火星探测计划
火星人
地形
火星登陆
火星探测
天体生物学
火星大气层
火星表面
行星
机器人
火星漫游车
遥感
航空航天工程
计算机科学
环境科学
地质学
工程类
地理
人工智能
天文
地图学
物理
作者
Michelle Sherman,Mostafa Hassanalian,Savannah Bradley
出处
期刊:AIAA AVIATION 2020 FORUM
日期:2020-06-08
被引量:17
摘要
Currently, rovers have been on the surface of Mars for more than two decades, beginning with the first wheeled land rover called the Sojourner from NASA's Pathfinder mission in 1997. In its over 14-year successful journey operating on the red planet, NASA's Mars Opportunity Rover has held the record for the farthest distance driven on another planetary body (over 45 km). Rough terrain, obstacles, and environmental conditions make it challenging for these land rovers to explore the Martian surface and cover large amounts of terrain. There is an interest in exploring new methodologies and concepts with energy harvesting techniques that can withstand the harsh Martian climate and have the ability to survey and explore areas that might restrict land rovers. In this work, a new concept is explored involving a team of spherical robots, each housing small Dandelion seed bio-inspired Micro-Flying Rovers to be driven by the Martian winds. Each rover structure is equipped with various sensors needed for climate monitoring, surface mapping, communication, scientific experimentation, exploration, and localization on Mars. A spherical robot is used to house and disperse the dandelion inspired rovers into the Martian atmosphere in various locations. The success of this project would enable "unexplorable" areas on Mars to now be explored, and at a much faster rate.
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