arXiv:2603.25000cs.CV2026-03

提出分布式协同方法,让救援车快速通行且不影响普通车辆。

Distributed Real-Time Vehicle Control for Emergency Vehicle Transit: A Scalable Cooperative Method

  • 车辆仅用本地信息在线协作,无需全局数据或预训练。
  • 实测比现有方法决策更快,对普通车辆影响更小,适应不同路况。
  • 自带冲突解决机制,安全可靠,适合真实交通场景部署。

救援车快速通行对挽救生命和减少损失至关重要,通常依赖周边普通车辆协同调整行驶行为。既要保障救援车高效通行,又要尽量减少对普通车辆的影响。当前主流方法包括集中式数学求解器和强化学习:前者虽能获得最优解但仅适用于小规模场景;后者通过集中训练隐式学习,但模型在不同交通条件下扩展性差。因此,现有方法存在计算成本高、可扩展性不足两大根本缺陷。为此,本文提出一种可扩展的分布式车辆控制方法,车辆通过仅使用本地信息在线分布式调整行为。我们证明了仅依赖本地信息的分布式方法与使用全局信息的方法近似等价,使车辆能在无预训练的情况下实时评估候选状态并做出近似最优决策,天然适应多变交通条件。进一步提出分布式冲突消解机制,通过避免决策冲突确保车辆安全,消除集中式方法的单点故障风险,并提供学习方法无法实现的确定性安全保证。基于真实交通数据集的仿真实验表明,相比现有方法,本方法在决策速度、对普通车辆影响及不同交通密度与道路配置下的可扩展性方面均有显著提升。

原文摘要 · Abstract (English)

Rapid transit of emergency vehicles is critical for saving lives and reducing property loss but often relies on surrounding ordinary vehicles to cooperatively adjust their driving behaviors. It is important to ensure rapid transit of emergency vehicles while minimizing the impact on ordinary vehicles. Centralized mathematical solver and reinforcement learning are the state-of-the-art methods. The former obtains optimal solutions but is only practical for small-scale scenarios. The latter implicitly learns through extensive centralized training but the trained model exhibits limited scalability to different traffic conditions. Hence, existing methods suffer from two fundamental limitations: high computational cost and lack of scalability. To overcome above limitations, this work proposes a scalable distributed vehicle control method, where vehicles adjust their driving behaviors in a distributed manner online using only local instead of global information. We proved that the proposed distributed method using only local information is approximately equivalent to the one using global information, which enables vehicles to evaluate their candidate states and make approximately optimal decisions in real time without pre-training and with natural adaptability to varying traffic conditions. Then, a distributed conflict resolution mechanism is further proposed to guarantee vehicles' safety by avoiding their decision conflicts, which eliminates the single-point-of-failure risk of centralized methods and provides deterministic safety guarantees that learned methods cannot offer. Compared with existing methods, simulation experiments based on real-world traffic datasets demonstrate that the proposed method achieves faster decision-making, less impact on ordinary vehicles, and maintains much stronger scalability across different traffic densities and road configurations.

交通控制分布式系统应急响应

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