利用污点分析和强化学习(TARL)修复自主机器人软件

D. Lyons, Saba B. Zahra
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引用次数: 2

摘要

能够为自治系统建立正式的性能界限是很重要的。然而,正式的验证技术需要系统运行环境的模型;这对自动驾驶系统来说是一个挑战,尤其是那些需要长时间运行的系统。本文描述了自动化监控和修复基于ros的自主机器人软件的工作,该软件是为先验的部分已知和可能不正确的环境模型编写的。采用污点分析方法自动提取从输入主题到发布主题的数据流序列,并对该代码进行检测。计算了MDP效用的独特强化学习近似,这是对软件设计者固有目标的经验和非侵入性表征。通过比较设计(先验)实用程序和部署(已部署系统)实用程序,我们使用一个小但真实的ROS示例显示,可以监视性能标准并将违反标准的情况与软件的某些部分联系起来。然后使用自动软件修复技术对软件进行修补,并根据原始的离线实用程序进行评估。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Using Taint Analysis and Reinforcement Learning (TARL) to Repair Autonomous Robot Software
It is important to be able to establish formal performance bounds for autonomous systems. However, formal verification techniques require a model of the environment in which the system operates; a challenge for autonomous systems, especially those expected to operate over longer timescales. This paper describes work in progress to automate the monitor and repair of ROS-based autonomous robot software written for an apriori partially known and possibly incorrect environment model. A taint analysis method is used to automatically extract the dataflow sequence from input topic to publish topic, and instrument that code. A unique reinforcement learning approximation of MDP utility is calculated, an empirical and non-invasive characterization of the inherent objectives of the software designers. By comparing design (a-priori) utility with deploy (deployed system) utility, we show, using a small but real ROS example, that it's possible to monitor a performance criterion and relate violations of the criterion to parts of the software. The software is then patched using automated software repair techniques and evaluated against the original off-line utility.
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