Encoding Topology Information for Deep Reinforcement Learning with Continuous Action Space

Qi Wang, Yue Gao, Wei Liu
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Abstract

In the context of reinforcement learning, the training efficiency can decay exponentially with the size of the state space. Therefore, designing easily-optimized state space representation has remained an open problem. In this paper, we focus on a general and challenging scenario, i.e. reinforcement learning with continuous action spaces. We propose a new representation framework by explicitly encoding topology information such as the geometrical and the kinematic relations among different parts of the agent to make the representation more informative, which results in effective optimization. Extensive experiments were conducted on three settings to demonstrate that our method can remarkably stabilize and speed up the training process.
基于连续动作空间的深度强化学习拓扑信息编码
在强化学习的背景下,训练效率会随着状态空间的大小呈指数衰减。因此,设计易于优化的状态空间表示一直是一个有待解决的问题。在本文中,我们专注于一个一般的和具有挑战性的场景,即连续动作空间的强化学习。我们提出了一种新的表示框架,通过显式编码智能体不同部分之间的几何和运动关系等拓扑信息,使表示更具信息量,从而实现了有效的优化。在三种设置下进行了大量的实验,证明了我们的方法可以显著地稳定和加快训练过程。
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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