Methods for Monitoring and Diagnosing Space Communication and Orientation Subsystems

Q4 Materials Science
O. Shishkin
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引用次数: 0

Abstract

Monitoring of the state and behavior of spacecraft subsystems based on telemetry data is designed to continuously perform the tasks of controlling, controlling and maintaining the technical characteristics of a spacecraft. Increasing requirements for the characteristics of monitoring methods inevitably leads to a revision of the control technologies used and the need to create a scientific and technical reserve in the form of approaches, methods and technologies for building promising competitive space technology, including: technologies for building integrated information support for solving the problems of monitoring spacecraft subsystems; applied object-oriented systems of artificial intelligence, neural networks and high-performance computing for control, diagnostics and decision support. Currently, the following issues of monitoring the fault tolerance and reliability of space systems are relevant: the development of concepts for flight control centers that control multi-satellite systems and imply high reliability, processing of extra-large amounts of information, autonomy of operation, transfer offunctions on board, reduced human participation in control; analysis of possible failures; substantiation of the use of the on-board system for diagnostics, monitoring and localization of failures and malfunctions, restoration of working capacity; ensuring the maximum achievable (close to absolute) safety, eliminating the catastrophic consequences of possible failures of individual elements and subsystems; development and improvement of the methodology for setting requirements, assessing and controlling the quality and reliability of spacecraft and their components; improvement of international standardization of commercial rocket and space technology; optimal integrated risk management of space activities. The work is devoted to the control and diagnostics of subsystems of communication and orientation of the spacecraft. An artificial neural network, pair and multiple correlation functions are used as a mathematical apparatus to support the operator's decision making. It is shown that the methods make it possible to detect malfunctions and failures of sensors in real time. Calculations based on data obtained from spacecraft sensors are presented.
空间通信与定位子系统监测与诊断方法
基于遥测数据的航天器子系统状态和行为监测旨在连续执行控制、控制和维持航天器技术特性的任务。对监测方法特性的要求日益增加,必然导致对所使用的控制技术进行修订,并需要建立一种科学和技术储备,其形式是建立有前途的竞争性空间技术的途径、方法和技术,包括:建立解决监测航天器子系统问题的综合信息支助的技术;应用面向对象系统的人工智能,神经网络和高性能计算控制,诊断和决策支持。目前,与空间系统容错和可靠性监测相关的问题有:控制多卫星系统的飞行控制中心概念的发展,这意味着高可靠性、超大数量信息的处理、操作自主性、机载传递功能、减少人在控制中的参与;分析可能出现的故障;证实车载系统用于诊断、监测和定位故障和故障,以及恢复工作能力;确保可实现的最大(接近绝对)安全性,消除单个元件和子系统可能发生故障的灾难性后果;发展和改进制订要求、评估和控制航天器及其部件的质量和可靠性的方法;促进商业火箭和航天技术的国际标准化;空间活动的最佳综合风险管理。该工作致力于航天器通信和定位子系统的控制和诊断。利用人工神经网络、对和多重相关函数作为数学工具来支持操作者的决策。结果表明,该方法可以实时检测传感器的故障和失效。给出了基于航天器传感器数据的计算方法。
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来源期刊
Radioelektronika, Nanosistemy, Informacionnye Tehnologii
Radioelektronika, Nanosistemy, Informacionnye Tehnologii Materials Science-Materials Science (miscellaneous)
CiteScore
0.60
自引率
0.00%
发文量
38
期刊介绍: Journal “Radioelectronics. Nanosystems. Information Technologies” (abbr RENSIT) publishes original articles, reviews and brief reports, not previously published, on topical problems in radioelectronics (including biomedical) and fundamentals of information, nano- and biotechnologies and adjacent areas of physics and mathematics. The authors of the journal are academicians, corresponding members and foreign members of the Russian Academy of Natural Sciences (RANS) and their colleagues, as well as other russian and foreign authors on the proposal of the members of RANS, which can be obtained by the author before sending articles to the editor or after its arrival on the recommendation of a member of the editorial board or another member of the RANS, who gave the opinion on the article at the request of the editior. The editors will accept articles in both Russian and English languages. Articles are internally peer reviewed (double-blind peer review) by members of the Editorial Board. Some articles undergo external review, if necessary. Designed for researchers, graduate students, physics students of senior courses and teachers. It turns out 2 times a year (that includes 2 rooms)
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