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T-Comm_Article 4_1_2020

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ADAPTIVE CONTROL OF TECHNICAL CONDITION OF AUTONOMOUS COMPLEX TECHNICAL OBJECTS ON THE BASIS OF INTELLIGENT TECHNOLOGIES

Aleksey M. Vinogradenko, Military academy of communications named after Marshal of the Soviet Union S.M. Budyonny, St-Peterburg, Russia, vinogradenko.a@inbox.ru
Nikita P. Budko, Military academy of communications named after Marshal of the Soviet Union S.M. Budyonny, St-Peterburg, Russia, budko62@mail.ru

Abstract
The article is devoted to the study of processes of adaptive monitoring of technical condition of autonomous complex technical objects characterized by high cost of failure. The relevance of this direction of research is shown. The purpose of the work is to synthesize an adaptive automated system for monitoring the technical condition of autonomous complex technical objects operating under the influence of destabilizing factors, in order to maintain the operability of which, an adaptive rapid analysis of measurement information obtained during the monitoring process is required and its free transmission is required for making operational decisions by the control system. An approach to the construction of adaptive systems for monitoring the technical condition of autonomous geographically distributed objects on the basis of telemetry systems operating in express control and full control modes is presented. An example of the construction, structure of the measurement information evaluation subsystem and identification of state classes of control objects in adaptive automated control systems based on the emergency identifier is given. Characteristics of adaptive automated systems for monitoring the technical condition of autonomous geographically distributed complex technical facilities have been defined. Among the features of promising adaptive control systems for such objects are: Two-stage control process (reduction of measurement information redundancy), consideration of stochastic interdependence of controlled parameters of objects, adaptability of measurement frequency relative to observed deviations of parameters, continuous metrological self-control during operation of adaptive automated control systems, complex application of heterogeneous communication channels in combination with adaptability to external effects on the communication line during transmission of telemetry information. The main methods of adaptation of automated systems of monitoring of technical condition of autonomous complex technical objects are presented.

Keywords: autonomous complex technical objects, measuring information, adaptability, automated control systems, technical condition, identification, evaluation.

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Information about authors:

Aleksey M. Vinogradenko, PhD, Docent, Doctoral Candidate Military academy of communications named after Marshal of the Soviet Union S.M. Budyonny, St-Peterburg, Russia
Nikita P. Budko. Applicant at the Department of Military academy of communications named after Marshal of the Soviet Union S.M. Budyonny, St-Peterburg, Russia