有效载荷(计算)
航天器
遥操作
机器人
行星表面
太空探索
计算机科学
机器人航天器
行星探测
遥控水下航行器
登月
航空航天工程
工程类
系统工程
遥控机器人学
轨道飞行器
软着陆
空间推进技术
火星探测计划
无线
球(数学)
模拟
移动机器人
远程操作
技术就绪指数
推进
机器人学
遥感
火星探测
远程控制
空间技术
远足
演习
美国宇航局深空网络
火星漫游车
作者
Daichi Hirano,Mariko Inazawa,Masataku Sutoh,Masaharu Nagata,Y. Yoneda,K. Watanabe,Hirotaka Sawada,Gen Sakoda,S. Abe,S. Homma
出处
期刊:Science robotics
[American Association for the Advancement of Science]
日期:2026-06-10
卷期号:11 (115): eaec8039-eaec8039
被引量:1
标识
DOI:10.1126/scirobotics.aec8039
摘要
Robotic technologies are expected to drive substantial advancements in planetary exploration and resource prospecting by performing a variety of tasks in extraterrestrial environments. In particular, miniature robots are ideally suited for integration into spacecraft with strict payload limitations, providing a cost-effective solution. However, the pursuit of autonomous exploration using these miniature robots presents challenges owing to constraints in computational power and battery capacity and reduced locomotion performance owing to their small size. Here, we introduce a two-wheeled centimeter-scale rover, designated Lunar Excursion Vehicle 2 (LEV-2), also known as SORA-Q (named after the Japanese words for space and sphere), which transforms into a wheeled configuration from a compact spherical form, enabling efficient traversal of soft lunar terrains. On 19 January 2024 (universal time coordinated), LEV-2 was deployed from a Japanese lunar lander, Smart Lander for Investigating Moon (SLIM), immediately before its landing on the lunar surface. After a lunar landing, the palm-sized rover accomplished autonomous lunar exploration by navigating around the SLIM lander, capturing images of both the SLIM lander and its environment and transmitting selected images through wireless communication on the lunar surface without reliance on ground-based teleoperation. This study details the system design of LEV-2 and presents the results of its in situ lunar activities, highlighting the efficacy of the proposed technologies necessary for mission implementation. Furthermore, we discuss the technical challenges encountered during the mission, including operational constraints and partial data loss, as well as the lessons learned for future exploration missions using small-scale space robots.
科研通智能强力驱动
Strongly Powered by AbleSci AI