RoAR-VAE: Improving Latent Diffusability through Robust Prediction
An effective visual tokenizer must preserve image fidelity while producing latents that downstream diffusion models can learn efficiently.
ProofPaper ↗
Key points
- Prior work improves latent diffusability through semantic alignment or joint tokenizer--diffusion training.
- Revisiting REPA-E, a representative approach, we find that removing its diffusion objective and dedicated generative blocks while retaining semantic prediction from corrupted latents yields comparable downstream generation performance under a matched setting.
- RobustAlign predicts pretrained semantic features from corrupted latents to preserve high-level structure, while RobustRecon reconstructs the clean image to retain fine-grained spatial and appearance information.
- These results demonstrate that RoAR-VAE achieves a favorable balance between reconstruction fidelity and downstream generative learnability.
Sources (2)
- [1]RoAR-VAE: Improving Latent Diffusability through Robust PredictionHugging Face Daily Papers · Oct 19, 12:00 AM
An effective visual tokenizer must preserve image fidelity while producing latents that downstream diffusion models can learn efficiently.
Prior work improves latent diffusability through semantic alignment or joint tokenizer--diffusion training.
- [2]RoAR-VAE: Improving Latent Diffusability through Robust PredictionarXiv (AI, ML, NLP, CV, robotics, multi-agent) · Oct 19, 11:42 AM · same content
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Before this
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