A.S. Bogachev1, V.I. Merkulov2, A.N. Savelyev3, I.R. Zagrebelnyi4

1,2,4 JSC Radio Engineering Corporation Vega (Moscow, Russia)

3 Bauman Moscow State Technical University (Moscow, Russia)

In recent publications devoted to the 6th generation fighters, the main focus is on discussing the principles and properties of aircraft of this generation. However, no less relevant are the concepts of building the architecture of the radio-electronic control system as a whole, which has the properties of openness, interoperability, scalability and extensibility, and the creation of a highly integrated information processing system, which should have:

a single broadband antenna system for all electronic systems (radar, state identification, electronic warfare, communications and navigation);

multispectral aperture of optoelectronic systems;

a multifunctional system of indication, display of information, management and control as part of the information and control field of the aircraft cabin.

At the same time, the onboard computing system will be made in the form of an integrated high-performance network architecture environment based on high-speed information transmission channels.

A further increase in the level and degree of integration into the 6th generation radio-electronic control systems is associated with the introduction of «smart cladding», the details of which are discussed in the article.

But, no matter what promising principles of construction are laid down in the radio-electronic control systems of fighters of the 6th generation, its perfection is always limited by the quality of the element base used. In this regard, the article pays attention to the features of the nanoelement base, which can be used in the radio-electronic control systems of fighters of the 6th generation.

Bogachev A.S., Merkulov V.I., Savelyev A.N., Zagrebelnyi I.R.  Radio-electronic control systems of sixth generation fighters. Part 2. Architecture of the onboard complex. Features of integration and element base. Achievements of modern radioelectronics. 2022. V. 76. № 9. P. 5–14. DOI: https://doi.org/ 10.18127/j20700784-202209-01 [in Russian]

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