Basic mechanical and fatigue properties of rubber materials and components for railway vehicles: A literature survey
Source abstract
Abstract
Abstract Rubber material is widely used in railway vehicles due to its superior damping performance. The testing methods, fatigue, and aging theories of rubber materials are of great significance to improve the design, manufacture, and application of rubber components for railway vehicles. This work systematically introduces the constitutive theory, mechanical testing standards, and testing methods of rubber materials. Then, the aging mechanism is described and the research progress of rubber fatigue properties is reviewed from the perspectives of fatigue crack initiation and fatigue crack propagation. Moreover, the reinforcement methods of rubber materials are presented. Finally, according to the working conditions of rubber components in railway vehicle, the technical difficulties and future research trends of fatigue characteristics analysis of rubber materials and components are pointed out.
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Research context
OpenAlex topics: Elasticity and Material Modeling · Mechanical Engineering and Vibrations Research · Polymer Nanocomposites and Properties
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
Affiliations
School of Traffic & Transportation Engineering, Central South University , Changsha , Hunan , China
Key Laboratory of Traffic Safety on Track, Ministry of Education , Changsha , Hunan , China
National & Local Joint Engineering Research Center of Safety Technology for Rail Vehicle , Changsha , Hunan , China
References (100+)
Show source-provided references
1. Ikeda, Y., A. Kato, S. Kohjiya, and Y. Nakajima. Rubber science, Springer, Singapore, 2018.10.1007/978-981-10-2938-7 ↗
2. Tchemodanova, S. P., K. Tatsis, M. Sanayei, E. Chatzi, and V. Dertimanis. State estimation for prediction of fatigue life for a rollercoaster connection subjected to operational multiaxial nonproportional loading. Journal of Structural Engineering, Vol. 147, 2021, id. 04021041.10.1061/(ASCE)ST.1943-541X.0002961 ↗
3. Carleo, F., E. Barbieri, R. Wheal, and J. C. Busfield. Limitations of viscoelastic constitutive models for carbon-black reinforced rubber in medium dynamic strains and medium strain rates. Polymers, Vol. 10, 2018, pp. 988–988.10.3390/polym10090988 ↗
4. Wang, Y., P. Zhao, H. Liu, F. Zhang, Z. Li, T. Xu, et al. Structure and temperature induced crystallization of natural rubber with different milling times. Polymer Science, Series A, Vol. 63, 2021, pp. 228–237.10.1134/S0965545X21030135 ↗
5. Huang, Y., Z. Liu, H. Xu, and R. Hong. Conductive thermoplastic vulcanizates based on carbon black-filled bromo-isobutylene-isoprene rubber (BIIR)/polypropylene (PP). Reviews on Advanced Materials Science, Vol. 60, 2021, pp. 303–312.10.1515/rams-2021-0013 ↗
6. Tharasana, C., A. Wongaunjai, P. Sornsanee, V. Jitprarop, and N. Tangboriboon. Alternative of bone china and porcelain as ceramic hand molds for rubber latex glove films formation via dipping process. Reviews on Advanced Materials Science, Vol. 59, 2020, pp. 523–537.10.1515/rams-2020-0042 ↗
7. Barot, T., D. Rawtani, and P. Kulkarni. Nanotechnology-based materials as emerging trends for dental applications. Reviews on Advanced Materials Science, Vol. 60, 2021, pp. 173–189.10.1515/rams-2020-0052 ↗
8. Thompson, L., J. Azadmanjiri, M. Nikzad, I. Sbarski, J. Wang, and A. Yu. Cellulose nanocrystals: Production, functionalization and advanced applications. Reviews on Advanced Materials Science, Vol. 58, 2019, pp. 1–16.10.1515/rams-2019-0001 ↗
9. Chanda, S. and D. Bajwa. A review of current physical techniques for dispersion of cellulose nanomaterials in polymer matrices. Reviews on Advanced Materials Science, Vol. 60, 2021, pp. 325–341.10.1515/rams-2021-0023 ↗
10. Ahmed, A., X. Wang, and M. Yang. Biocompatible materials of pulsatile and rotary blood pumps: A brief review. Reviews on Advanced Materials Science, Vol. 59, 2020, pp. 322–339.10.1515/rams-2020-0009 ↗
11. Bhaska, S., M. Kumar, and A. Patnaik. Mechanical and Tribological overview of ceramic particulates reinforced aluminium alloy composites. Reviews on Advanced Materials Science, Vol. 58, 2019, pp. 280–294.10.1515/rams-2019-0033 ↗
12. Meng, T., S. Ahmed, D. Dai, and Y. Yu. Effects of load types and critical molar ratios on strength properties and geopolymerization mechanism. Reviews on Advanced Materials Science, Vol. 60, 2021, pp. 216–222.10.1515/rams-2021-0019 ↗
13. Xu, Z., Z. Huang, C. Liu, X. Deng, D. Hui, and S. Deng. Research progress on mechanical properties of geopolymer recycled aggregate concrete. Reviews on Advanced Materials Science, Vol. 60, 2021, pp. 158–172.10.1515/rams-2021-0021 ↗
14. Ali, Md. A. M., M. Z. Omar, H. Hashim, M. S. Salleh, and I. F. Mohamed. Recent development in graphene-reinforced aluminium matrix composite: A review. Reviews on Advanced Materials Science, Vol. 60, 2021, pp. 801–817.10.1515/rams-2021-0062 ↗
15. Figiela, B., H. Šimonová, and K. Korniejenko. State of the art, challenges, and emerging trends: Geopolymer composite reinforced by dispersed steel fibers. Reviews on Advanced Materials Science, Vol. 61, 2022, pp. 1–15.10.1515/rams-2021-0067 ↗
16. Luo, Y., K. Yuan, L. Shen, and J. Liu. Sandwich panel with in-plane honeycombs in different Poisson’s ratio under low to medium impact loads. Reviews on Advanced Materials Science, Vol. 60, 2021, pp. 145–157.10.1515/rams-2021-0020 ↗
17. Selyutina, N. S. and Y. V. Petrov. Comparative analysis of dynamic plasticity models. Reviews on Advanced Materials Science, Vol. 57, 2018, pp. 199–211.10.1515/rams-2018-0065 ↗
18. Zhang, P., X. Han, Y. Zheng, J. Wan, and D. Hui. Effect of PVA fiber on mechanical properties of fly ash-based geopolymer concrete. Reviews on Advanced Materials Science, Vol. 60, 2021, pp. 418–437.10.1515/rams-2021-0039 ↗
19. Lou, W., W. Zhang, T. Jin, X. Liu, and W. Dai. Synergistic effects of multiple environmental factors on degradation of hydrogenated nitrile rubber seals. Polymers, Vol. 10, 2018, pp. 897–897.10.3390/polym10080897 ↗
20. Zisan, M. B. and A. Igarashi. Lateral load performance and seismic demand of unbonded scrap tire rubber pad base isolators. Earthquake Engineering and Engineering Vibration, Vol. 20, 2021, pp. 803–821.10.1007/s11803-021-2053-4 ↗
21. Li, X. and Y. Wei. Classic strain energy functions and constitutive tests of rubber-like materials. Rubber Chemistry and Technology, Vol. 88, 2015, pp. 604–627.10.5254/rct.15.84879 ↗
22. Wu, Y., H. Wang, and A. Li. Parameter identification methods for hyperelastic and hyper-viscoelastic models. Applied Sciences, Vol. 6, 2016, id. 386.10.3390/app6120386 ↗
23. Íñiguez-Macedo, S., R. Lostado-Lorza, R. Escribano-García, and M. Martinez-Calvo. Finite element model updating combined with multi-response optimization for hyper-elastic materials characterization. Materials, Vol. 12, 2019, id. 1019.10.3390/ma12071019 ↗
24. Bergström, J. S. and L. B. Hilbert Jr. A constitutive model for predicting the large deformation thermomechanical behavior of fluoropolymers. Mechanics of Materials, Vol. 37, 2005, pp. 899–913.10.1016/j.mechmat.2004.09.002 ↗
25. Marckmann, G., E. Verron, L. Gornet, L. Chagnon, P. Charrier, and P. Fort. A theory of network alteration for the Mullins effect. Journal of the Mechanics and Physics of Solids, Vol. 50, 2002, pp. 2011–2028.10.1016/S0022-5096(01)00136-3 ↗
26. Boyce, M. C. and E. M. Arruda. Constitutive models of rubber elasticity: a review. Rubber Chemistry and Technology, Vol. 73, 2000, pp. 504–523.10.5254/1.3547602 ↗
27. Yeoh, O. H. Characterization of elastic properties of carbon-black-filled rubber vulcanizates. Rubber Chemistry and Technology, Vol. 63, 1990, pp. 792–805.10.5254/1.3538289 ↗
28. Rivlin, R. S. Large elastic deformations of isotropic materials. I. Fundamental concepts. Collected Papers of RS Rivlin, Springer, New York, 1997, pp. 23–54.10.1007/978-1-4612-2416-7_5 ↗
29. Ogden, R. W. Large deformation isotropic elasticity-On the correlation of theory and experiment for incompressible rubber like solids. Rubber Chemistry and Technology, Vol. 46, 1973, pp. 398–416.10.5254/1.3542910 ↗
30. Adeel, Y. J., A. I. Muhammad, and A. Zeeshan. Characterization of hyperelastic (Rubber) material using uniaxial and biaxial tension tests. Advanced Materials Research, Trans Tech Publications Ltd, Vol. 570, 2012, pp. 1–7.10.4028/www.scientific.net/AMR.570.1 ↗
31. Kim, B., S. B. Lee, J. Lee, S. Cho, H. Park, S. Yeom, et al. A comparison among Neo-Hookean model, Mooney-Rivlin model, and Ogden model for chloroprene rubber. International Journal of Precision Engineering and Manufacturing, Vol. 13, 2012, pp. 759–764.10.1007/s12541-012-0099-y ↗
32. Woo, C. S. and W. D. Kim. Design of mechanical testing specimens for rubber material using finite element analysis. Multidiscipline Modeling in Materials and Structures, Vol. 3, 2007, pp. 325–336.10.1163/157361107781389535 ↗
33. Eberlein, R. and S. Holenstein. Efficient material parameter calibration of elastomer specimen in uniaxial tension, planar shear and equibiaxial tension. Kautschuk, Gummi, Kunststoffe, Vol. 7–8, 2018, pp. 36–40.
34. Montella, G., A. Calabrese, and G. Serino. Mechanical characterization of a Tire Derived Material: Experiments, hyperelastic modeling and numerical validation. Construction and Building Materials, Vol. 66, 2014, pp. 336–347.10.1016/j.conbuildmat.2014.05.078 ↗
35. Liu, C., C. M. Cady, M. L. Lovato, and E. B. Oeler. Uniaxial tension of thin rubber liner sheets and hyperelastic model investigation. Journal of Materials Science, Vol. 50, 2015, pp. 1401–1411.10.1007/s10853-014-8700-7 ↗
36. Starkova, O. and A. Aniskevich. Poisson’s ratio and the incompressibility relation for various strain measures with the example of a silica-filled SBR rubber in uniaxial tension tests. Polymer Testing, Vol. 29, 2010, pp. 310–318.10.1016/j.polymertesting.2009.12.005 ↗
37. Kody, R. S. and A. J. Lesser. Yield behavior and energy absorbing characteristics of rubber-modified epoxies subjected to biaxial stress states. Polymer Composites, Vol. 20, 1999, pp. 250–259.10.1002/pc.10352 ↗
38. Fujikawa, M., N. Maeda, J. Yamabe, Y. Kodama, and M. Koishi. Determining stress–strain in rubber with in-plane biaxial tensile tester. Experimental Mechanics, Vol. 54, 2014, pp. 1639–1649.10.1007/s11340-014-9942-7 ↗
39. Brieu, M., J. Diani, and N. Bhatnagar. A new biaxial tension test fixture for uniaxial testing machine-A validation for hyperelastic behavior of rubber-like materials. Journal of Testing and Evaluation, Vol. 35, 2007, id. 364.10.1520/JTE100688 ↗
40. Sasso, M., G. Palmieri, G. Chiappini, and D. Amodio. Characterization of hyperelastic rubber-like materials by biaxial and uniaxial stretching tests based on optical methods. Polymer Testing, Vol. 27, 2008, pp. 995–1004.10.1016/j.polymertesting.2008.09.001 ↗
41. Ru, M., X. Q. Lei, X. M. Liu, and Y. J. Wei. An equal-biaxial test device for large deformation in cruciform specimens. Experimental Mechanics, Vol. 62, 2022, pp. 1–7.10.1007/s11340-021-00810-w ↗
42. Garishin, O., V. Shadrin, and Y. Kornev. Mechanical studies of rubber micro-and nanocomposites promising for the tire industry. uniaxial and biaxial tests. Materials Physics & Mechanics, Vol. 42, 2019, pp. 445–454.
43. Hamdi, A., M. Abdelaziz, N. Hocine, P. Heuillet, and N. Benseddiq. A fracture criterion of rubber-like materials under plane stress conditions. Polymer Testing, Vol. 25, 2006, pp. 994–1005.10.1016/j.polymertesting.2006.06.005 ↗
44. Xia, Y., Y. Dong, Y. Xia, and W. Li. A novel planar tension test of rubber for evaluating the prediction ability of the modified eight-chain model under moderate finite deformation. Rubber Chemistry and Technology, Vol. 78, 2005, pp. 879–892.10.5254/1.3547920 ↗
45. Radek, K., K. Jiøí, H. Jan, and K. Jan. Investigation of the mechanical properties of a cork/rubber composite. Materiali in Tehnologije, Vol. 50, 2016, pp. 579–583.10.17222/mit.2015.172 ↗
46. Cui, K., J. Qin, C. Di, and Y. Yang. Finite element analysis and simulation of the sealing performance of y-ring rubber seal. Applied Mechanics and Materials, Trans Tech Publications Ltd, Vol. 444, 2014, pp. 1379–1383.10.4028/www.scientific.net/AMM.444-445.1379 ↗
47. Liu, J., K. Deng, S. Liu, X. Yan, D. Zou, and Y. Lin. Mechanical behavior and structure optimization of compressed PHP packer rubber. Journal of Materials Engineering and Performance, Vol. 30, 2021, pp. 3691–3704.10.1007/s11665-021-05686-4 ↗
48. Lee, Y., J. Kim, K. Kim, T. Ahn, B. Choi, H. Lee, et al. Prediction of dynamic stiffness on rubber components considering preloads. Materialwissenschaft und Werkstofftechnik, Vol. 44, 2013, pp. 372–379.10.1002/mawe.201300139 ↗
49. Horton, J. and G. Tupholme. Stiffness of annular bonded rubber flanged bushes. Rubber Chemistry and Technology, Vol. 79, 2006, pp. 233–248.10.5254/1.3547935 ↗
50. Yu, W., L. Zhijun, L. Baolin, and G. Mingshuai. Stiffness characteristic comparison between metal-rubber and rubber isolator under sonic vibration. Journal of Vibroengineering, Vol. 16, 2014, pp. 645–655.
51. Zhang, R. and A. Li. Probability distribution characteristics and statistical parameters of the horizontal stiffness of rubber isolation bearings. Journal of Earthquake Engineering, Vol. 26, 2022, pp. 2437–2449.10.1080/13632469.2020.1762806 ↗
52. Zhou, G., X. Mi, H. Zhang, D. Liao, and K. Wu. Nonlinear finite element analysis and experimental study on the stiffness of rubber joint. Journal of the Chinese Institute of Engineers, Vol. 43, 2020, pp. 603–612.10.1080/02533839.2020.1719898 ↗
53. Persson, B. N. J., O. Albohr, G. Heinrich, and H. Ueba. Crack propagation in rubber-like materials. Journal of Physics: Condensed Matter, Vol. 17, 2005, id. R1071.10.1088/0953-8984/17/44/R01 ↗
54. Yu, F., A. Lu, J. Lu, Z. Wang, Q. Zhang, C. Geng, et al. Effect of phenyl content, sample thickness and compression on damping performances of silicone rubber: A study by dynamic mechanical analysis and impact damping test. Polymer Testing, Vol. 80, 2019, id. 106101.10.1016/j.polymertesting.2019.106101 ↗
55. Yu, W., L. Baolin, and L. Yuru. Effect of loading speed on the damping performance of metal rubber material. Rare Metal Materials and Engineering, Vol. 41, 2012, pp. 381–383.10.1016/S1875-5372(12)60032-0 ↗
56. Burgoa, A., R. Hernandez, and J. L. Vilas. New ways to improve the damping properties in high-performance thermoplastic vulcanizates. Polymer International, Vol. 69, 2020, pp. 467–475.10.1002/pi.5977 ↗
57. Shengbo, L., Y. Hui, J. Hongyuan, and C. Liang. Analysis of dynamic performance of metal rubber damping ring applied in high-speed rotor system. Acta Physica Sinica, Vol. 61, 2012, pp. 10702–10702.10.7498/aps.61.010702 ↗
58. Zheng, X., Z. Ren, L. Shen, B. Zhang, and H. Bai. Dynamic performance of laminated high-damping and high-stiffness composite structure composed of metal rubber and silicone rubber. Materials, Vol. 14, 2021, id. 187.10.3390/ma14010187 ↗
59. Zhang, Y. Study on seismic behaviour for high damping rubber bearings of continuous beam bridges. IOP Conference Series: Earth and Environmental Science, IOP Publishing, Vol. 153, 2018, id. 052049.10.1088/1755-1315/153/5/052049 ↗
60. Qin, R., R. Huang, and X. Lu. Use of gradient laminating to prepare NR/ENR composites with excellent damping performance. Materials & Design, Vol. 149, 2018, pp. 43–50.10.1016/j.matdes.2018.03.063 ↗
61. Lie, L., B. Sun, M. He, and H. Hua. Analysis of the radial stiffness of rubber bush used in dynamic vibration absorber based on artificial neural network. Neuro Quantology, Vol. 16, 2018, pp. 737–744.10.14704/nq.2018.16.6.1643 ↗
62. Lee, H., J. K. Shin, S. Msolli, and H. S. Kim. Prediction of the dynamic equivalent stiffness for a rubber bushing using the finite element method and empirical modeling. International Journal of Mechanics and Materials in Design, Vol. 15, 2019, pp. 77–91.10.1007/s10999-017-9400-7 ↗
63. Luo, Y., Y. Liu, and H. P. Yin. Numerical investigation of nonlinear properties of a rubber absorber in rail fastening systems. International Journal of Mechanical Sciences, Vol. 69, 2013, pp. 107–113.10.1016/j.ijmecsci.2013.01.034 ↗
64. Payungwong, N., S. Tuampoemsab, P. Rojruthai, and J. Sakdapipanich. The role of model fatty acid and protein on thermal aging and ozone resistance of peroxide vulcanized natural rubber. Journal of Rubber Research, Vol. 24, 2021, pp. 1–11.10.1007/s42464-021-00100-z ↗
65. McDonel, E. T. and J. R. Shelton. Effect of curing system on rubber oxidation and physical degradation. Journal of Chemical and Engineering Data, Vol. 4, 1959, pp. 360–366.10.1021/je60004a021 ↗
66. Han, R., Y. Wu, X. Quan, and K. Niu. Effects of crosslinking densities on mechanical properties of nitrile rubber composites in thermal oxidative aging environment. Journal of Applied Polymer Science, Vol. 137, 2020, id. 49076.10.1002/app.49076 ↗
67. Xiang, L., J. Cheng, and S. Kang. Thermal oxidative aging mechanism of crumb rubber/SBS composite modified asphalt. Construction and Building Materials, Vol. 75, 2015, pp. 169–175.10.1016/j.conbuildmat.2014.08.035 ↗
68. He, H., K. Liu, X. Fu, and K. Ye. Development of rubber aging life prediction software. International Conference on Intelligent Robotics and Applications, Springer, Cham, 2017, pp. 831–842.10.1007/978-3-319-65298-6_74 ↗
69. Liu, Q., W. Shi, K. Li, Z. Chen, and H. Liu. Performance degradation prediction and reliability evaluation of rubber aging in natural environment under alternating cyclic thermal load. IEEE Access, Vol. 7, 2019, pp. 63027–63035.10.1109/ACCESS.2019.2917008 ↗
70. Yuan, K., K. Liu, M. Zhao, K. Wei, and Z. Wang. The in-situ matrix cracking behavior in cross-ply laminates under out-of-plane shear loading. Composite Structures, Vol. 290, 2022, id. 115563.10.1016/j.compstruct.2022.115563 ↗
71. Wang, X., K. Yang, C. Zong, and P. Zhang. The evolution of microstructure of Styrene-Isoprene-Butadiene Rubber during the thermal-oxidative aging process using in-situ FTIR way. Polymer Degradation and Stability, Vol. 188, 2021, id. 109573.10.1016/j.polymdegradstab.2021.109573 ↗
72. Chang, T., X. Zhang, and H. Cui. Thermal aging analysis of carbon black and silica filled natural rubber based on terahertz dielectric spectroscopy. Infrared Physics and Technology, Vol. 105, 2020, id. 103195.10.1016/j.infrared.2020.103195 ↗
73. Zhi, J., Q. Wang, M. Zhang, M. Li, and Y. Jia. Coupled analysis on heterogeneous oxidative aging and viscoelastic performance of rubber based on multi-scale simulation. Journal of Applied Polymer Science, Vol. 136, 2019, id. 47452.10.1002/app.47452 ↗
74. Kratina, O., R. Stoček, B. Musil, M. Johlitz, and A. Lion. The study of fatigue behavior of thermally aged rubber based on natural rubber and butadiene rubber. Constitutive models for rubber X, CRC Press, Los Angeles, 2017, pp. 365–370.10.1201/9781315223278-58 ↗
75. Kim, D., J. Oh, J. Do, and J. Park. Effects of thermal aging on mechanical properties of laminated lead and natural rubber bearing. Earthquakes and Structures, Vol. 6, 2014, pp. 127–140.10.12989/eas.2014.6.2.127 ↗
76. Sun, H. C., Y. Y. Hao, and L. N. Wang. Macroscopical contact pressure and microscopic leakage performance analysis of rubber seal considering thermal oxygen aging effect. Proceedings of the Institution of Mechanical Engineers, Part G: Journal of Aerospace Engineering, 2022, id. 09544100221080504.10.1177/09544100221080504 ↗
77. Baer, N. S. Accelerated aging: Photochemical and thermal aspects. Getty, Google Scholar, Los Angeles, CA, 1996.10.2307/3179994 ↗
78. Fubao, J. I., Z. H. Yuanxiang, B. Liang, X. Liang, Z. H. Zhongliu, and L. Zhang. Effect of UV radiation aging on creepage discharge characteristics of high temperature vulcanized silicon rubber at high altitude. Plasma Science and Technology, Vol. 21, 2019, id. 054003.10.1088/2058-6272/aaff0c ↗
79. Zheng, T., X. Zheng, S. Zhan, J. Zhou, and S. Liao. Study on the ozone aging mechanism of natural rubber. Polymer Degradation and Stability, Vol. 186, 2021, id. 109514.10.1016/j.polymdegradstab.2021.109514 ↗
80. Mazurkiewicz, D. Problems of identification of strength properties of rubber materials for purposes of numerical analysis: a review. Archives of Civil and Mechanical Engineering, Vol. 10, 2010, pp. 69–84.10.1016/S1644-9665(12)60131-9 ↗
81. Wang, X., H. Pan, K. Yang, and P. Zhang. Cracking, structural, and mechanical property changes of SIBR and related elastomers during the ozone aging process. Polymer Degradation and Stability, Vol. 195, 2022, id. 109774.10.1016/j.polymdegradstab.2021.109774 ↗
82. Ning, N. Y., Z. P. Zheng, L. Zhang, and M. Tian. An excellent ozone-resistant polymethylvinylsiloxane coating on natural rubber by thiol-ene click chemistry. Express Polymer Letters, Vol. 9, 2015, pp. 490–495.10.3144/expresspolymlett.2015.47 ↗
83. Botros, S. H., F. F. El-Mohsen, and E. A. Meinecke. Effect of brown vulcanized vegetable oil on ozone resistance, aging, and flow properties of rubber compounds. Rubber Chemistry and Technology, Vol. 60, 1987, pp. 159–175.10.5254/1.3536116 ↗
84. Yang, T., C. Yang, H. Wei, Z. Zhang, J. Jiang, C. Xu, et al. Study on Aging Evaluation Method of Silicone Rubber in Dongguan. International Conference on Power System Technology (POWERCON), IEEE, Singapore, 2018, pp. 3740–3747.10.1109/POWERCON.2018.8602035 ↗
85. Abdelaziz, M. N., G. Ayoub, X. Colin, M. Benhassine, and M. Mouwakeh. New developments in fracture of rubbers: Predictive tools and influence of thermal aging. International Journal of Solids and Structures, Vol. 165, 2019, pp. 127–136.10.1016/j.ijsolstr.2019.02.001 ↗
86. Chaabane, M., N. Ding, and F. Zaïri. An approach to assess the thermal aging effects on the coupling between inelasticity and network alteration in filled rubbers. International Journal of Non-Linear Mechanics, Vol. 136, 2021, id. 103783.10.1016/j.ijnonlinmec.2021.103783 ↗
87. Moon, B., J. Lee, S. Park, and C. S. Seok. Study on the aging behavior of natural rubber/butadiene rubber (NR/BR) blends using a parallel spring model. Polymers, Vol. 10, 2018, id. 658.10.3390/polym10060658 ↗
88. Rodionova, O. Y. and A. L. Pomerantsev. Prediction of rubber stability by accelerated aging test modeling. Journal of Applied Polymer Science, Vol. 95, 2005, pp. 1275–1284.10.1002/app.21347 ↗
89. Woo, C. S., S. S. Choi, S. B. Lee, and H. Kim. Useful lifetime prediction of rubber components using accelerated testing. IEEE Transactions on Reliability, Vol. Vol. 59, 2010, pp. 11–17.10.1109/TR.2010.2042103 ↗
90. Itoh, Y. and H. Gu. Prediction of aging characteristics in natural rubber bearings used in bridges. Journal of Bridge Engineering, Vol. 14, 2009, pp. 122–128.10.1061/(ASCE)1084-0702(2009)14:2(122) ↗
91. Lou, W., C. Xie, and X. Guan. Thermal-aging constitutive model for a silicone rubber foam under compression. Polymer Degradation and Stability, Vol. 198, 2022, id. 109873.10.1016/j.polymdegradstab.2022.109873 ↗
92. Zhou, J., J. Yao, H. H. Hu, and Y. Song. Accelerated aging life evaluation method of silicone rubber based on segmented nonlinear. Arrhenius Model Materials Research Innovations, Vol. 19, 2015, pp. 5–855.10.1179/1432891714Z.0000000001207 ↗
93. Ružiak, I., P. Koštial, Z. Jančíková, M. Gajtanska, Ľ. Krišťák, I. Kopal, et al. Artificial neural networks prediction of rubber mechanical properties in aged and nonaged state. Improved performance of materials, Springer, Cham, 2018, pp. 27–35.10.1007/978-3-319-59590-0_3 ↗
94. Mark, J. E. and J. G. Curro. Monte Carlo simulations relevant to the upturns in modulus observed for natural rubber at high elongations. Journal of Polymer Science: Polymer Physics Edition, Vol. 23, 1985, pp. 2629–2632.10.1002/pol.1985.180231218 ↗
95. Cataldo, F. Protection mechanism of rubbers from ozone attack. Ozone: Science & Engineering, Vol. 41, 2019, pp. 358–368.10.1080/01919512.2018.1542518 ↗
96. Mao, Z., W. Wang, and G. Mao. Improving the thermal aging resistance of γ-vulcanized polybutadiene rubber (BR)/Nature Rubber (NR) blends with sulfur added. Advances in Materials Science and Engineering, 2021, id. 5782539.10.1155/2021/5782539 ↗
97. Fang, Y., Y. Deng, and Y. Li. The Research of Silicone Rubber Aging Factors by Attenuated Total Reflection Infrared Spectroscopy. International Electrical and Energy Conference (CIEEC), IEEE, Dalian, 2019, pp. 1444–1449.10.1109/CIEEC47146.2019.CIEEC-2019526 ↗
98. Liu, K., P. Li, and Z. Wang. Statistical modeling of random hail impact. Extreme Mechanics Letters, Vol. 48, 2021, id. 101374.10.1016/j.eml.2021.101374 ↗
99. Choi, S. S. Influence of rubber composition on change of crosslink density of rubber vulcanizates with EV cure system by thermal aging. Journal of Applied Polymer Science, Vol. 75, 2000, pp. 1378–1384.10.1002/(SICI)1097-4628(20000314)75:11<1378::AID-APP9>3.0.CO;2-I ↗
100. Fu, J. F., L. Y. Chen, H. Yang, Q. D. Zhong, L. Y. Shi, W. Deng, et al. Mechanical properties, chemical and aging resistance of natural rubber filled with nano-Al2O3. Polymer Composites, Vol. 33, 2012, pp. 404–411.10.1002/pc.22162 ↗