G-MARK Enhances Cooperative Driving with Knowledge Graphs

Bhavya Gupta, Onat Gungor, Tajana Rosing· August 21, 2026 View original

Key takeaways

  • Knowledge graphs can significantly improve multi-agent reasoning in autonomous driving.
  • G-MARK enhances occlusion reasoning and reduces control errors.
  • The framework offers substantial communication efficiency gains for cooperative driving.
  • Explicitly tracking data provenance is key to resolving conflicting observations.

Who benefits

AutomotiveRoboticsLogisticsSmart Cities

Summary

G-MARK is a new framework that uses provenance-aware knowledge graphs to improve multi-agent reasoning for cooperative autonomous driving, addressing partial observability and conflicting evidence. It significantly boosts occlusion reasoning accuracy and reduces control-selection error while using a much smaller communication payload.

Autonomous driving systems face challenges with partial observability, where critical objects might be hidden or only visible to other connected vehicles. Existing cooperative driving methods often compress multi-agent information into abstract features, losing crucial details about which agent observed what, object visibility, and how conflicting data impacts decisions. To overcome this, G-MARK (Grounded Multi-Agent Reasoning) introduces a framework that converts cooperative object-centric observations into explicit, provenance-aware knowledge graphs (KGs). These KGs meticulously preserve object hypotheses, their source attribution, ego-versus-partner visibility, uncertainty, conflicts, spatial relationships, and relevant planning context. By deriving a shared feature representation from these KGs, G-MARK enables lightweight task heads for object reasoning, motion prediction, control selection, and trajectory forecasting. This approach leads to a 42.2% improvement in occlusion reasoning accuracy and a 13.1% reduction in control-selection error compared to state-of-the-art baselines, all while achieving comparable trajectory planning accuracy with a 25.6x smaller communication payload.

Why it matters

For professionals in autonomous vehicle development, this research offers a novel, more robust, and efficient method for multi-agent cooperation, directly impacting safety and performance in complex driving scenarios.

How to implement this in your domain

  1. 1Explore integrating knowledge graph representations into existing autonomous driving perception and planning stacks.
  2. 2Evaluate G-MARK's communication efficiency benefits for V2V (Vehicle-to-Vehicle) communication protocols.
  3. 3Develop simulation environments to test G-MARK's performance in diverse occlusion and multi-agent conflict scenarios.
  4. 4Consider adapting the provenance-aware KG concept for other distributed sensor fusion or collaborative AI systems.

Original post by Bhavya Gupta, Onat Gungor, Tajana Rosing

"arXiv:2608.19964v1 Announce Type: new Abstract: Autonomous driving systems must operate under partial observability, where safety-critical objects may be occluded or visible only to neighboring connected vehicles. Vehicle-to-vehicle cooperation can reduce this uncertainty, but ex…"

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