高原环境中多地形运动的轮腿机器人

IF 5.4
Kang Wang , Jinmian Hou , Shichao Zhou , Dachuang Wei , Wei Xu , Yulin Wang , Hui Chai , Lingkun Chen , Qiuguo Zhu , Liang Gao , Min Guo , Guoteng Zhang , Zhongqu Xie , Tuo Liu , Mingyue Zhu , Yueming Wang , Tong Yan , Jingsong Gao , Meng Hong , Weikai Ding
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引用次数: 0

摘要

轮腿机器人将轮式平台的移动效率与腿式机器人的地形适应性相结合,使其成为复杂、非结构化环境的理想选择。然而,平衡高负载能力和灵活的多模式运动仍然是一个主要挑战。本文在海拔2800 ~ 4000 m的青海格尔木高海拔地区进行了野外研究。我们在戈壁、沙漠、草原和湿地等不同地形上对不同尺度的三轮腿机器人平台进行了评估。我们的实验证明了机器人在跨障碍、爬坡和地形分类等多模式任务中的鲁棒运动性能。此外,我们验证了自主感知系统的性能,包括实时定位和3D映射,在恶劣的高原条件下。研究结果为轮式腿机器人在极端自然环境中的部署提供了有价值的见解,并为未来在高海拔地区的检查、救援和运输任务中的应用奠定了坚实的基础。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Wheeled-legged robots for multi-terrain locomotion in plateau environments
Wheeled-legged robots integrate the mobility efficiency of wheeled platforms with the terrain adaptability of legged robots, making them ideal for complex, unstructured environments. However, balancing high payload capacity with agile multimodal locomotion remains a major challenge. This paper presents a field study conducted in the high-altitude region of Golmud, Qinghai, with elevations ranging from 2800 m to 4000 m. We evaluate three wheeled-legged robot platforms of different scales on diverse terrains including Gobi, desert, grassland, and wetlands. Our experiments demonstrate the robot’s robust locomotion performance across multimodal tasks such as obstacle crossing, slope climbing, and terrain classification. Moreover, we validate the performance of autonomous perception systems, including real-time localization and 3D mapping, under harsh plateau conditions. The results provide valuable insights into the deployment of wheeled-legged robots in extreme natural environments and lay a solid foundation for future applications in inspection, rescue, and transport missions in high-altitude regions.
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CiteScore
1.80
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