Development of a rational model range of hydrodynamic torque transformers based on their key parameters: existing approaches overview
https://doi.org/10.51187/0135-3152-2023-2-60-72
Abstract
Introduction (problem statement and relevance). Today's scientific papers on hydrodynamic torque transformers are related to the topic of optimising their design in order to decrease the cost of manufacture with improvement or insignificant degradation of transforming properties and fuel economy at the same time. However, no attention is paid to the issue of building rational model ranges of hydrodynamic torque transformers.
The purpose of the study is to analyze the existing approaches to development of model ranges of hydrodynamic torque transformers and to search for criteria for development of a higher-quality calculation method.
Methodology and research methods. The study was carried out by comparing the model ranges of hydrodynamic torque transformers in question produced by various manufacturers and defining the common parameters applied to classify models in a model range.
Scientific novelty and results. As a result of the analysis of model ranges of hydrodynamic torque transformers and existing methods of development of model ranges of hydrodynamic torque transformers, classification of approaches to their development has been carried out. Recommendations were also given regarding the parameters to be considered when developing model ranges of hydrodynamic torque transformers.
The practical significance consists in the systematization of information about the model ranges of hydrodynamic torque transformers of different manufacturers. It is shown that building model ranges of hydrodynamic torque transformers according to the known methods does not take into account correspondence of their key parameters with the characteristics of the range of internal combustion engines applied together therewith. The paper offers the approach, which takes this aspect into account.
About the Author
D. S. BelabenkoBelarus
PhD (Eng), head of Department of calculations and scientifi c support of projects
Minsk 220021
References
1. Belabenko D.S., Romanenko S.A., Drut’ko K.I. [The estimated construction of torque converters model range for the family of hydromechanical transmissions in the power range 150–480 kW of the JSC “MZKT”]. Aktual’nye voprosy mashinovedeniya, 2016, issue 5, pp. 57–63. (In Russian)
2. Bur’yan V.A., Malakhovskiy S.L., Luk’yanov A.I., Belabenko D.S., Puyman D.V. [Prospects for the demand for competencies in the development and production of hydromechanical transmissions]. Gruzovik, 2021, no. 7, pp. 9–16. (In Russian)
3. Automotive torque converter market – growth, trends, Covid-19 impact, and forecasts (2023–2028). Available at: https://www.mordorintelligence.com/industry-reports/automotive-torque-converter-market (accessed 11 January 2023).
4. Narbut A.N. [Torque converters]. Moscow, Mashinostroenie Publ., 1966. 216 p. (In Russian)
5. Robinette D., Anderson C., Blough J. Development of a dimensionless model for predicting the onset of cavitation in torque converters. New advances in vehicular technology and automotive engineering [Edited by Joao Paulo and Joao Eduardo Ribeiro], 2012, pp. 333–358. DOI: http://dx.doi.org/10.5772/45793.
6. [Hydromechanical transmissions]. Available at: https://www.volatdefence.com/katalog/komplektuyushhie/gidromehanicheskie-peredachi/ (accessed 15 July 2022). (In Russian)
7. Technisches Handbuch fȕr Einbau, Funktion und Inbetriebnahme. ZF-ECOMAT 2 plus HP 502 / HP 592 / HP 602 fur Stadt-, Linien- und Reisebusse. Deutschland: ZF Friedrichshafen AG, MC-C, 2004. 214 s.
8. Light speed transmission. Available at: https://www.koenigsegg.com/lst (accessed 14 December 2022).
9. [7-speed automatic transmission KATE]. Available at: https://katem.ru/projects/razrabotka-avtomaticheskikh-korobok-peredach/7-stupenchataya-akp/ (accessed 14 December 2022). (In Russian)
10. [9-speed automatic transmission KATE]. Available at: https://katem.ru/projects/razrabotka-avtomaticheskikh-korobok-peredach/9-stupenchataya-akp/ (accessed 15 December 2022). (In Russian)
11. Liu Y.F., Lakshminarayana B., Burningham J. Flow field in the turbine rotor passage in an automotive torque converter based on the high frequency response rotating five-hole probe measurement. Part II: Flow field at the off -design condition and effects of speed ratio. International Journal of Rotating Machinery, 2001, vol. 7, no. 4, pp. 271–284.
12. Liu Y.F., Lakshminarayana B., Burningham J. Flow field in the turbine rotor passage in an automotive torque converter based on the high frequency response rotating five-hole probe measurement. Part I: Flow field at the design condition (speed ratio 0.6). International Journal of Rotating Machinery, 2001, vol. 7, no. 4, pp. 253–269.
13. Liu Chun., Liu Chan., Ma W. Mathematical model for elliptic torus of automotive torque converter and fundamental analysis of its effect on performance. Mathematical Problems in Engineering, 2015, 13 p. DOI: http://dx.doi.org/10.1155/2015/851816.
14. Robinette D.L., Schweitzer J.M., Maddock D.G., Anderson C.L., Blough J.R., Johnson M.A. Predicting the onset of cavitation in automotive torque converters – Part I: Designs with geometric similitude. International Journal of Rotating Machinery, 2008, 8 p. DOI: http://dx.doi.org/10.1155/2008/803940.
15. Marathe B.V., Lakshminarayana B. Experimental investigation of steady and unsteady fl ow field upstream and downstream of an automotive torque converter pump. International Journal of Rotating Machinery, 1999, vol. 5, no. 2, pp. 99–116.
16. Robinette D.L., Schweitzer J.M., Maddock D.G., Anderson C.L., Blough J.R., Johnson M.A. Predicting the onset of cavitation in automotive torque converters – Part II: A generalized model. International Journal of Rotating Machinery, 2008, 8 p. DOI: http://dx.doi.org/10.1155/2008/312753.
17. Anderson C.L., Zeng L., Sweger P.O., Narain A. Experimental investigation of cavitation signatures in an automotive torque converter using a microwave telemetry technique. International Journal of Rotating Machinery, 2003, no. 9, pp. 403–410. DOI: http://dx.doi.org/10.1080/10236210390241637.
18. Liu Chun., Li L., Liu Chan., Yubo Zh. Drag reduction and Performance improvement of hydraulic torque converters with multiple biological characteristics. Applied Bionics and Biomechanics, 2016, 14 p. DOI: http://dx.doi.org/10.1155/2016/364165.
19. [Allison automatic transmissions]. Available at: http://www.ndgs.ru/Transmissions (accessed 11 January 2023). (In Russian)
20. ZF. Commercial Vehicle Solutions. EcoLife 2. Clean. Quiet. Effi cient. Available at: https://www.zf.com/products/en/cv/products_64274.html#details_divider658792 (accessed 11 January 2023).
21. ZF. Products for Passenger Cars. Torque Converter. Driving comfort through smooth gear changes and low consumption. Available at: https://www.zf.com/products/en/cars/products_65854.html (accessed 11 January 2023).
22. ZF Sachs auf einen Blick. Bereich Antriebstrang. Produktbereich Drehmomentwandler: Facts and Figures ZF Sachs 2005. Deutschland: ZF Sachs AG, 2006. 19 p.
23. Torque converters for construction machinery and lift trucks. Germany: ZF Friedrichshafen AG, 2012. 8 p.
24. [Catalog of products of the Production Association “Litmashdetal”]. Moscow, 2013. 40 p. (In Russian)
25. [GOST 20228-74. Torque converters for commercial vehicles, buses and tractors. Basic parameters]. Moscow, Izdatel’stvo standartov Publ., 1976. 5 p. (In Russian)
26. Stesin S.P., Yakovenko E.A. [Vane machines and hydrodynamic transmissions: A textbook for university students in the specialty “Hydraulic machines, hydraulic drives and hydropneumoautomatics”]. Moscow, Mashinostroenie Publ., 1990. 240 p. (In Russian)
27. [Design of vehicle transmissions: ed. by Grishkevich A.I.]. Moscow, Mashinostroenie Publ., 1984. 269 p. (In Russian)
28. [GOST 8032-84. Preferred numbers and series of preferred numbers]. Moscow, Izdatel’stvo standartov Publ., 1987. 17 p. (In Russian)
29. Gorbunov P.P., Cherpak F.A., L’vovskiy K.Ya. [Hydromechanical transmissions of tractors]. Moscow, Mashinostroenie Publ., 1966. 448 p. (In Russian)
30. Trushin N.N. [Variable structure hydrodynamic transformer]. [Innovative development of equipment and technologies of land transport: collection of articles of the All-Russian scientific-practical. Conf. dedicated to the 90th anniversary of the Department of Handling Machines and Robots (Yekaterinburg, December 6, 2019)]. Ekaterinburg, Izdatel’stvo Ural’skogo universiteta Publ., 2020, pp. 94–96. (In Russian)
31. Katsnel’son D.E., Shaposhnik L.V. [Selecting the characteristics of a prototype torque converter for a heavy vehicle transmission]. [Proceedings of the seminar “Hydromechanical transmissions of automobiles”, December 12–15, 1967]. Moscow, 1969, pp. 115–127.
32. Al’gin V.B., Poddubko S.N. [Resource mechanics of mobile vehicle transmissions]. Minsk, Belaruskaya navuka Publ., 2019. 549 p. (In Russian)
33. Stesin S.P., Yakovenko E.A. [Hydrodynamic transmissions]. Moscow, Mashinostroenie Publ., 1973. 352 p. (In Russian)
34. Trusov S.M. [Automotive torque converters]. Moscow, Mashinostroenie Publ., 1977. 271 p. (In Russian)
Review
For citations:
Belabenko D.S. Development of a rational model range of hydrodynamic torque transformers based on their key parameters: existing approaches overview. Trudy NAMI. 2023;(2):60-72. (In Russ.) https://doi.org/10.51187/0135-3152-2023-2-60-72