The influence of hydrogen diffusion in the structure of NiTi wires on their behavior during the cyclic loading
R. Sarraj
, T. Hassine, F. Gamaoun
Резюме: Objectives: This article aimed to investigate the influence of hydrogen diffusion in the structure during cyclic loading on the superelastic behavior of NiTi alloys. Materials and Methods: To predict these effects, a commercial Ni-Ti archwire from Forestdent company has been charged by hydrogen in 0.9% NaCl solution with a current density of 10 A/m2 during 6h. Results: Residual strain, dissipated energy, critical start stress and end stress of the martensite transformation evolves during cyclic loading-unloading. This evolution becomes more significant with hydrogen charging rather that without it. Moreover, an embrittlement has been detected for the archwire charged during 6h which absorbed the bigger amount of hydrogen. Discussion: Nickel-titanium arc wires have been used in orthodontic clinics which show an embrittlement of wires after few months of use in oral cavity of the patient. In fact, the embrittlement can be owing to the expansion in the subsurface of the parent phase of an internal stress during hydrogen charging, which acts as a barrier for the growth of the martensite bands. The hydrogen is due to the presence of fluoride in the toothpaste. Conclusions: The present study suggests that the amount of hydrogen absorbed by the structure leads to SMA embrittlement.
Series on Biomechanics, Vol.38, No.1 (2024), 57-62
DOI:10.7546/SB.06.01.2024
Ключови думи: cyclic loading; hydrogen; martensite variants; Shape memory alloys; superelastic
| Литература: (click to open/close) | [1] Gamaoun, F., 2021. Strain rate effect upon mechanical behaviour of hydrogen-charged cycled niti shape memory. Materials (Basel) 14, 1–15.
[2] Cherneva, S., Petrunov, V., 2020. Comparison of mechanical properties of last generation multi-force nickel-titanium archwires. Ser. Biomech 34, 28–36.
[3] Sarraj, R., Hassine, T., Gamaoun, F., 2020. Experimental investigation of mechanical behavior of NiTi arch under cycling loading and cathodically hydrogen charging. Design and Modeling of Mechanical Systems - IV, 690–698.
[4] Sarraj, R., Letaief, W. E., Hassine, T., Gamaoun, F., 2018. Modeling of rate dependency of mechanical behavior of superelastic NiTi alloy under cyclic loading. The International Journal of Advanced Manufacturing Technology 100, 2715-2724.
[5] Kireeva, I. V., Platonova, Y. N., Chumlyakov, Y. I., 2017. Influence of hydrogen and number of particle variants on ordinary and two-way shape memory effects in Ti–Ni single crystals. Russian Physics Journal 59, 1560-1566.
[6] Eguchi, T., Asaoka, K., Nagumo, M., 2004. Effect of constituent phase of Ni–Ti shape memory alloy on susceptibility to hydrogen embrittlement. Materials Science and Engineering: A 374. 177–183.
[7] Amani, L., Bouby, C., Gamaoun, F., Bouraoui, T., Ben Zineb, T., 2016. Modeling of hydrogen effect on the superelastic behavior of Ni-Ti shape memory alloy wires. Smart Materials and Structures 132, 115047.
[8] Mirjalili, M., Momeni, M., Ebrahimi, N., Moayed, M. H., 2013. Comparative study on corrosion behaviour of Nitinol and stainless steel orthodontic wires in simulated saliva solution in presence of fluoride ions. Materials Science and Engineering: C 33. 2084–2093.
[9] Yokoyama, K., Ogawa, T., Takashima, K., Asaoka, K., Sakai, J., 2007. Hydrogen embrittlement of Ni-Ti superelastic alloy aged at room temperature after hydrogen charging. Materials Science and Engineering: A 466. 106–113.
[10] Runciman, A., Chen, K. C., Pelton, A. R., Trépanier, C., 2006. Effects of hydrogen on the phases and transition temperatures of NiTi, Proceedings of the International Conference on Shape Memory and Superelastic Technologies, 185–196
[11] Rozenak, P., Loew, A., 2008. Stress distributions due to hydrogen concentrations in electrochemically charged and aged austenitic stainless steel. Corrosion Science 50, 3021–3030.
[12] Yokoyama, K., Hirata, Y., Inaba, T., Mutoh, K., Sakai, J., 2015. Inhibition of localized corrosion of Ni-Ti superelastic alloy in NaCl solution by hydrogen charging. Journal of Alloys and Compounds 639, 365–372.
[13] Sarraj, R., Kessentini, A., Hassine, T., Algahtani, A., Gamaoun, F., 2019. Hydrogen Effect on the Cyclic Behavior of a Superelastic NiTi Archwire. Metals (Basel) 9. 316.
[14] Tomita, M., Asaoka, K., 2008. Hydrogen thermal desorption behavior of Ni–Ti superelastic alloy subjected to tensile deformation after hydrogen charging. Materials Science and Engineering: A 476. 308–315.
[15] Asaoka, K., Yokoyama, K., Nagumo, M., 2002. Hydrogen Embrittlement of Nickel-Titanium Alloy in Biological Environment 33. 495–501.
[16] Pelton, B. L., Slater, Pelton, A., 1997. Effects of Hydrogen in TiNi. Proceedings of the Second International Conference on Shape Memory and Superelastic Technologies, 2-6 March, 1997, Asilomar Conference Center, Pacific Grove, California.
[17] Yokoyama, K., Tomita, M., Sakai, J., 2009. Hydrogen embrittlement behavior induced by dynamic martensite transformation of Ni-Ti superelastic alloy. Acta Materialia 57. 1875–1885.
|
|
| Дата на публикуване: 2024-04-23
(Price of one pdf file: 39.00 BGN/20.00 EUR)
