Conceptual basis of creation of domestic heavy-class strike-reconnaissance ground-based robotic complexes
DOI:
https://doi.org/10.34169/2414-0651.2019.3(23).16-25Keywords:
shock-based terrestrial robotic complex, remote control, armored personnel carrier, system of technical vision, unmanned vehiclesAbstract
In the article, based on the analysis of the world experience and foreign developments of heavy reconnaissance ground-based robotic complexes, the approach and basic measures for the creation of domestic analogues on the chassis of the armored samples of military armament and military equipment are proposed. The approach to the choice of the basic model of the sample and the content of the stages of creation of robotic complexes of heavy class are presented. The analysis of the main systems and constituents of individual samples of this class is carried out.
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References
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[3] Rudianov N. A., Hruschev V. S. and Ryabov A. V. (2018), “Avtonomnyie robototehnicheskie kompleksyi v sisteme vooruzheniya Suhoputnyih voysk” [Autonomous robotic systems in the weapons system of the Ground Forces], Missile-technical and artillery-technical support of the Armed Forces of the Russian Federation, pp. 49-51, available at: https://grau.informost.ru/2018/pdf/part1/15.pdf (accessed 10 May 2019).
[4] Ignatov A. V., Bogomolov S. N. and Fedyanin N. D. (2018), “K voprosu o razvitii boevyih nazemnyih robototehnicheskih kompleksov. Tehnologiya proizvodstva sistem i kompleksov” [To the question of the development of combat ground-based robotic systems. Technology for the production of systems and complexes], Izvestiya TulGU. Technical science. 2018. Iss. 11. Pp. 353–358.
[5] Ryabov K. (2018), “Kto budet dominirovat v oblasti nazemnyih boevyih robotov?” [Who will dominate the field of ground combat robots?], Technology. Military Review. August 17, 2018, available at: https://topwar.ru/145686-the-national-interest-kto-budetdominirovat-v-oblasti-nazemnyh-boevyh-robotov.html (accessed 10 May 2019).
[6] “Boevoy robot “Uran-9” postupil na vooruzhenie rossiyskoy armii 25.01.2019” [The combat robot «Uranus-9» entered service with the Russian army. 01/25/2019], available at: https://vpk.name/news/241864_boevoi_robot_uran9_postupil_na_vooruzhenie_rossiiskoi_armii.html (accessed 10 May 2019).
[7] “Dvenadtsatitonnyiy boevoy robot-ubiytsa tankov “Uran-9” prinyat na vooruzhenie armii Rossii. 24 01.2019” [The twelve-ton combat robot-killer of the Uran-9 tanks has been adopted by the Russian army], available at: https://m.tsargrad.tv/news/boevoj-robotubijca-tankov-uran-9-prinjat-na-vooruzhenie-armiirossii_180486 (accessed 10 May 2019).
[8] Barash Yu. (2018), “Boevyie robotyi – do nih esche daleko? Chast 1” [Are combat robots still a long way to go? Part 1], Analytical development. Challenges and risks. October 1, 2018. TsIAKR Security Review. No. 18 (105). Pp. 34–56.
[9] Barash Yu. (2016), “Boevyie robotyi Rossii - na podhode?” [Russian combat robots on the way?], Challenges and risks. CVAC Safety Review. March 1, 2016. Pp. 29-51.
[10] “Sovremennyie voennyie robotyi: boevyie sistemyi buduschego” [Modern military robots: combat systems of the future], available at: https://militaryarms.ru/voennaya-texnika/boevye-mashiny/voennye-boevyeroboty (accessed 10 May 2019).
[11] Rusinov V. (2013), “Sostoyanie i planyi razvitiya nazemnyih robototehnicheskih kompleksov SShA” [Status and development plans of ground-based robotic systems in the United States], Foreign Military Review, 2013. No. 3. Pp. 44-56.
[12] “«Uran-9» i ARCV «Black Knight»: kontseptualnyie razlichiya v sozdanii bespilotnyih robotov. 14 maya 2017” [“Uranus-9” and ARCV “Black Knight”: conceptual differences in the creation of unmanned robots. May 14, 2017], available at: https://mil.wms.kg/?p=2300 (accessed 10 May 2019).
[13] Melnik A. O., Moro I. V. and Varvaruk E. Y. (2013), “Alhorytm Opysu konturiv obiektiv za binarnymy zobrazhenniamy ta yoho realizatsiia” [An algorithm for describing the contours of objects by binary images and its implementation], Scientifi c Bull. of Chernivtsi Nat. Univ. n. a. Yu. Fedkovich. Computer Systems and Components. Vol. 4. Iss. 1. Chernivtsi, 2013. Pp. 6-11.
[14] Husliakov O. M. (2018), “Metodyka kompleksnoho obgruntuvannia vymoh do robototekhnichnoho kompleksu rozminuvannia” [Methodology for complex justifi cation of requirements for robotic mine clearance complex], Weapons systems and military equipment. X.: HUPS n. a. I. M. Kozhedub, 2018. No. 2 (54). Pp. 77-82.
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Published
2019-09-26
How to Cite
Chepkov, I., Dovhopolyi, A., & Husliakov, O. . (2019). Conceptual basis of creation of domestic heavy-class strike-reconnaissance ground-based robotic complexes. Weapons and Military Equipment, 23(3), 16–25. https://doi.org/10.34169/2414-0651.2019.3(23).16-25
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Section
MILITARY TECHNICAL POLICY
