Advancing MAPF towards the Real World: A Scalable Multi-Agent Realistic Testbed

Published in Under Review, 2025

Note: Manuscript is currently under review.

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Overview

This work presents SMART, a comprehensive testbed designed to bridge the gap between Multi-Agent Path Finding (MAPF) research and real-world applications. State-of-the-art MAPF algorithms can plan paths for hundreds of robots within seconds. However, these algorithms make several simplifying assumptions. First, they rely on simplified robot models that ignore kinodynamic constraints while planning the robots’ paths. Second, they assume that robots can execute these paths perfectly, without accounting for uncertainties introduced by real-world factors.

SMART fills this gap with several advantages:

  • SMART uses physics-engine-based simulators to create realistic simulation environments, accounting for complex real-world factors such as robot kinodynamics and execution uncertainties.
  • SMART uses an execution monitor framework based on the Action Dependency Graph, facilitating seamless integration with various MAPF algorithms and robot models.
  • SMART scales to thousands of robots.

Key Features

SMART provides a scalable and realistic testing environment that incorporates real-world constraints and scenarios, enabling researchers to evaluate and improve MAPF algorithms for practical applications. The testbed addresses key limitations in existing evaluation frameworks and provides a more comprehensive assessment of algorithm performance in realistic settings.

Benchmark Results
Isaac Sim
Scalability Analysis
Real Robots

Links:

BibTeX

@misc{yan2025smart,
  title={Advancing MAPF towards the Real World: A Scalable Multi-Agent Realistic Testbed},
  author={Yan, Jingtian and Li, Zhifei and Kang, William and Zhang, Yulun and Smith, Stephen and Li, Jiaoyang},
  year={2025},
  eprint={2503.04798},
  archivePrefix={arXiv},
  primaryClass={cs.RO},
  note={Under Review}
}

Recommended citation: Jingtian Yan, Zhifei Li, William Kang, Kevin Zheng, Yulun Zhang, Zhe Chen, Yue Zhang, Daniel Harabor, Stephen F. Smith, and Jiaoyang Li. Under Review. 2025.
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