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Improvement of rubber recipe for massive tires by addition of non-traditional fillers

https://doi.org/10.20914/2310-1202-2019-4-196-204

Abstract

We investigated the effect of new fillers on the properties of rubbers for solid tires. Modified by fullerenes and unmodified iron oxide fillers were used as new fillers. Fatigue characteristics were determined by two methods: multiple tension on the UR-500 device in accordance with GOST 261-79; alternating bending with rotation on the device SZPI in accordance with GOST 10952-75. The main tasks of constructing fatigue curves were to assess the compliance of the results of strength tests (tension at a constant speed to break) with fatigue in terms of fatigue life, fatigue strength, and fatigue energy density of fracture. In addition, the task was to verify the possibility of plotting on one Weller curve points obtained on different devices - UR 500 and ZPI. The ranking of rubbers in static does not coincide with each other. Since the fatigue loading conditions are closer to the actual operating conditions than the static ones, in order to predict the behavior of rubber goods in operation, one should focus on the results of fatigue tests. Combining the results of fatigue tests with repeated tension and with alternating bending with rotation showed that this procedure is valid, but only in cases where the temperature of self-heating on the ZPI device does not exceed a certain critical value when thermal decomposition begins. The results of fatigue tests showed that the use of the studied fillers with small degrees of filling (up to 30 mass parts) can be justified. An example is Ferrocolor fraction 0–20 ?m with a mass fraction of 5 m.h. In this case, the fatigue properties practically do not deteriorate in comparison with industrial rubber for solid tires, in which new fillers are not added.

About the Authors

I. A. Litvinova
MIREA – Russian Technological University
Russian Federation
graduate student, chemistry and technology of processing elastomers named after F.F. Kosheleva department, 78 Vernadskogo Ave., Moscow, 119454, Russia


I. V. Veselov
NPKTS VESKOM LLC
Cand. Sci. (Engin.), professor, , ul. Burakova, 27, Moscow, 105118, Russia


Y. A. Gamlitskiy
NPKTS VESKOM LLC
Cand. Sci. (Phys.-Math.), associate professor, chemistry and technology of processing elastomers named after F.F. Kosheleva department, ul. Burakova, 27, Moscow, 105118, Russia


References

1. Gamlitsky Yu.A. Nanomechanics of the phenomenon of reinforcement of filled elastomers. Rubber and Rubber. 2017. no. 5. pp. 308–317. (in Russian).

2. Gamlitsky Yu.A. Nanomechanics of the Phenomenon of Reinforcement of Filled Elastomers. Nanomechanics Science and Technology. An International Journal. 2013. vol. 4. no. 3. pp. 1–18.

3. Chernysh A.A., Yakovlev S.N. An experimental study of the dynamic modulus of polyurethane elastomers under alternating bending with rotation. Bulletin of the Kuzbass State Technical University. 2018. no. 4 (128). (in Russian).

4. Druzhininskaya Yu.A. Fatigue properties of rubbers using iron oxide and mineral fillers in their composition: dissertation. Moscow, 2019. 113 p. (in Russian).

5. Shashok J.S., Kasperovich A.V., Prokopchuk N.R., Kaushnikov S.N. The influence of the prescription composition of elastomeric compositions on the elastic-deformation properties of tire rubbers. Transactions of BSTU. 2013. no. 4 (160). pp. 137–140. (in Russian).

6. Igumenova T.I., Gudkov M.A., Popov G.V. Features of the fatigue resistance of rubbers based on a combination of mineral fillers and fullerene-containing carbon black. Industrial production and use of elastomers. 2012. no. 1. pp. 25–27. (in Russian).

7. Shulga A.M., Igumenova T.I., Akatov E.S. Influence of carbon nanomaterials on the fatigue properties of polymer compositions. News of Universities. Applied Chemistry and Biotechnology. 2016. no. 4 (19). pp. 169–172. (in Russian).

8. Dong B., Zhang L., Wu Y. Influences of different dimensional carbon-based nanofillers on fracture and fatigue resistance of natural rubber composites. Polymer Testing. 2017. vol. 63. pp. 281–288.

9. Tonatto M.L.P., Forte M.M.C., Amico S.C. Compressive-tensile fatigue behavior of cords/rubber composites. Polymer Testing. 2017. vol. 61. pp. 185–190.

10. Marco Y. et al. Prediction of fatigue properties of natural rubber based on the descriptions of the cracks population and of the dissipated energy. Polymer Testing. 2017. vol. 59. pp. 67–74.


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For citations:


Litvinova I.A., Veselov I.V., Gamlitskiy Y.A. Improvement of rubber recipe for massive tires by addition of non-traditional fillers. Proceedings of the Voronezh State University of Engineering Technologies. 2019;81(4):196-204. (In Russ.) https://doi.org/10.20914/2310-1202-2019-4-196-204

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ISSN 2226-910X (Print)
ISSN 2310-1202 (Online)