Bridging the Gap between Label- and Reference-based Synthesis in Multi-attribute Image-to-Image Translation
Qiusheng Huang, Zhilin Zheng, Xueqi Hu, Li Sun, Qingli Li

TL;DR
This paper proposes a novel method to unify label- and reference-based image-to-image translation by embedding both into a shared space, enabling mutual enhancement and diverse high-quality multi-attribute translations.
Contribution
It introduces encoding modules that compare domain differences and a cycle consistency mechanism to bridge label- and reference-based synthesis in multi-attribute I2IT.
Findings
Mutually promotes label- and reference-based synthesis.
Achieves diverse results with high quality and style consistency.
Demonstrates improved translation performance through shared embedding.
Abstract
The image-to-image translation (I2IT) model takes a target label or a reference image as the input, and changes a source into the specified target domain. The two types of synthesis, either label- or reference-based, have substantial differences. Particularly, the label-based synthesis reflects the common characteristics of the target domain, and the reference-based shows the specific style similar to the reference. This paper intends to bridge the gap between them in the task of multi-attribute I2IT. We design the label- and reference-based encoding modules (LEM and REM) to compare the domain differences. They first transfer the source image and target label (or reference) into a common embedding space, by providing the opposite directions through the attribute difference vector. Then the two embeddings are simply fused together to form the latent code S_rand (or S_ref), reflecting the…
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Taxonomy
TopicsGenerative Adversarial Networks and Image Synthesis · Advanced Image Processing Techniques · Advanced Vision and Imaging
MethodsDense Connections · Convolution · Q-Learning · Deep Q-Network · Random Ensemble Mixture · Spatially-Adaptive Normalization
