Antenna Architecture of a Nano-Satellite for Radio Astronomy

被引:0
|
作者
Budianu, Alexandru [1 ]
Meijerink, Arjan [1 ]
Bentum, Mark J. [1 ]
Smith, David M. P. [2 ]
Boonstra, Albert-Jan [2 ]
机构
[1] Univ Twente, Telecommun Engn Grp, NL-7500 AE Enschede, Netherlands
[2] ASTRON, Netherlands Inst Radio Astron, NL-7990 AA Dwingeloo, Netherlands
关键词
D O I
暂无
中图分类号
V [航空、航天];
学科分类号
08 ; 0825 ;
摘要
Recent technological advancements have led to the emergence of a new miniaturized satellite platforms and this opened up the path for a whole new range of applications. The Orbiting Low Frequency Antennas for Radio Astronomy (OLFAR) project is one of these applications, and aims to develop a low-frequency radio telescope for the 0.3 MHz to 30 MHz band. It uses a swarm of 50 or more identical nano-satellites to synthesize a very large aperture to explore the ultra-long electromagnetic (EM) waves in this frequency band. The swarm will act similar to a wireless sensor network (WSN) that samples the cosmic noise, processes the data in a distributed manner, and then sends the data to a base station (BS) for further processing and analysis. The satellites will have a very simple architecture (characteristic of a WSN node) that will focus on three main functionalities: radio observation, data processing, and distribution (inter-satellite and downlink). However, the complexity of the application results in strict requirements for the design of the satellites components, especially for the antenna systems. Starting from OLFAR's requirements and limitations, three separate antenna systems for scientific observation, inter-satellite link (ISL) and data downlink are designed and integrated into a nano-satellite platform.
引用
收藏
页数:10
相关论文
共 50 条
  • [31] ANTENNA PROBLEMS IN RADIO ASTRONOMY
    BRACEWELL, RN
    PROCEEDINGS OF THE INSTITUTE OF RADIO ENGINEERS, 1957, 45 (03): : 381 - 381
  • [32] A versatile retarding potential analyzer for nano-satellite platforms
    Fanelli, L.
    Noel, S.
    Earle, G. D.
    Fish, C.
    Davidson, R. L.
    Robertson, R. V.
    Marquis, P.
    Garg, V.
    Somasundaram, N.
    Kordella, L.
    Kennedy, P.
    REVIEW OF SCIENTIFIC INSTRUMENTS, 2015, 86 (12):
  • [33] Performance Analysis of Micrium RTOS in the computer of a Nano-Satellite
    Nagarajan, Chandrasekhar
    Kinger, Krishna
    Haider, Faraz
    Agarwal, Rajat
    2015 IEEE AEROSPACE CONFERENCE, 2015,
  • [34] NACON: A nano-satellite constellation for space weather monitoring
    Lappas, V
    van der Ha, J
    Scwartz, S
    Underwood, CI
    Curiel, AD
    JBIS-JOURNAL OF THE BRITISH INTERPLANETARY SOCIETY, 2005, 58 (1-2): : 19 - 27
  • [35] Descent Modeling and Attitude Control of a Tethered Nano-Satellite
    Kamal, Smit
    Mayya, Siddharth
    Potty, Karun
    Boratkar, Adheesh
    Nagarajan, Chandrasekhar
    2014 IEEE AEROSPACE CONFERENCE, 2014,
  • [36] OPTICS FOR NANO-SATELLITE X-RAY MONITOR
    Tichy, Vladimir
    Burrows, David N.
    Prieskorn, Zachary
    Hudec, Rene
    BALTIC ASTRONOMY, 2015, 24 (03) : 242 - 250
  • [37] Impact of Performance Modeling on Nano-Satellite Mission Design
    Abbott, John
    2012 IEEE AEROSPACE CONFERENCE, 2012,
  • [38] Novel Omnimagnet actuation method for a Cubesat nano-satellite
    Hassan, Amr M.
    El-Badawy, Ayman A.
    AEROSPACE SCIENCE AND TECHNOLOGY, 2021, 117
  • [39] FUZZY PID CONTROLLER FOR NANO-SATELLITE ATTITUDE CONTROL
    Mahdi, Mohammed Chessab
    JOURNAL OF SCIENCE AND ARTS, 2016, (04): : 407 - 416
  • [40] Development of a Robust Attitude Determination System for a Nano-satellite
    Kang, Chu Woo
    Park, Ji Hyun
    Jeung, In-Seuck
    Park, Chan Gook
    2014 14TH INTERNATIONAL CONFERENCE ON CONTROL, AUTOMATION AND SYSTEMS (ICCAS 2014), 2014, : 870 - 873