500 rub
Journal Achievements of Modern Radioelectronics №8 for 2026 г.
Article in number:
Development of a vacuum-tight ceramic material with stable dielectric parameters
Type of article: scientific article
DOI: https://doi.org/10.18127/j20700784-202608-11
UDC: 666.762.11
Authors:

K.V. Muravyeva1, R.V. Sokolovskaya2
1, 2 FSUE RFNC “All-Russian Research Institute of Experimental Physics” (Sarov, Russia)
1 ksyusha_zhukova_91@mail.ru, 2 rsokolovskaya@niiis.nnov.ru

Abstract:

The efficiency and reliability of modern equipment largely depend on the stability of the properties of the materials used. Due to their design features, most microwave devices use vacuum-tight ceramics with specific values of dielectric constant and dielectric loss tangent. The main disadvantage of the current ceramic materials is the lack of stability in their dielectric parameters.

The goal of this work is to develop a technology for producing a vacuum-tight ceramic material with a dielectric constant of 9.5±0.2 and a consistently low dielectric loss.

Comprehensive research on the use of eutectic additives and the development of firing modes allowed us to create and implement a new composition of corundum ceramic material with a dielectric constant of 9.5±0.2 and a consistently low value of dielectric losses. The developed composition of vacuum-tight ceramics based on various grades of alumina is made entirely from domestic raw materials.

The new material has been successfully used in the creation of receiving antennas for onboard satellite navigation equipment.

Pages: 80-85
For citation

Muravyeva K.V., Sokolovskaya R.V. Development of a vacuum-tight ceramic material with stable dielectric parameters // Achievements of modern radioelectronics. 2026. V. 80. № 8. P. 80–85. DOI: https://doi.org/10.18127/j20700784-202608-11

References
  1. Nepochatov Yu.K. Razrabotka sostavov i texnologii polucheniya korundovoj bronekeramiki s radiopogloshhayushhim ferrit-soderzhashhim pokry`tiem. Avtoref. diss… raboty`: Tomsk, 2014. 22 s. (in Russian).
  2. Amelina O.D. Razrabotka besspekovoj texnologii vakuumplotnoj keramiki gruppy` VK-100 dlya nuzhd e`lektronnoj texniki: diss. kand. texn. nauk 05.27.06. M., 2016. 191 s. (in Russian).
  3. Rotenberg B.A. Keramicheskie kondensatorny`e die`lektriki. SPb.: OAO NII «Girikond». 2000. 246 s. (in Russian).
  4. Bakunov V.S., Belyakov A.V. Oksidnaya keramika: spekanie i polzuchest`. M.: Izdatel`skij centr RXTU im. Mendeleeva. 2007. 584 s. (in Russian).
  5. Garshin A.P., Gropyanov V.M., Zajcev G.P., Semenov S.S. Keramika dlya mashinostroeniya. M.: OOO Izdatel`stvo «Nauchtexlitizdat». 2003. 384 s. (in Russian).
  6. Svetlakov Yu.A. Sovershenstvovanie i razvitie texnologicheskoj bazy` proektirovaniya i izgotovleniya SVCh ustrojstv. Mater. XXIII Mezhdunar. nauchno-texn. konf. «Informacionny`e sistemy` i texnologii» (IST-2017). Nizhnij Novgorod: NGTU im. R.E. Alekseeva. 2017. S. 1344–1349. (in Russian).
  7. Kozlov V.A., Svetlakov Yu.A., Sedakov A.Yu. Razvitie struktury` texnologicheskogo obespecheniya pri sistemnom proektirovanii i izgotovlenii SVCh komponentov bortovy`x radioe`lektronny`x system. Proektirovanie i texnologiya e`lektronny`x sredstv. 2018. № 3. S. 23–29. (in Russian).
Date of receipt: 02.06.2026
Approved after review: 22.06.2026
Accepted for publication: 27.07.2026