Research of frequency control systems for lifting and transport mechanisms
https://doi.org/10.30724/1998-9903-2021-23-1-167-181
Abstract
THE PURPOSE. To investigate the existing methods of frequency control and their influence on the characteristics of the asynchronous motor, including the energy parameters. Consider new circuit solutions of the control type under study. Create a mathematical model of each of the methods of frequency control. To analyze the results obtained from the point of view of the behavior of mechanical, electromechanical and energy components. METHODS. When solving this problem, the method of computer simulation modeling, implemented by means of Matlab Simulink, was used. RESULTS. In this paper, various aspects of electric drive systems based on asynchronous motors with the use of cascade switching are studied and described, existing connection schemes for such systems are analyzed, and several new options with improved characteristics are proposed. A comparative analysis of various connection schemes is made, the most interesting results of such analysis are presented, and conclusions are drawn about the future prospects of certain circuit solutions.Electric drive systems were modeled in the Simulink MATLAB environment using software tools to demonstrate the operation parameters of the considered circuits. CONCLUSION. Various schemes for switching on the asynchronous motor in the Simulink Matlab environment were investigated. The results of the study revealed the potential usefulness of using a circuit with a transformer in the rotor circuit, as well as the construction of a multi-motor electric drive with a common transformer and a common frequency converter circuit. The efficiency of parallel connection of rotary circuits of a two-motor electric drive was demonstrated. The methods of returning the sliding energy to the network are also compared, and their effectiveness in a comparative analysis with the operation in the closed-loop rotor mode is demonstrated.
About the Authors
T. V. SinyukovaRussian Federation
Tatyana V. Sinyukova
Lipetsk
V. N. Meshcheryakov
Russian Federation
Viktor N. Meshcheryakov
Lipetsk
A. V. Sinyukov
Russian Federation
Alexey V. Sinyukov
Lipetsk
References
1. Dadenkov DA, Solotskii EM, Shachkov AM. Modelirovanie sistemy vektornogo upravleniya asinkhronnym dvigatelem v pakete Matlab/Simulink. Vestnik Permskogo natsional'nogo issledovatel'skogo universitete. Elektrotekhnika, informatsionnye tekhnologii, sistemy upravleniya. 2018;11:117-128.
2. Meshcheryakov V, Sinyukova T, Sinyukov A, et al. Analysis of the effectiveness of using the block for limiting the vibrations of the load on the mechanism of movement of the bogie with various control systems. E3S Web of Conferences. Sustainable Energy Systems: Innovative Perspectives (SES-2020), Saint-Petersburg, Russia, 2020, 220, 01059, October 29-30.
3. Meshcheryakov V, Sinykova T, Sinyukov A, et al. Modeling and analysis of vector control systems for asynchronous motor. High Speed Turbomachines and Electrical Dreves Conference 2020 (HSTED-2020), Prague, Czech Republic.
4. Abakumov AM. and Randin D.G. Research of Dual-Mass Oscillation System with Linear Motor. International Conference on Industrial Engineering, Applications and Manufacturing (ICIEM), Sochi, Russia. pp. 1–5 (25-27 March 2019).
5. Cheban VM, Markov MYu, Bobrik VI. Umen'shenie puskovykh tokov asinkhronnykh elektrodvigatelei s korotkozamknutym rotorom. Elektrichestvo. 2016;3:57-60.
6. Grigor'ev ND. Umen'shenie puskovykh tokov asinkhronnykh dvigatelei. Promyshlennaya energetika. 2010;12:7-11.
7. Zlobin D.S. Issledovanie sposobov umen'sheniya puskovogo toka asinkhronnogo dvigatelya. Studencheskii vestnik. 2019;29-4(79):62-63.
8. Valov AV. Energeticheskie pokazateli impul'sno-vektornogo upravleniya asinkhronnym elektroprivodom s faznym rotorom. Vestnik Yuzhno-Ural'skogo gosudarstvennogo universiteta. Seriya: Energetika. 2008;11(111):57-79.
9. German-Galkin SG. Analiticheskoe i model'noe issledovanie asinkhronnoi mashiny s faznym rotorom pri prilozhennykh skol'zheniyakhю Elektrotekhnika. 2015;7:58-65.
10. Korshunov A.I. Matematicheskaya model' asinkhronnogo trekhfaznogo dvigatelya s faznym rotorom. Elektrotekhnika. 202;1:8-19.
11. Bubnov AV, Mal'gin GV, Rovkin VD. Optimizatsiya zakona upravleniya pri puske asinkhronnogo elektroprivoda s faznym rotorom na osnove modelirovaniya dinamicheskikh rezhimov ego raboty. Omskii nauchnyi vestnik. 2017;2(152):33-40.
12. Jiang You, Minghao Liu, Jiarui Ma, et al. Modeling and Analyse of Induction Motor Drive System with Consideration of DC Bus Stabilization and Control Performance. 8th International Power Electronics and Motion Control Conference ( IPEMC 2016 – ECCE Asia). 2016. pp. 1362-1368.
13. Watanabe N, Hirotsuka I, Sugimoto H, et al. Trial Fixed Outer Rotor Three-Phase Squirrel-Cage Induction Motor and its Basic Characteristics. 2018 21st International Conference on Electrical Machines and Systems (ICEMS). Jeju, Korea (South). 2018. pp. 135.
14. Weili L, Purui W, Yong L, et al. Influence of rotor structure on field current and rotor electromagnetic field of turbine generator under out-of-phase synchronization. 2016 IEEE Conference on Electromagnetic Field Computation (CEFC). Miami, FL, USA. 2016. pp. 94.
15. Vlad I, Campeanu A, Enache S, Enache M. A. Study of direct-on-line starting of low power asynchronous motors. 2017 International Conference on Electromechanical and Power Systems (SIELMEN). Iasi. 2017. pp.98.
Review
For citations:
Sinyukova T.V., Meshcheryakov V.N., Sinyukov A.V. Research of frequency control systems for lifting and transport mechanisms. Power engineering: research, equipment, technology. 2021;23(1):167-181. (In Russ.) https://doi.org/10.30724/1998-9903-2021-23-1-167-181