Analysis the Principle, Components and Functions of Electric Sensors for Space Detectors
DOI:
https://doi.org/10.54097/dzt4jw17Keywords:
Electric sensors, space detectors, principle.Abstract
With the development of science and technologies, there are increasingly number of devices used for space applications in recent years. As a matter of fact, any state-of-art space detectors will have thousands of electric devices in order to realize fine controlling. With this in mind, the topics of this paper focus on electric sensors and space detectors contemporarily. To be specifically, this study will also introduce principles, components and functions of three electric sensors for different use in space exploration. Based on the data analysis, the research results show that although different types of electric sensors are used for space applications, limitations and restrictions still exist in electric sensors whereas some of them will be addressed and improved in the future due to advanced technologies. The research significance of this paper is to associate electric devices as well as space probes and discuss the limitation and future outlooks of them.
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References
Petrescu R V. Space Probes. Journal of Mechatronics and Robotics 2019, 3: 301 - 343.
Funase R, Inamori T, Ikari S, et al. One-year deep space flight result of the world's first full-scale 50kg-class deep space probe PROCYON and its future perspective, 2016.
Koizumi H, Kawahara H, Yaginuma K, et al. Initial flight operations of the miniature propulsion system installed on small space probe: PROCYON. Transactions of the Japan Society for Aeronautical and Space Sciences, Aerospace Technology Japan, 2016, 14 (30): 13 - 22.
Fossum E R, Bedabrata P. Infrared readout electronics for space-science sensors: state of the art and future directions. Infrared Technology XIX, 2020, 1993: 262 - 285.
Kimura R, Tadashi Y. Design study of molten-salt-type reactor for powering space probes and its automated start-up. Journal of Nuclear Science and Technology, 2013, 50 (10): 998 - 1010.
Snyder G J. Small thermoelectric generators. The Electrochemical society interface, 2008, 17.3: 54.
Nwankwo V U, Nnamdi N J, Michael T K. The impact of space radiation environment on satellites operation in near-Earth space. Satellites Missions and Technologies for Geosciences, 2020, 1: 73 - 90.
Newell H E, John E N. Radiation Environment in Space: Satellites and space probes are revealing the kinds and amounts of radiation men will encounter in space. Science, 1960, 132.3438: 1465 - 1472.
Von Lukowicz M. Thermoelectric generators on satellites—An approach for waste heat recovery in space. Energies, 2016, 9.7: 541.
Xia Z. Thermoelectric generator using space cold source. ACS Applied Materials & Interfaces, 2019, 11 (37): 33941 - 33945.
Favarel C. Experimental analysis with numerical comparison for different thermoelectric generators configurations. Energy Conversion and Management, 2016, 107: 114 - 122.
Champier D. Thermoelectric generators: A review of applications. Energy Conversion and Management, 2017, 140: 167 - 181.
Huang J. The Electric Field Detector (EFD) onboard the ZH‐1 satellite and first observational results. Earth and Planetary Physics 2.6 (2018): 469 - 478.
Zong J, Dan T, Shen X. Possible elf/vlf electric field disturbances detected by satellite cases before major earthquakes. Atmosphere, 2022, 13 (9): 1394.
Guo M. Performance evaluation of a miniature magnetic sector mass spectrometer onboard a satellite in space. European Journal of Mass Spectrometry, 2018, 24 (2): 206 - 213.
Meng D. Newly developed compact magnetic sector mass spectrometer." Measurement Science and Technology, 2017, 28 (12): 125901.
Ren Z, Guo M, Cheng Y, et al. A review of the development and application of space miniature mass spectrometers. Vacuum, 2018, 155: 108 - 117.
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