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OmniMoE-VL introduces a coupled visual-depth routing mechanism that dynamically selects intermediate visual representations based on specific questions, offering a significant architectural improvement over fixed cross-modal interfaces in sparse VLMs. By enabling question-dependent visual access while preserving native token sequences, this approach effectively balances computational efficiency with enhanced multimodal reasoning capabilities. The study demonstrates that optimizing the visual injection pathway is more critical than standard token-level expert routing for improving performance on image-based benchmarks.
OmniMoE-VL: A Sparse Vision-Language Model with Coupled Visual-Depth Routing
arXiv:2609.32780v1 Announce Type: cross Abstract: Vision-language models (VLMs) increasingly use sparse mixture-of-experts (MoE) to scale language-side computation, yet visual information is typically routed only after passing through a fixed cross-modal interface. This leaves an important decision unresolved: which intermediate visual representations should be exposed to language computation for a given question? We introduce OmniMoE-VL, a sparse VLM with a coupled visual-depth routed projector. For each image-prompt pair, the projector selects a sparse set of intermediate visual depths and reuses the resulting global preference to guide both local patch fusion and dynamic visual injection into the language model. This design enables question-dependent visual access while preserving the native visual-token sequence, and complements token-level expert routing in the vision and language stacks. Across eight image-based benchmarks, OmniMoE-VL achieves an average score of 85.9 with 28B total and 9B activated parameters. Controlled comparisons show that the routed visual interface provides the dominant architectural gain, while matched route and component controls, same-image route analysis, and route interventions further support the value of coupling and question-conditioned visual access.
Abstract:Vision-language models (VLMs) increasingly use sparse mixture-of-experts (MoE) to scale language-side computation, yet visual information is typically routed only after passing through a fixed cross-modal interface. This leaves an important decision unresolved: which intermediate visual representations should be exposed to language computation for a given question? We introduce OmniMoE-VL, a sparse VLM with a coupled visual-depth routed projector. For each image-prompt pair, the projector selects a sparse set of intermediate visual depths and reuses the resulting global preference to guide both local patch fusion and dynamic visual injection into the language model. This design enables question-dependent visual access while preserving the native visual-token sequence, and complements token-level expert routing in the vision and language stacks. Across eight image-based benchmarks, OmniMoE-VL achieves an average score of 85.9 with 28B total and 9B activated parameters. Controlled comparisons show that the routed visual interface provides the dominant architectural gain, while matched route and component controls, same-image route analysis, and route interventions further support the value of coupling and question-conditioned visual access.
Computer Vision and Pattern Recognition (cs.CV); Machine Learning (cs.LG)
arXiv:2609.32780 [cs.CV]
(or arXiv:2609.32780v1 [cs.CV] for this version)
https://doi.org/10.48550/arXiv.2609.32780 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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