Address for correspondence: Lugovaja Inna S. – Belarusian National Technical University, 12 Ya. Kolasa str., 220013, Minsk, Republic of Belarus. Tel: +375 17 292-84-37 gpa_atf@bntu.by
https://doi.org/10.21122/2227-1031-2019-18-5-422-426
Abstract
Hydraulic systems used in mechanisms and machines are intended for mechanical movements: load lifting, material pressing, moving of working bodies, etc. Mineral oils with low viscosity are used in them as working fluids. Such liquids include food products (honey, molasses, tar, minced meat, dough, pasta, creams, starches), construction materials (clay, cement, sealant), petroleum products, etc. which are found in chemical and textile, wine and bakery, cosmetic and confectionery, dairy and paintwork, construction industry and many other areas of activity. At the same time, hydraulic systems are used in various sectors of the national economy, which are designed for pumping or transporting a high-viscosity working fluid. However, description of such hydraulic systems, their classification, specific features of the devices of which they consist, has yet received insufficient attention. In this regard, this paper provides a classification of hydraulic systems for pumping and transporting highly viscous liquids, a description of their composition, main types of pumps and devices for controlling and performing technological tasks widely used in various industries. It is shown that all pumps used for these purposes can be divided into two groups: dynamic and volumetric. The paper presents schemes of devices, a brief description and operational principle of pumps used for these purposes. The executed analysis has shown that an operation of hydraulic systems for pumping highly viscous liquids necessitates further study of their characteristics, as well as development of methods for calculation and design.
About the Author
I. S. LugovajaBelarus
Address for correspondence: Lugovaja Inna S. – Belarusian National Technical University, 12 Ya. Kolasa str., 220013, Minsk, Republic of Belarus. Tel: +375 17 292-84-37 gpa_atf@bntu.by
References
1. Gudkin A. M. (1963) Rheogoniometry of viscoplastic disperse systems. Moscow, Moscow Power Engineering Institute. 24 (in Russian).
2. Dyatlov V. A. (1982) Rheological and adhesive properties of dough for rich fermented and bun goods. Voronezh. 24 (in Russian).
3. Fuks G. I. (2003) Viscosity and plasticity of petroleum products. Moscow-Izhevsk, Institute of Computer Research. 328 (in Russian).
4. Lyapkov P. D. (1964) About effect of viscosity on characteristics of submersible centrifugal pumps. Trudy VNII. Vyp. 41. Tekhnika dobychi nefti [Proceedings of All-Union Research Institute. Is. 41 Oil Engineering]. Moscow, Nedra Publ., 71-107 (in Russian).
5. Mikheev A. Yu. (2004) Study of characteristics and improvement of reliability in peristaltic pumps. Ufa. 168 (in Russian).
6. Puzanov G. I., Solodky M. D. (1995) Peristaltic pump. Patent of Russian Federation no. 2028509 (in Russian).
7. Tchemeris V. T., Tchemeris A. T. (1976) Peristaltic pump. Inventor’s Certificate no. 531927 USSR (in Russian).
8. Poplavsky S. F., Tkachenko A. F. (1980) Peristaltic pump. Inventor’s Certificate no. 739255 USSR (in Russian).
9. Bakalov V. E., Zenin A. B., Yaremenko V. I., Krutofalov E. B., Barzhin V. Ya. (1982) Peristaltic pump. Inventor’s Certificate no. 931959 USSR USSR (in Russian).
10. Bogatyrev V. S., Novikov I. E. (1982) Peristaltic pump. Inventor’s Certificate no. 937768 USSR (in Russian).
Review
For citations:
Lugovaja I.S. Address for correspondence: Lugovaja Inna S. – Belarusian National Technical University, 12 Ya. Kolasa str., 220013, Minsk, Republic of Belarus. Tel: +375 17 292-84-37 gpa_atf@bntu.by. Science & Technique. 2019;18(5):422-426. (In Russ.) https://doi.org/10.21122/2227-1031-2019-18-5-422-426