Design and Experimental Evaluation of WLR-III

Xu Li, Yili Fu
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Abstract

This paper introduces the design and experimental evaluation of WLR-III, which stands for the third-generation hydraulic wheel-legged robot. WLR-III is expected to be applied to disaster scenarios where the mobility, adaptability and manipulation capability are required. Based on the development of the previous two generations of wheel-legged robots, this work continuously optimizes the design to achieve higher mobility and stronger adaptability by reducing weight & inertia. The hydraulic power transmission system adopts a hose-less design method to ensure the robustness of the system. What's more prominent is that the successful development of hydraulic power unit (HPU) enables WLR-III to realize hydraulic power autonomy. In addition, to accomplish all kinds of operational tasks in the rescue scene, the electro-hydraulic hybrid drives anthropomorphic arms with heavy load grippers were developed. Finally, the effectiveness and reliability of design optimization have been evaluated through a series of experiments, including grassland movement, load bearing, obstacle-stepping and tool-operating. To the authors' best knowledge, this is the first time that a hydraulic powered autonomous wheel-legged humanoid robot with the ability to operate simple tools has been developed.
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WLR-III 的设计与实验评估
本文介绍了第三代液压轮足机器人 WLR-III 的设计和实验评估。WLR-III 预计将应用于需要移动性、适应性和操纵能力的灾难场景。在前两代轮足机器人开发的基础上,本研究不断优化设计,通过减轻重量和降低惯性,实现更高的机动性和更强的适应性。液压传动系统采用无软管设计方法,确保了系统的坚固性。更为突出的是,液压动力单元(HPU)的成功开发使 WLR-III 实现了液压动力自主化。此外,为了完成救援现场的各种作业任务,还开发了电液混合驱动拟人臂,并配备了重载抓手。最后,通过一系列实验评估了优化设计的有效性和可靠性,包括草地移动、承重、障碍物踩踏和工具操作。据作者所知,这是首次开发出具有操作简单工具能力的液压驱动自主轮腿仿人机器人。
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