Abstract
In this paper we propose design principles that make use of neural network algorithms, artificial intelligence methods, and methods of terminal control for the synthesis of controllers for the sensing elements and the stabilization loop in a test bench, which is considered a modern mechatronic system that ensures the best robustness of the automatic control system. We show that the use of the artificial neuron network allows one to achieve some advantages to be compared with the conventional analog mechatronic system, which discussed in the paper.
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References
Leve, F.A., Hamilton, B.J., Peck, M.A.: Spacecraft Momentum Control Systems, p. 247. Springer Cham (2015)
Manmathakrishnan, P., Pannerselvam, R.: Design and performance evaluation of single axis gyrostabilizer for motion stabilization of a scaled Barge model. In: Oceans 2019 MTS/IEEE Seattle, pp. 1–7 (2019). https://doi.org/10.23919/OCEANS40490.2019.8962634
Deputatova, E.A., Kalikhman, D.M., Polushkin, A.V., Sadomtsev, Y.V.: Digital stabilization of motion of precision controlled base platforms with inertial sensitive elements. I. Application of float angular velocity sensor. J. Comput. Syst. Sci. Int. 50(1), 117–129 (2011)
Deputatova, E.A., Kalikhman, D.M., Polushkin, A.V., Sadomtsev, Yu.V.: Digital stabilization of motion of precision controlled base platforms with inertial sensitive elements. II. Application of float angular velocity sensor and pendulum accelerometers. J. Comput. Syst. Sci. Int. 50(2), 309–324 (2011).
Nikiforov, V.M., Gusev, A.A., Zhukova, T.A., Shiryaev, A.S., Andreev, K.A.: “Supersoft” control of final parameters in a single-axis gyrostabilizer. In: Proc. of the 26th Saint Petersburg Int. Conf. on Integrated Navigation Systems, pp. 319–321 (2019)
Jeanroy, A., Bouvet, A., Remillieux, G.: HRG and marine applications. Gyroscopy Navig. 5, 67–74 (2014)
Kuznetsov, A.G., Portnov, B.I., Izmailov, E.A.: Modern strapdown inertial navigation systems of two accuracy classes. Proc. MIEA Navig. Aircr. Control 8, 24–32 (2014) (in Russian)
Deputatova, E.A., Skorobogatov, V.V., Gnusarev, D.S.: Prospects for the development of SINS using modern types of gyroscopes and accelerometers in rocket and space technology. In: Proc. of the VII Int. Sci. Conf. “Problems of Control, Processing and Transmission of Information”, pp. 29–53. Lodi, Saratov (2019) (in Russian)
Negri, C., Labarre, E., Lignon, C., Brunstein, E., Salaün, E.: A new generation of IRS with innovative architecture based on HRG for satellite launch vehicles. Gyroscopy Navig. 7, 223–230 (2016)
Paturel, Y., Honthaas, J., Lefevre, E., Napolitano, F.: One nautical mile per month fog-based strapdown inertial navigation system: a dream already within reach? Gyroscopy Navig. 5, 1–8 (2014)
Peshekhonov, V.G., Litmanovich, Yu.A., Vershovskiy, A.K.: Gyroscope based on the phenomenon of nuclear magnetic resonance: past, present, future. In: Proc. of the 7th Russian Conf. on Control Problems, pp. 35–42. CSRI Elektropribor, St. Petersburg (2014)
Rivkin, B.S.: Analytical review of the state of research and development in the field of navigation abroad, Issues 1–5. CSRI Elektropribor, St. Petersburg (2017–2020) (in Russian)
Polozhentcev, D.S., Davidov, A.A., Shipov, M.G., Kazakov, E.P., Malykh, B.I.: Design of control moment gyro electric drive with strict requirements on ensuring desired rotational velocities. VESTNIK Samara Univ. Aerosp. Mech. Eng. 19(3), 31–38 (2020). (in Russian)
Ermakov, R.V., Kalihman, D.M., Kalihman, L.Ya., Nakhov, S.F., Turkin, V.A., Lvov, A.A., Sadomtsev, Yu.V., Krivtsov, E.P., Yankovskiy, A.A.: Fundamentals of developing integrated digital control of precision stands with inertial sensors using signals from an angular rate sensor, accelerometer, and an optical angle sensor. In: Proc. 23rd St.-Petersburg Int. Conf. on Integrated Navigation Systems, ICINS 2016, pp. 361–365 (2016)
Kalikhman, D.M., Kalikhman, L.Y., Deputatova, E.A., Krainov, A.P., Krivtsov, E.P., Yankovsky, A.A., Ermakov, R.V., L’vov, A.A.: Ways of extending the measurement range and increasing the accuracy of rotary test benches with inertial sensory elements for gyroscopic devices. In: Proc. 25-th Anniv. St.-Petersburg Int. Conf. on Integrated Navigation Systems, pp. 460–465. CSRI Elektropribor, St.-Petersburg, Russia (2018)
Ermakov, R.V., Seranova, A.A., L’vov, A.A., Kalikhman, D.M.: Optimal estimation of the motion parameters of a precision rotating stand by maximum likelihood method. Meas. Tech. 62(2), 139–146 (2019)
Ermakov, R.V., Kalihman, D.M., L’vov, A.A., Sokolov, D.N.: Angular velocity estimation of rotary table bench using aggregate information from the sensors of different physical nature. In: Proc. 2017 IEEE Russia Section Young Researchers in Electrical and Electronic Engineering Conf., pp. 820–825 (2017)
Ermakov, R.V., L’vov, A.A., Seranova, A.A., Melnikova, N.I., Umnova, E.G.: Numerical simulation results of the optimal estimation algorithm for a turn table angular velocity. In: Studies in Systems, Decision and Control, vol. 337, pp. 102–113. Springer Nature Switzerland (2020)
Glazkov, V.P., Daurov, S.K., L’vov, A.A., Askarova, A.Kh., Kalikhman, D.M.: Dynamic error reduction via continuous robot control using the neural network technique. In: Studies in Systems, Decision and Control, vol. 337, pp. 175–184. Springer Nature Switzerland (2020)
Hernández-Guzmán, V.M., Silva-Ortigoza, R.: Automatic Control with Experiments, p. 992. Springer Cham (2019)
Tsui, C.-C.: Robust Control System Design: Advanced State Space Techniques (Automation and Control Engineering), 2nd edn., p. 500. CRC Press, Boca Raton (2019)
Philips, C.L., Nagle, H.T., Chakrabortty, A.: Digital Control System Analysis and Design, 4th edn., p. 522. Pearson Education Ltd., Harlow (2015)
Kuo, B.C.: Digital Control Systems, p. 730. Oxford University Press (1995)
Kondratenko, Y.P., Kuntsevich, V.M., Chikrii, A.A., Gubarev, V.F.: Recent Developments in Automatic Control Systems, p. 490. River Publishers, Gistrup (2021)
Khan, F.A., Nisar, S.: Design and analysis of feedback control system. In: Proc. of the 2018 Int. Conf. on Information and Communications Technology, Yogyakarta, pp. 16–24 (2018)
Kuo, B.C.: Automatic Control Systems, 7th edn., p. 928. Wiley, Hoboken (1995)
Nikiforov, V.M., Bespalova, N.M., Dorokhin, Yu.P.: Modeling of the systematic error of a precision angle converter and its estimation using neural networks. Trudy NPCAP “Sist. Prib. Upr.” (Proc. NPCAP Control Syst. Instrum.) 3, 97–108 (2010) (in Russian)
Nikiforov, V.M., Zaitsev, S.A.: Motion control of dynamic systems based on neural network technologies. TrudyFGUP NPCAP “Sist. Prib. Upr.” (Proc. NPCAP Control Syst. Instrum.) 2, 38–50 (2011) (in Russian)
Liu, Z., Jahanshahi, H., Gómez-Aguilar, J.F., Fernandez-Anaya, G., Torres-Jiménez, J., Aly, A.A., Aljuaid, A.M.: Fuzzy adaptive control technique for a new fractional-order supply chain system. Phys. Scr. 96(12), 124047 (2021)
Qi, R., Tao, G., Jiang B.: Fuzzy System Identification and Adaptive Control, p. 332. Springer Nature (2019)
Khvorostukhina, E.V., L’vov, A.A., Ivzhenko, S.P.: Performance improvements of a Kohonen self-organizing training algorithm. In: Proc. of the 2017 IEEE Russia Section Young Researchers in Electrical and Electronic Engineering Conf., St. Petersburg, Russia, pp. 308–311 (2017)
Nikiforov, V.M., Shiryaev, A.S.: Terminal optimal motion control of technical systems (TS) based on an observer in Kalman form. Trudy NPCAP “Sist. Prib. Upr.” (Proc. NPCAP Control Syst. Instrum.) 3, 109–122 (2010) (in Russian)
Nikiforov, V.M.: Terminalnoe “sverkhmaygkoe” upravlenie girostabilizirovannoi platformoi (Terminal “Supreme Soft” Control of Gyrostabilized Platform), p. 146. Kursk (2022) (in Russian)
Grebennikov, V.I., Deputatova, E.A., Kalikhman, D.M., Kalikhman, L.Ya., Skorobogatov, V.V.: Digitally controlled pendulum accelerometer with new functionality. Comput. Syst. Sci. Int. 2, 73–95 (2021)
Kalikhman, D.M., Deputatova, E.A., Skorobogatov, V.V., Nakhov, S.F.: General concept of creation of digital control systems of precision test benches with inertial sensory elements. Bull. Tula State Tech. Univ. Tech. Sci. 10, 91–102 (2016) (in Russian)
Kalikhman, D.M., Deputatova, E.A., Gnusarev, D.S., Skorobogatov, V.V., Nikoforov, V.M., Krivtsov, E.P., Yankovsky, A.A.: Development of digital regulators for control systems of gyroscopic devices and associated metrological installations using modern methods of synthesis to improve accuracy and dynamic characteristics. In: Proc. of the 26th Saint Petersburg Int. Conf. on Integrated Navigation Systems, pp. 377–382 (2019)
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Kalikhman, D. et al. (2023). Ensuring the Robustness of Modern Mechatronic Systems Using Artificial Intelligence Methods. In: Dolinina, O., et al. Artificial Intelligence in Models, Methods and Applications. AIES 2022. Studies in Systems, Decision and Control, vol 457. Springer, Cham. https://doi.org/10.1007/978-3-031-22938-1_32
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DOI: https://doi.org/10.1007/978-3-031-22938-1_32
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