多环境下爬行行为学习策略融合

Akihiko Yamaguchi, J. Takamatsu, T. Ogasawara
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引用次数: 3

摘要

虽然强化学习方法被认为是一种很有前途的方法,可以从奖励信号中学习机器人的行为并使其适应未知环境,但标准的强化学习方法是针对单一环境的。在本文中,为了使机器人在更广泛的环境中工作,我们开发了一种强化学习方法,用于(1)估计当前环境,(2)为已知环境选择合适的策略,以及(3)通过迁移学习在新环境中学习时提高学习效率。为了实现这些目标,我们扩展了学习策略(LS)融合方法[1]。LS融合是一种通过逐步应用多个学习策略来学习单个任务的多个策略的方法。环境估计的关键思想是使用学习策略的奖励统计。为了高效学习,我们设计了一种学习策略,将在不同环境中学习到的策略转移到当前环境中。为了验证所提出的方法,我们进行了一些实验,让一个小型人形机器人在几种环境中学习爬行任务。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Learning strategy fusion for acquiring crawling behavior in multiple environments
Though a reinforcement learning method is considered as a promising method for learning a robot's behavior from reward signals and adapting it for unknown environment, a standard reinforcement learning method is for a single environment. In this paper, to make a robot working in wider environments, we develop a reinforcement learning method for (1) estimating the current environment, (2) choosing a suitable policy for a known environment, and (3) making learning efficient when learning in a new environment by using transfer learning. To achieve them, we extend the learning strategy (LS) fusion method [1]. LS fusion is a method to learn multiple policies for a single task by applying multiple learning strategies (LSs) step by step. The key idea of environment estimation is using reward statistics of learned policies. For efficient learning, we design a learning strategy to transfer a policy learned in a different environment to one for the current environment. To verify the proposed method, we conducted some experiments where a small size humanoid robot learned a crawling task in several kinds of environments.
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