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arXiv · 2607.03624

RADIO1D: Elastic Representations for Condensed Vision Modeling

Greg Heinrich·Mike Ranzinger·Collin McCarthy·Natan Bagrov·Eugene Khvedchenya·Bryan Catanzaro·Jan Kautz·Andrew Tao·Pavlo Molchanov
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Abstract

This paper challenges the assumption that vision-language models (VLMs) require fixed patch-based 2D vision features. Analyzing fine-tuned vision encoders, we find that representations become increasingly abstract and less spatially coherent during VLM training. Notably, models trained with image-text alignment (such as SigLIP2) develop a small number of specialized tokens that effectively summarize global image content. Building on this, we introduce RADIO1D, which compresses images into a compact, variable-length 1D token sequence using multi-teacher knowledge distillation and an autoencoder design. The resulting representations exhibit strong hierarchical summarization, enabling accurate scene understanding - even with a single token - and support improved composition-aware image retrieval. In VLMs, RADIO1D provides flexible accuracy-efficiency tradeoffs through adjustable token counts, delivering competitive performance on diverse multimodal benchmarks with lower computational overhead and better accuracy.

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Greg Heinrich, Mike Ranzinger, Collin McCarthy, Natan Bagrov, Eugene Khvedchenya, Bryan Catanzaro, Jan Kautz, Andrew Tao, Pavlo Molchanov. 2026-07-03. RADIO1D: Elastic Representations for Condensed Vision Modeling. https://arxiv.org/abs/2607.03624

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