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Published:2026/1/5 11:28:58

低画質画像も最強!GleSAM++でセグメンテーション革命🚀

超要約:低画質画像も余裕でセグメンテーションできちゃう魔法の技術!✨

🌟 ギャル的キラキラポイント✨ ● 画質悪くても大丈夫!ノイズまみれの画像もキレイにセグメンテーションできるって神😇 ● 生成モデル(画像を作るモデル)で、画像の潜在能力(隠れた力)を最大限に引き出すのがスゴすぎ💖 ● 監視カメラとか医療画像とか、色んな分野で役立つから、将来性もバッチリ👍

🌟 詳細解説 ● 背景 画像セグメンテーション(画像の中のモノを判別する技術)って、色んな分野で超重要じゃん? でも、画質が悪いと精度が落ちちゃうのが悩みだったの。GleSAM++は、そんな悩みを解決するために生まれたんだって!

● 方法 GleSAM++は、生成モデルを使って、低画質画像を高品質な表現に変換するんだって。さらに、画像の劣化具合に合わせてノイズ除去の強さを調整する「DAE」って機能も搭載!もう、最強じゃん?😎

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Towards Any-Quality Image Segmentation via Generative and Adaptive Latent Space Enhancement

Guangqian Guo / Aixi Ren / Yong Guo / Xuehui Yu / Jiacheng Tian / Wenli Li / Yaoxing Wang / Shan Gao

Segment Anything Models (SAMs), known for their exceptional zero-shot segmentation performance, have garnered significant attention in the research community. Nevertheless, their performance drops significantly on severely degraded, low-quality images, limiting their effectiveness in real-world scenarios. To address this, we propose GleSAM++, which utilizes Generative Latent space Enhancement to boost robustness on low-quality images, thus enabling generalization across various image qualities. Additionally, to improve compatibility between the pre-trained diffusion model and the segmentation framework, we introduce two techniques, i.e., Feature Distribution Alignment (FDA) and Channel Replication and Expansion (CRE). However, the above components lack explicit guidance regarding the degree of degradation. The model is forced to implicitly fit a complex noise distribution that spans conditions from mild noise to severe artifacts, which substantially increases the learning burden and leads to suboptimal reconstructions. To address this issue, we further introduce a Degradation-aware Adaptive Enhancement (DAE) mechanism. The key principle of DAE is to decouple the reconstruction process for arbitrary-quality features into two stages: degradation-level prediction and degradation-aware reconstruction. Our method can be applied to pre-trained SAM and SAM2 with only minimal additional learnable parameters, allowing for efficient optimization. Extensive experiments demonstrate that GleSAM++ significantly improves segmentation robustness on complex degradations while maintaining generalization to clear images. Furthermore, GleSAM++ also performs well on unseen degradations, underscoring the versatility of our approach and dataset.

cs / cs.CV