The proposed method leverages a privileged end-to-end decoder to correct the score function of a diffusion model, achieving better perceptual quality while guaranteeing distortion.
Utilizing theoretical bounds to guide neural image codecs improves performance significantly.
Neural image compression is improved by the Quantization Rectifier method, preserving feature expressiveness for better image quality.
Learned Image Compression with ROI-Weighted Distortion and Bit Allocation enhances perceptual quality through region-based bit allocation.
Non-isotropic diffusion model and innovative entropy model improve image compression quality.
Enhancing image compression through a conditional diffusion-based decoder and an innovative entropy model.
提案された周波数感知トランスフォーマー(FAT)ブロックは、LICにおける多様な周波数情報のモデリングに挑戦し、状態-of-the-artのレート-歪み性能を達成します。
Combining MSE-based models and generative models using Hierarchical-ROI and adaptive quantization improves visual quality at low bit rates.
Proposing a novel Frequency-Aware Transformer (FAT) block for learned image compression to capture multiscale and directional frequency components efficiently.
Decoding images with iterative diffusion models can achieve realistic reconstructions at ultra-low bitrates, surpassing traditional codecs.