracting considerable attention due to its convenience for practical usage.
-
7 Aug 2017 2 repositories listedWe apply MemNet to three image restoration tasks, i.
-
23 Sep 2022 1 repository listed Syntology ran 8 of 12 samples · 4 unverifiedDiffusion models can be used as learned priors for solving various inverse problems.
-
13 Jun 2022 1 repository listed Syntology ran 1 of 1 samples · 0 unverified · 1 pointer-only (licence)Adaptive image restoration models can restore images with different degradation levels at inference time without the need to retrain the model.
-
15 Sep 2020 1 repository listedOur proposed network is a single model approach that can be trained for handling a wide range of quality factors while consistently delivering superior or comparable image artifacts removal performance.
-
17 Apr 2020 1 repository listedThe JPEG image compression algorithm is the most popular method of image compression because of its ability for large compression ratios.
Syntology lines on 5 of the papers shown; no Syntology record for the others (a paper without an arXiv id cannot be joined to the graph, and absence from the graph layer is not a recorded non-run). “Ran” means the sample executed on a synthesized fixture, not that the paper's result was reproduced. Read from the graph 2026-09-24.
Report a problem or propose a change · a person checks every report against the paper or source before anything changes; decisions are listed on /corrections