Multi-Agent Strategy Synthesis for LTL Specifications through Assumption Composition

Georg Friedrich Schuppe, Jana Tumova
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Abstract

We propose a compositional solution to the strategy synthesis problem for LTL specifications in the cooperative (heterogeneous) multi-agent scenario. A main challenge of the general strategy synthesis approach is the state-space explosion occurring during construction of a global model for agents with different, mutually dependent goals. Given a set of agents and their individual goal specifications represented through a local model and an LTL formula, we compute a compliant set of strategies that fulfill each agents’ goal specification. We avoid the state-space explosion by computing individual solutions for each agent separately and then composing these solutions. During the initial strategy computation, assumptions over the states of other agents not represented in the local model are generated only where needed. These assumptions are resolved during composition of the individual solutions to assure compliance of the computed strategies. The effectiveness of this approach is demonstrated in several simulation case studies and compared to the classical, monolithic approach.
基于假设组合的LTL规范多智能体策略综合
针对协作(异构)多智能体场景下LTL规范的策略合成问题,提出了一种组合解决方案。一般策略综合方法的一个主要挑战是在为具有不同相互依赖目标的智能体构建全局模型时发生的状态空间爆炸。给定一组代理及其通过局部模型和LTL公式表示的单个目标规范,我们计算一组符合每个代理目标规范的策略。我们通过分别计算每个智能体的单独解决方案,然后组合这些解决方案来避免状态空间爆炸。在初始策略计算期间,仅在需要时才生成对本地模型中未表示的其他代理状态的假设。这些假设在各个解决方案的组合过程中得到解决,以确保计算策略的一致性。该方法的有效性在几个仿真案例研究中得到了证明,并与经典的单片方法进行了比较。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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