This paper introduces the emerging field of astrobotics, that is, a recently-established branch of robotics to be of service to astrophysics and observational astronomy. We first describe a modern requirement of dark matter studies, i.e., the generation of the map of the observable universe, using astrobots. Astrobots differ from conventional two-degree-of-freedom robotic manipulators in two respects. First, the dense formation of astrobots give rise to the extremely overlapping dynamics of neighboring astrobots which make them severely subject to collisions. Second, the structure of astrobots and their mechanical specifications are specialized due to the embedded optical fibers passed through them. We focus on the coordination problem of astrobots whose solutions shall be collision-free, fast execution, and complete in terms of the astrobots' convergence rates. We also illustrate the significant impact of astrobots assignments to observational targets on the quality of coordination solutions To present the current state of the field, we elaborate the open problems including next-generation astrophysical projects including 20,000 astrobots, and other fields, such as space debris tracking, in which astrobots may be potentially used
翻译:本文介绍新兴的天体机器人领域,即最近建立的机器人分支,为天体物理学和观测天文学服务。我们首先描述暗物质研究的现代要求,即利用天文机器人生成可观测宇宙的地图。天体机器人不同于传统的两度自由自由的常规机器人操控器,有两个方面。首先,天体机器人的密集形成引起相邻天体机器人高度重叠的动态,使其严重地遭受碰撞。第二,天体机器人的结构及其机械规格因嵌入的光纤而专门化。我们侧重于天体机器人的协调问题,这些天体的解决方案应当没有碰撞、快速执行,在天体机器人的合并率方面是完整的。我们还说明了天体机器人分配到观测目标对协调解决方案质量的重大影响。为了介绍实地的现状,我们阐述了各种开放的问题,包括下一代天体物理学项目,包括20 000个可能使用的碎片、空间轨道跟踪,以及其它领域,包括20 000个可能使用的碎片,作为空间轨道,作为空间轨道的轨道,作为其他领域。