用分层框架让大模型安全参与机器人实时追踪决策
Hierarchical LLMs In-the-Loop Optimization for Real-Time Multi-Robot Target Tracking under Unknown Hazards
- 大模型不直接控制机器人,而是调整任务配置与优化参数
- 在仿真和真实场景中实现动态危险下的实时追踪与自适应
- 适合需要安全融合AI推理的多机器人系统研发者
在危险与对抗性环境中,实时多机器人协同需快速可靠地应对动态威胁。尽管大语言模型(LLMs)具备强大的高层推理能力,但缺乏安全保证限制了其在关键决策中的直接应用。本文提出一种分层优化框架,将LLM融入多机器人目标追踪的决策循环。LLM不直接生成控制指令,而是通过双层任务分配与规划问题,生成任务配置并调节参数。我们将多机器人协同追踪建模为双层优化问题,由LLM分析环境潜在危害与机器人团队状态,动态调整优化的内外层。该分层机制支持机器人行为的实时调整。此外,人类监督员可提供宏观指导与评估,以应对突发危险、模型偏差及局部最优问题。我们在仿真与真实实验中进行全面验证,证明了该框架的有效性,展示了安全集成大模型于多机器人系统的潜力。
原文摘要 · Abstract (English)
Real-time multi-robot coordination in hazardous and adversarial environments requires fast, reliable adaptation to dynamic threats. While Large Language Models (LLMs) offer strong high-level reasoning capabilities, the lack of safety guarantees limits their direct use in critical decision-making. In this paper, we propose a hierarchical optimization framework that integrates LLMs into the decision loop for multi-robot target tracking in dynamic and hazardous environments. Rather than generating control actions directly, LLMs are used to generate task configuration and adjust parameters in a bi-level task allocation and planning problem. We formulate multi-robot coordination for tracking tasks as a bi-level optimization problem, with LLMs to reason about potential hazards in the environment and the status of the robot team and modify both the inner and outer levels of the optimization. This hierarchical approach enables real-time adjustments to the robots' behavior. Additionally, a human supervisor can offer broad guidance and assessments to address unexpected dangers, model mismatches, and performance issues arising from local minima. We validate our proposed framework in both simulation and real-world experiments with comprehensive evaluations, demonstrating its effectiveness and showcasing its capability for safe LLM integration for multi-robot systems.
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