Genetic Programs of Structural Evolution of Hybrid Electromechanical Objects
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Abstract
In this paper the interconnected genetic models defining algorithms of intrageneric synthesis of hybrid electromechanical structures are considered. The authors analyze the space of admissible crossing and define the variety of genetically admissible classes of hybrid structures. The recommendations about the use of models in problems of a structural prediction and innovative synthesis of new versions of hybrid electromechanical objects are given.
References
[1] Shinkarenko V. Bases of Electromechanical Systems’ Evolution Theory. – K.: Naukova dumka, 2002. – 288 p.
[2] Shinkarenko V. Genetic prediction as a system basis in strategy of management by innovative development of technical systems. Labours of the Tavria State Agrotechnological University. Number 11, volume 4, 2011. – P.p. 3 – 19.
[3] Shynkarenko V., Genetic Foresight in Science and Technology: from Genetic Code to innovative Project. 10th Anniversary International scientific Conference «Unitech’10». 19 – 20 November 2010. Gabrovo, Bulgaria.Vol.III/ p.p. 297-302.
[4] Gaidaienko I., Shinkarenko V., Principles of Structural Organization and Genetic Creation Models of Hybrid Electromechanical Systems. 11th Anniversary International scientific Conference «Unitech’11». 18 – 19 November 2011, Gabrovo, Bulgaria, Vol. I. p.p. 79-84.
[5] Vasiliy Shinkarenko, Yuriy Kuznietsov, Genetic Programs of Complex Evolutionary Systems (Part 2). 11th Anniversary International scientific Conference «Unitech’11», 18 – 19 November 2011, Gabrovo, Bulgaria, Vol. I. P.p. 44-52.
View more references (5)
[6] Yuriy Kuznietsov, Vasiliy Shinkarenko, The Genetic approach is the key to innovative Synthesis of complicated Technical Systems, Journal of the Technical University at Plovdiv, Bulgaria Fundamental Sciences and Applications, Volume 16, book 2, 2011, p.p.15 – 33.
[7] Vasiliy F. Shinkarenko, Mikhaylo V. Zagirnyak and Irina A. Shvedchikova, Structural-Systematic Approach in Magnetic Separators Design, Computational Methods for the Innovative Design of Electrical Devices, 2011, Volume 327, p.p 201-217.
[8] Krause, Paul C.; Wasynczuk, Oleg. Electromechanical Motion Devices.1989, McGraw-Hill Series in Electrical and Computer Engineering. New York: McGraw-Hill
[9] Furlani, Edward P., Permanent Magnet and Electromechanical Devices: Materials, Analysis and Applications, August 15, 2001, Academic Press Series in Electromagnetism. San Diego.
[10] A. Schätz, Alexander; O. Reiser, W.J. Stark, "Nanoparticles as Semi-Heterogeneous Catalyst Supports", 2010, Chem. Eur. J. 16 (30): 8950–67.