论文标题
化学推进剂推进器到Deorbit Nano卫星的设计:Studsat II
Design of Chemical Propellant Thruster to Deorbit Nano satellite: StudSat II
论文作者
论文摘要
卫星应用的增加使卫星的数量飙升,尤其是在低地轨道(LEO)中。当今的主要关注点是,这些卫星在生命结束后成为碎片,对太空环境产生负面影响。根据欧洲航天局的国际准则,必须在生命末期25年内脱离卫星。本文旨在设计固体化学推进剂推进剂,以从原始轨道到下轨道将螺柱II脱离。 Studsat II携带Studsat I的遗产,该遗产于2010年7月12日成功推出,是七所工程学院的本科生在印度的第一座Pico卫星。本文解释了与其他主动和被动的解析方法相比,生命终结后,如何使用固体单op纤维素推进剂来脱毛。解析机制由固体推进剂,收敛的发散喷嘴,点火系统和电子执行器组成。推进器的组件是在CATIA V5中设计的,并且在ANSYS中进行了燃烧研究和流量分析。 Hohmann转移的概念被用来去卫星,并使用STK进行模拟。
An increase in satellite application has skyrocketed the number of satellites, especially in the low earth orbit (LEO). The major concern today is that these satellites become debris after the end of life, negatively affecting the space environment. As per the International Guidelines of the European Space Agency, it is mandatory to deorbit the satellite within 25 years of its end of life. This paper is aimed to design the solid chemical propellant thruster to deorbit the StudSat II from its original orbit to the lower orbit. StudSat II carries the heritage of StudSat I, successfully launched on 12th July 2010 AD, and is the first Pico Satellite in India by the undergraduate students of seven engineering colleges. This paper explains how a solid monopropellant thruster could be used to deorbit the satellite after the end of life with the least difficulty compared to other active and passive methods of deorbiting. The deorbiting mechanism consists of a solid propellant, Convergent Divergent nozzle, ignition system, and electronic actuators. The components of the thruster were designed in the CATIA V5, and the combustion studies and flow analysis were done in ANSYS. The concept of Hohmann transfer was used to deorbit the satellite, and STK was used to simulate it.