Preview

Agricultural Machinery and Technologies

Advanced search

Test Results of a Polymer Radiator of MTZ-80 Tractor Cooling System

https://doi.org/10.22314/2073-7599-2020-14-1-55-60

Abstract

Global car manufacturers wish to increase the number of manufactured products, reduce their cost and labor input. The choice of research areas, design and technological developments in radiator construction is an extremely important and urgent task, due to the mass production of radiators for tractors and automobiles on the one hand, and the favorable development prospects of these interrelated industries, on the other. (Research purpose) To substantiate theoretically and experimentally the use of a combined cooling system containing both aluminum and polymeric water radiators and similarly liquid-oil heat exchangers based on the four principles listed above on automobiles and tractors. (Materials and methods) The authors performed bench tests using a special wind tunnel to study the thermal and aerodynamic characteristics of a prototype tractor radiator with a polyurethane core. After reaching the steady-state operating mode of the installation, the experimental values were determined for the control and measuring instruments. (Results and discussion) The authors carried out measurements of all parameters of both coolants in series at each steady-state operating mode of the bench. They obtained the main indicators dependences (reduced heat transfer, aerodynamic and hydraulic drag) of the heat exchanger, close to the operating conditions of the vehicles. (Conclusions) A prototype MTZ-80 radiator with a polyurethane core has great prospects as a future alternative radiator. An increase by 10-15 percent in the radiator heat transfer is possible by using aluminum fi ns on the surface of the polyurethane plate. A 15-20 percent reduction in hydrodynamic resistance is achieved by increasing the diameter of the capillary throughput in a polyurethane plate and the number of plates themselves in the radiator cell.

About the Authors

O. N. Didmanidze
Russian State Agrarian University – Moscow Timiryazev Agricultural Academy
Russian Federation

Otari N. Didmanidze, Member of the Russian Academy of Sciences, Dr.Sc.(Eng.), professor of the department

Moscow



R. T. Khakimov
Saint Petersburg State Agrarian University
Russian Federation

Ramil T. Khakimov, Dr.Sc.(Eng.), associate professor of the department

Saint Petersburg



E. P. Parlyuk
Russian State Agrarian University – Moscow Timiryazev Agricultural Academy
Russian Federation

Ekaterina P. Parlyuk, Ph.D.(Econ.), associate professor of the department

Moscow



N. A. Bol’shakov
Russian State Agrarian University – Moscow Timiryazev Agricultural Academy
Russian Federation

Nikolai A. Bolshakov, post-graduate student

Moscow



References

1. Didmanidze O.N., Yaremenko N.I., Smirnov S.A. Obespechenie effektivnogo funktsionirovaniya rynka kartofelya v usloviyakh Moskvy i moskovskoy oblasti [Ensuring the effective functioning of the potato market in the conditions of Moscow and the Moscow region]. Moscow: OOO Triada. 2004. 96 (In Russian).

2. Ivanov V.V., Sedov A.V., Nikolaev A.P., Mironov D.A. Opredelenie zavisimosti zatrat na zapasnye chasti traktorov semeystva MTZ ot srokov ekspluatatsii [Determining the cost dependence of spare parts for tractors of the MTZ family on the life cycle]. Permskiy agrarnyy vestnik. 2018. N4(24). 4-9 (In Russian).

3. Dzyuba E.Yu., Khakimov R.T. Analiz sredstv otsenki konstruktsii i rabot po alyuminievym radiatoram, provodimykh v laboratorii «ONILTA». [Analysis of design assessment tools and work on aluminum radiators carried out in the ONILTA laboratory]. Izvestiya Mezhdunarodnoy akademii agrarnogo obrazovaniya. 2015. N25-1. 99-101 (In Russian).

4. Khakimov R.T. Model’ korrelyatsii vybrosov vrednykh veshchestv avtomobilya s ispol’zovaniem dinamometricheskogo testirovaniya. [Model of correlation of car emissions using dynamometric testing]. Tekhniko-tekhnologicheskie problemy servisa. 2012. N2(20). 15-19 (In Russian).

5. Khakimov R.T., Didmanidze O.N. Improving the supply system gas engine to improve energy efficiency. Transportation Research Procedia. 2017. 183.

6. Semeshin A.L., Mokretsov N.A. Tekhnologii remonta radiatorov sistemy okhlazhdeniya DVS v sovremennykh usloviyakh [Technologies for radiators repair of the internal combustion engine cooling system in modern conditions]. Trudy GOSNITI. 2015. Vol. 119. 157-161 (In Russian).

7. Didmanidze O.N., Guzalov A.S., Bol’shakov N.A. Sovremennyy uroven’ razvitiya dvigateley s gazomotornoy i elektricheskoy silovoy ustanovkami na transportno-tyagovykh sredstvakh [The current development level of engines with gas and electric power plants on transport and traction means]. Mezhdunarodnyy tekhniko-ekonomicheskiy zhurnal. 2019. N4. 52-59 (In Russian).

8. Didmanidze O.N., Solntsev A.A., Pulyaev N.N. et al. Tekhnicheskaya ekspluatatsiya avtomobiley [Technical operation of cars]. Moscow: Rosinformagrotekh. 2017. 564 (In Russian).


Review

For citations:


Didmanidze O.N., Khakimov R.T., Parlyuk E.P., Bol’shakov N.A. Test Results of a Polymer Radiator of MTZ-80 Tractor Cooling System. Agricultural Machinery and Technologies. 2020;14(1):55-60. (In Russ.) https://doi.org/10.22314/2073-7599-2020-14-1-55-60

Views: 1115


Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 License.


ISSN 2073-7599 (Print)