Skip to content

The direct application of this method to VAE #15

Open

Description

@lavinal712

Great work!

I have a couple of questions regarding the potential extension of your work:

Application to VAE:
Given that continuous modeling often outperforms VQ (Vector Quantization), do you think your approach could be applied to Autoencoder-KL (Variational Autoencoder with Kullback-Leibler divergence)? Specifically, could the continuous latent representations in your framework be adapted to improve the performance or efficiency of VAE models?

Unifying High-Level and Low-Level Representations via Distillation:
Have you considered using distillation techniques to unify high-level and low-level representations within your framework? For instance, could a teacher model with advanced representations guide a student model to learn both high-level semantic features and low-level perceptual details, thereby creating a more cohesive and efficient multimodal system?

I believe addressing these questions could further enhance the versatility and impact of your already groundbreaking work. Thank you for your time, and I look forward to your insights!

Activity

  1. QuLiao1117 commented on Jan 7, 2025

    @QuLiao1117
    Contributor

    @lavinal712 Thanks for your attention to TokenFlow.

    Regarding application to VAE:

    • The approach could potentially be adapted to continuous latent space by learning a joint continuous representation encompassing both semantic and low-level features. This could function as a general visual encoder and be applied to other downstream tasks.

    Regarding unification through distillation:

    • We have not yet explored using distillation techniques to unify high-level and low-level representations. It would be promising to guide a student model to simultaneously learn both high-level semantic features and low-level perceptual details.
  2. bollossom commented on Oct 14, 2026

    @bollossom

    Hi, the continuous-latent and distillation direction discussed here is close to what we explored in HYDRA. We combine a continuous bottleneck with semantic distillation and a flow decoder, and evaluate the tokenizer on both understanding and generation.

    I'm one of the authors. Our training and evaluation code, weights, and training logs are available if useful as a related implementation.

Sign up for free to join this conversation on GitHub. Already have an account? Sign in to comment

Metadata

Metadata

Assignees

No one assigned

    Labels

    No labels
    No labels

    Type

    No type

    Projects

    No projects

      Milestone

      No milestone

      Relationships

      None yet

      Development

      No branches or pull requests

      Issue actions