Design techniques of Ground Station for pollution monitoring nanosatellite

B. Sheela Rani, C. D. Suryakala, T. A. Shanmuga sundaram, N. Hari Prasad, S. Siva Sundara Pandian, Godwin Premi, A. Aranganathan, Tinku Kumar, Shishir Gaurav, Akash R. Mitra
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Abstract

Recent environmental fiascos, oil spills, regular emission of huge amount of Greenhouse gases, negligence in implementing pollution control strategies, etc. have led to drastic change in the global climate. Abrupt changing of climate and increasing sea level have posed a great threat to human existence, along with its flora and fauna. To monitor the air pollution more effectively, and to provide a precise data model of pollution level, we are implementing space technology in monitoring the Greenhouse gases over a particular region. Our nanosatellite is having a spectrometer as a payload for monitoring the greenhouse pollutants over a given region. We propose in this paper the ground station design techniques to receive the data and process it in our university campus. The Ground Station is capable of providing VHF/UHF communications in the frequency ranges of 144–146MHz and 430–440MHz, with our dedicated satellite in LEO. The proposed designed of circular polarized, crossed yagi antenna will perform autonomous tracking efficiently to acquire data from the satellite. Our ground station consists of the Antenna system including rotor interface, transceiver and terminal node controller (as the Modem system) and the Processing system.
污染监测纳米卫星地面站设计技术
最近的环境灾难,石油泄漏,大量温室气体的定期排放,污染控制战略的疏忽等导致了全球气候的急剧变化。气候突变和海平面上升对人类及其动植物的生存构成了巨大威胁。为了更有效地监测空气污染,并提供精确的污染程度数据模型,我们正利用空间技术监测特定地区的温室气体。我们的纳米卫星有一个光谱仪作为有效载荷,用于监测特定地区的温室污染物。本文提出了在我校校园内进行数据接收和处理的地面站设计技术。地面站能够在144-146MHz和430-440MHz的频率范围内提供甚高频/超高频通信,我们的专用卫星在LEO。所设计的圆极化交叉八木天线能够有效地进行自主跟踪,获取卫星数据。我们的地面站由天线系统(包括转子接口)、收发器和终端节点控制器(作为调制解调器系统)和处理系统组成。
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