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arXiv 2407.03224cs.ROcs.AIcs.SYeess.SY
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基于PPO的零重力环境下不确定浮动平台的动态控制

PPO-based Dynamic Control of Uncertain Floating Platforms in the Zero-G Environment

University of Luxembourg(卢森堡大学)

Mahya Ramezani, M. Amin Alandihallaj, Andreas M. Hein

AI总结:

本文提出将PPO强化学习与MPC相结合的方法,用于零重力环境下浮动平台的动态控制,通过从MPC预测中学习来适应未建模动态和扰动,并在卢森堡大学Zero-G Lab的仿真与实验中验证了该方法的适应性和有效性。

摘要:

在空间探索领域,浮动平台在科学调查和技术进步中发挥着至关重要的作用。然而,在零重力环境中控制这些平台面临着独特的挑战,包括不确定性和扰动。本文介绍了一种创新方法,该方法在卢森堡大学的零重力实验室(Zero-G Lab)中将近端策略优化(PPO)与模型预测控制(MPC)相结合。该方法利用PPO的强化学习能力和MPC的精确性来应对浮动平台复杂的控制动力学。与传统控制方法不同,这种PPO-MPC方法从MPC的预测中学习,适应未建模的动态和扰动,从而形成一个针对零重力环境量身定制的弹性控制框架。在Zero-G Lab中进行的仿真和实验验证了该方法,展示了PPO智能体的适应性。这项研究为零重力环境下的浮动平台控制开辟了新的可能性,有望推动空间探索的进步。

英文摘要:

In the field of space exploration, floating platforms play a crucial role in scientific investigations and technological advancements. However, controlling these platforms in zero-gravity environments presents unique challenges, including uncertainties and disturbances. This paper introduces an innovative approach that combines Proximal Policy Optimization (PPO) with Model Predictive Control (MPC) in the zero-gravity laboratory (Zero-G Lab) at the University of Luxembourg. This approach leverages PPO's reinforcement learning power and MPC's precision to navigate the complex control dynamics of floating platforms. Unlike traditional control methods, this PPO-MPC approach learns from MPC predictions, adapting to unmodeled dynamics and disturbances, resulting in a resilient control framework tailored to the zero-gravity environment. Simulations and experiments in the Zero-G Lab validate this approach, showcasing the adaptability of the PPO agent. This research opens new possibilities for controlling floating platforms in zero-gravity settings, promising advancements in space exploration.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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