A.Yu. Viryasova1, A.I. Vlasov2, D.I. Klimov3, T.T. Mamedov4, A.P. Myagkov5
1,3–5 JSC "Russian Space Systems" (Moscow, Russia)
2 Bauman Moscow State Technical University (Moscow, Russia)
1 virnastya@yandex.ru, 2 vlasovai@bmstu.ru, 3 klimov.di@spacecorp.ru,
4 mamedov.tt@spacecorp.ru, 5 contact@spacecorp.ru
Problem setting. Currently, the task of predicting failures of functional elements of industrial products is relevant in terms of the possibility of additional analysis and prevention of an emergency or emergency. With the development of neural network technology, the possibilities for this are greatly increased. It is proposed to predict the causes of failures of functional elements of rocket and space technology products using algorithms applicable for the operation of machine vision systems.
Target. The purpose of this work is to analyze possible methods of using neural networks in the space industry to reduce the occurrence of failures of functional elements.
Results. In the course of the work, two main directions of neural networks were considered: machine vision and time series prediction. The article provides examples of possible applications of artificial intelligence for the problem of predicting failures in the space industry. The following directions are considered: an algorithm for determining thermally hazardous zones by the non-contact method using HSV-conversion, a comprehensive analysis of data from the vibration measurement subsystem and the SKUT-40 system with the ability to predict failures and determine the source of increased mechanical impacts, as well as the possibility of video recording with subsequent issuance of one-time commands in automatic mode.
Practical significance. The results of the analysis can have practical value for developers working in the space industry. Information on the possibility of improving the indicators of space systems by introducing promising directions of neural networks, namely computer vision and time series prediction, is given.
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