N.A. Vetrova1, A.G. Gudkov2, E.V. Kuimov3, S.V. Chizhikov4

1–6 Bauman Moscow State Technical University (Moscow, Russia)
1 FSAI HE “Peoples' Friendship University of Russia n. a. Patrice Lumumba” (Moscow, Russia)
3 OOO NPI FIRM HYPERION (Moscow, Russia)
1 vetrova@bmstu.ru, 2 profgudkov@gmail.com, 3 ekjmo@mail.ru, 4 chigikov95@mail.ru

Methodologically, the problem of analyzing the parameters of the purpose of microwave radiometric receivers on heterostructure elements has been successfully solved and the effectiveness of approaches to assessing the probability of yield has been proven. However, the problem of synthesizing such receivers within the framework of complex design and technological optimization in the concept of four principles is still poorly formalized due to its complexity and the new heterostructure implementation of the element base of such microwave radiometric receivers. To ensure the required level of reliability of such devices, it is necessary to develop a practice-oriented technique for synthesizing their parameters, which will ensure the maximum level of reliability of the product at a minimum or limited cost.

The purpose of the study is to develop a methodological formalization of the solution to the problem of synthesizing microwave radiometric receivers on heterostructure elements according to the reliability criterion, taking into account the specifics of the monolithic integrated implementation of the circuits of such devices.

The result of the work done is a technique for synthesizing microwave radiometric receivers on heterostructure elements according to the reliability criterion based on four basic principles of complex design and technological optimization. The results of the study can be used in the development, production and operational support of microwave radiometric receivers on heterostructure elements by the manufacturer, which will increase production efficiency, reduce costs and improve product quality.

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