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This research introduces AdaDE, a technique that converts dense feed-forward blocks in Vision Language Action (VLA) models into Mixture-of-Experts layers to reduce parameter counts for edge deployment. By dynamically adjusting expert masks based on router statistics during fine-tuning, the method deactivates 40% of LLM parameters while maintaining high task success rates on robotic benchmarks. This approach offers a practical pathway to optimize resource-constrained robot platforms without sacrificing significant performance.
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Dense to MoE Adaptation for Compact Vision Language Action Policies

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2609.16503v1 Announce Type: new Abstract: Vision language action (VLA) policies continue to grow in parameter count, making deployment on resource-constrained robot platforms difficult. The central goal is to reduce the number of LLM-side parameters retained in the deployed policy while preserving downstream task performance. Our approach, AdaDE, adapts selected dense feed forward blocks into mixture of experts (MoE) layers and derives expert retention masks from router statistics during fine tuning. The Dense2MoE conversion preserves the original dense FFN function at initialization, so expert deactivation can start without a separate recovery stage. Instead of using a fixed shutdown rule, expert masks are updated dynamically from router usage statistics, with staged training and expert protection to avoid early collapse. With 40% of the LLM parameters deactivated, AdaDE retains 95.1% average success in LIBERO and 42.0% average success across all 50 RobotWin2.0 tasks. These results suggest that dense to MoE adaptation with dynamic expert deactivation is a practical direction for reducing active VLA model size without severe performance loss.

Abstract:Vision language action (VLA) policies continue to grow in parameter count, making deployment on resource-constrained robot platforms difficult. The central goal is to reduce the number of LLM-side parameters retained in the deployed policy while preserving downstream task performance. Our approach, AdaDE, adapts selected dense feed forward blocks into mixture of experts (MoE) layers and derives expert retention masks from router statistics during fine tuning. The Dense2MoE conversion preserves the original dense FFN function at initialization, so expert deactivation can start without a separate recovery stage. Instead of using a fixed shutdown rule, expert masks are updated dynamically from router usage statistics, with staged training and expert protection to avoid early collapse. With 40% of the LLM parameters deactivated, AdaDE retains 95.1% average success in LIBERO and 42.0% average success across all 50 RobotWin2.0 tasks. These results suggest that dense to MoE adaptation with dynamic expert deactivation is a practical direction for reducing active VLA model size without severe performance loss.

Robotics (cs.RO)

arXiv:2609.16503 [cs.RO]

(or arXiv:2609.16503v1 [cs.RO] for this version)

https://doi.org/10.48550/arXiv.2609.16503 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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