CoDe: An Explicit Content Decoupling Framework for Image Restoration
The performance of image restoration (IR) is highly dependent on the reconstruction quality of diverse contents with varying complexity. However most IR approaches model the mapping between various complexity contents of inputs and outputs through the repeated feature calculation propagation mechanism in a unified pipeline which leads to unsatisfactory results. To address this issue we propose an explicit Content Decoupling framework for IR dubbed CoDe to end-to-end model the restoration process by utilizing decoupled content components in a divide-and-conquer-like architecture. Specifically a Content Decoupling Module is first designed to decouple content components of inputs and outputs according to the frequency spectra adaptively generated from the transform domain. In addition in order to harness the divide-and-conquer strategy for reconstructing decoupled content components we propose an IR Network Container. It contains an optimized version which is a streamlining of an arbitrary IR network comprising the cascaded modulated subnets and a Reconstruction Layers Pool. Finally a Content Consistency Loss is designed from the transform domain perspective to supervise the restoration process of each content component and further guide the feature fusion process. Extensive experiments on several IR tasks such as image super-resolution image denoising and image blurring covering both real and synthetic settings demonstrate that the proposed paradigm can effectively take the performance of the original network to a new state-of-the-art level in multiple benchmark datasets (e.g. 0.34dB@Set5 x4 over DAT).
Code (0)
등록된 구현이 없습니다.
Tasks
DenoisingImage DenoisingImage RestorationImage Super-ResolutionSuper-ResolutionSimilar Papers 제목 키워드 기반
OmniAID: Decoupling Semantic and Artifacts for Universal AI-Generated Image Detection in the Wild
A truly universal AI-Generated Image (AIGI) detector must simultaneously generalize across diverse generative models and varied semantic content. Current methods learn a single, entangled forgery representation, conflati…
Decoupling High and Low Frequencies for Faithful Image Generation with Fine Details
Latent generative models compress images into learned embeddings prior to synthesis, and the generation quality critically depends on how faithfully these embeddings preserve visual detail. We observe that while such emb…
Image GenerationSelect and Attend: Towards Controllable Content Selection in Text Generation
Many text generation tasks naturally contain two steps: content selection and surface realization. Current neural encoder-decoder models conflate both steps into a black-box architecture. As a result, the content to be d…
DecoderHeadline GenerationText GenerationDecoupling Skeleton and Flesh: Efficient Multimodal Table Reasoning with Disentangled Alignment and Structure-aware Guidance
Reasoning over table images remains challenging for Large Vision-Language Models (LVLMs) due to complex layouts and tightly coupled structure-content information. Existing solutions often depend on expensive supervised t…
Reinforcement LearningDecoupling Global and Local Representations via Invertible Generative Flows
In this work, we propose a new generative model that is capable of automatically decoupling global and local representations of images in an entirely unsupervised setting, by embedding a generative flow in the VAE framew…
DecoderDensity EstimationImage GenerationRepresentation Learning+1