Деякі експериментальні результати оцінювання доплерівських портретів радіолокаційних цілей

Korolev, N. A., Nikitin, N. M. & Solosev, O. N. (2015). “Nekotorye eksperimentalnye rezultaty kogerentnogo nakoplenia radiolokacionnyh signalov” [Some experimental results of coherent accumulation of radar signals], Weapons and military equipment, No. 3(7). Pp. 44–47.

Fedorov, I. B., Slukin, G. P., Nefedov, S. I., Sustikov, V. U. & Kruckov, I. V. (2003), “Perspektivy povysenia eff ektivnosti metrovyh radiolokacionnyh stancij pri ispolzovanii dlitelnogo kogerentnogo nakoplenia (po rezultatam eksperimentov)ʺ [Prospects to improve the effi ciency of meter radar stations using longterm coherent accumulation (according to the results of experiments)], Promising radar issues, Radiotehnika, M. 512 p.

Grigoran, D. S., Klimov, S. A., Mitrofanov, D. G. & Prohorkin, A. G. (2012). “Obrabotka ehosignalov gruppovogo objekta metodami sverhreleevskogo razresenia po dalnosti i skorosti na osnove eksperimentalnyh dannyh” [Processing of echo signals of a group object by methods of super-Raleev resolution by range and speed based on experimental data], Radio electronics magazine.

№ 6. Pp. 1–29. Available at: https://docplayer.ru/108652552-Obrabotka-ehosignalov-gruppovogoobekta-metodami-sverhreleevskogo-razresheniya-podalnosti-i-skorosti-na-osnove-eksperimentalnyh-dannyh.html.

Grigoran, D. S., Klimov, S. A., Mitrofanov, D. G. & Prohorkin, A. G. (2013). “Rezultaty obrabotki signalov radiolokatora soprovozdenia metodami cifrovogo spektralnogo analiza so sverhrazrešeniem gruppovoj celi po dalnosti i skorosti” [The results of the processing of radar signals accompanied by digital spectral analysis with over-resolution of the group target by range and speed], Radiotehnika. № 9. Pp. 5–11. available at: http://www.radiotec.ru/article/13422.

Mitrofanov, D. G., Prohorkin, A. G. & Nefedov, S. I. (2008). “Izmerenie gabaritov letatelnyh apparatov v usloviаh turbulentnosti na osnove inversnogo sintezirovaniâ apertury” [Measuring the dimensions of aircraft in turbulence based on inversion aperture synthesis], Measuring technique. № 8. Pp. 24–28. Available at: http://naukarus.com/izmerenie-gabaritovletatelnyh-apparatov-v-usloviyah-turbulentnosti-naosnove-inversnogo-sintezirovaniya-apertury.

Romanenko, A. V. (2015). “Formirovanie doplerovskih portretov vozdusnyh objektov s ispolzovaniem metoda sverhrazresenia” [Formation of Doppler portraits of aerial objects using the over-resolution method], Radio electronics magazine. № 3.

Mitrofanov, D. G. (2015). Perspektivy ispolzovania doplerovskih portretov kak priznakov identifi kacii objektov [Prospects for using Doppler portraits as signs of object identifi cation], Intern. Research J. № 8(39). Pp 41–45. available at: https://research-journal.org/wpcontent/uploads/2015/09/8-2-39.pdf#page=41.

Prohorkin, A. G., Mitrofanov, D. G., Bortovik, V. V., Majorov, D. A. & Perehozev, V. A. (2011). “Vozmoznost vydelenia informacii ob uglovoj skorosti povorota vozdusnogo objekta po posledovatelnosti otrazennyh signalov” [The ability to allocate information about the angular speed of the aircraft’s turn in the sequence of refl ected signals]. Radio electronics magazine. № 12. Available at: http://jre.cplire.ru/jre/dec11/12/text.html.

Gorobec, V. N. (2012). “Doplerovskie spektry uzkopolosnyh signalov, otrazennyh korablami razlicnyh klassov” [Doppler specters of signals, by ships of diff erent classes], Radiophysics and Electronics. № 3. Pp. 35–40. Available at: http://dspace.nbuv.gov.ua/handle/123456789/105910.

Xiaolong Chen, Baoxin Chen, Jian Guan, Yong Huang & You He. Space-Range-Doppler Focus-Based Lowobservable Moving Target Detection Using Frequency Diverse Array MIMO Radar. IEEE Access. Vol. 6. Pp. 28702–28711, 2018. Available at: https://www.researchgate.net/publication/326857498. DOI: https://doi.org/10.1109/ACCESS.2018.2863745

Guan Jian, Chen Xiaolong, Dong Yunlong, He You. Radar Micro-Doppler Signal Detection and Extraction via Short-time Sparse Fractional Fourier Transform. doi: https://doi.org/10.1049/cp.2017.0411. Available at: https://www.researchgate.net/publication/321010418.

Guan Jian, Chen Xiaolong, Dong Yunlong, He You. Micro-Doppler Signature Analysis of Low-observable Marine Target in Sparse Domain. doi: https://doi.org/10.1049/cp.2017.0428. Available at: https://www.researchgate.net/publication/321010419.

Bystrov, R. P. & Potapov, A. A. (2009). “Funkcionalnye ustrojstva i elementnaa baza radiolokacionnyh system” [Functional devices and the elemental base of radar systems], Radioelectronics. Nanosystems. Information technology” Magazine. № 1(1-2). Pp. 43–58. M.

Slusar, V. I. (2001). ”Cifrovye antennye resetki: budusee radiolokacii” [Digital antenna array: the future of radar], Electronics: science, technology, business. №3. Pp. 42–46. M.

Karpenko, O. V. & Onisenko, V. V. (2015). “Cifrovі adaptivnі antennі sistemi na bazі fazovanih antennih reshіtok” [Digital antenna systems on the bases of phased antenna arrays], Information Processing Systems. № 10(135). Рp. 40–43.

Salvador H. Talisa, Kenneth W. O’Haver, Thomas M. Comberiate, Matthew D. Sharp & Oscar F. Somerlock. Benefi ts of Digital Phased Array Radars. Proc. of the IEEE. Vol. 104. No. 3, March, 2016. Available at: https://ieeexplore.ieee.org/document/7399690. DOI: https://doi.org/10.1109/JPROC.2016.2515842

Slyusar, V. I. (2000). “Chastotnaya selekciya vysokoskorostnyh gruppovyh celej pri dlitel’nom nakoplenii ekho-signalov” [Frequency selection of high-speed group targets with long-term accumulation of echo signals], News of higher education institutions. Radioelectronics. Vol. 43. № 8. Pp. 61–66. M.