主动学习具有部分可观察性的安全和可达性目标计划。

Wonhong Nam, Rajeev Alur
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引用次数: 4

摘要

传统的规划假设可达性目标和/或完全可观察性。本文提出了一种具有部分可观察性的安全与可达性规划的新方法。给定一个规划域、一个安全属性和一个可达性目标,我们自动学习一个安全许可计划来指导规划域,这样安全属性就不会被违反,并且可以强制规划域最终达到满足可达性目标的状态,而不管规划域的行为如何。我们的技术是基于规则语言的主动学习和符号模型检查。规划方法首先使用L(*)算法学习安全计划,L(*)算法是一种高效的正则语言主动学习算法。然后,我们通过交替时间时序逻辑(ATL)模型检查来检查所学的安全计划是否也是允许的。如果这个计划是宽松的,那么它确实是一个安全的宽松计划。否则,我们将识别并添加一个安全字符串来收敛一个安全允许计划。我们描述了所提出的技术的实现,并证明我们的工具可以有效地为四组示例构建安全许可计划。
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Active learning of plans for safety and reachability goals with partial observability.

Traditional planning assumes reachability goals and/or full observability. In this paper, we propose a novel solution for safety and reachability planning with partial observability. Given a planning domain, a safety property, and a reachability goal, we automatically learn a safe permissive plan to guide the planning domain so that the safety property is not violated and that can force the planning domain to eventually reach states that satisfy the reachability goal, regardless of how the planning domain behaves. Our technique is based on the active learning of regular languages and symbolic model checking. The planning method first learns a safe plan using the L (*) algorithm, which is an efficient active learning algorithm for regular languages. We then check whether the safe plan learned is also permissive by Alternating-time Temporal Logic (ATL) model checking. If the plan is permissive, it is indeed a safe permissive plan. Otherwise, we identify and add a safe string to converge a safe permissive plan. We describe an implementation of the proposed technique and demonstrate that our tool can efficiently construct safe permissive plans for four sets of examples.

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