V.I. Evseev¹, E.A. Kobets², I.O. Kolachev³

¹⁻³Baltic State Technical University» BSTU "VOENMEH" named after D.F. Ustinov (Saint-Petersburg, Russia)

¹v.evseev43@mail.ru, ²www.kobets@yandex.com, ³kolachev_io@voenmeh.ru

There are various problems in analyzing, designing, and creating of a complex information-measuring and control system. Flexible project management methods are one of the effective methods of solving these problems. The article is dedicated to the study of flexible project management methods for developing the concept of an information-measuring and control system by algorithmic support and accompanying of logical and mathematical modeling within the framework of the project «space system – information-measuring and control system – space radar – Earth remote sensing methods – transponders» («space system – … – transponders»).

The purpose of the author's research is to develop a concept for the use of flexible project management methods (FPMM) in relation to the project «space system – information-measuring and control system – space radar – Earth remote sensing methods – transponders» («space system – … – transponders») using the stages of logical and mathematical modeling and algorithmic support developed by the authors. The essence of such flexible project management methods, implemented on the basis of standards, lies in the implementation of modeling of the project management process at different stages of their life cycle based on norms and rules reflected in natural language, with the involvement of methodological foundations and standards in the field of FPMM (flexible development, agile). The results of the concept development obtained in the study made it possible to lay the foundations for predictive analytics by developing hypotheses and constructing new models with the identification and description of layers in the models, including: sources, causes, events, processes, solvable tasks, resources used, etc. in the process of using a specific transponder model and/or a new Earth remote sensing method, using a specific FPMM. The practical significance. Development and implementation FPMM based on the developed logic and obtained research results allows reduce systemic and subject risks, eliminate the recurrence of design errors, increase the accuracy of the proposed design structures, technical, technological and organizational solutions, realize their control during the process of design and creation of the Earth remote sensing space systems and the means of their calibration using transponders.

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