Real-Time Execution with Autoregressive Policies
Overview
This research paper presents a method for achieving real-time execution in large-scale Vision-Language-Action models using autoregressive policies. By adjusting the tokenization horizon and applying constrained decoding, the authors ensure smooth action trajectories and fast reactivity, overcoming the slower rollout speed typically associated with synchronous inference in autoregressive models. The study shows that these policies consistently outperform equivalent flow-matching policy counterparts across both simulated and real-world environments, achieving significantly improved task completion speeds. Additionally, the inherent advantages of autoregressive policies, such as faster convergence and better generalizability in instruction-following, are highlighted, confirming their competitiveness for supporting real-time execution.
Generated from attributed reports · Updated 2 days ago
Event evidence and corrections
0 attributed source owners. Ownership does not establish independent confirmation. Quantities are reported separately and are never added together.
No current evidence-backed claims. Missing information remains not reported.
Report timeline
Follow attributed reports and material updates.
- arXiv Robotics — research abstractsSignalReal-Time Execution with Autoregressive Policies
This research paper presents a method for achieving real-time execution in large-scale Vision-Language-Action models using autoregressive policies. By adjusting the tokenization horizon and applying constrained decoding, the authors ensure smooth action trajectories and fast reactivity, overcoming the slower rollout speed typically associated with synchronous inference in autoregressive models. The study shows that these policies consistently outperform equivalent flow-matching policy counterparts across both simulated and real-world environments, achieving significantly improved task completion speeds. Additionally, the inherent advantages of autoregressive policies, such as faster convergence and better generalizability in instruction-following, are highlighted, confirming their competitiveness for supporting real-time execution.
Event coverage history
Current attention 3·Peak within the comparable range 4(2026-11-10 14:00 UTC)·Change within the comparable range over 24 hours –
The trend compares participants observed continuously; its scope may be narrower than current attention totals. Hover or click to explore hourly observations, or use the left and right arrow keys.
Timezone · UTC
Article dates follow your selected timezone. Briefing editions use Hong Kong time (UTC+8).