About the possibility of using the NACE method when conducting accelerated tests of rebar rolled products for hydrogen embrittlement and stress corrosion cracking
https://doi.org/10.22405/2226-8383-2022-23-1-223-235
Abstract
The article presents an analysis of the possibility of using the NACE Standard TM0177- 2005 standard during accelerated laboratory tests for hydrogen embrittlement and corrosion cracking of rebar rolled products. It is shown that the use of the NACE standard in accelerated laboratory tests of reinforcing steels is impractical, due to the specific size and geometry of the test samples, which do not allow to bring the test conditions closer to real and a significant test time.
About the Authors
Nikolay Nikolaevich SergeevRussian Federation
doctor of technical science, professor
Sergey Nikolaevich Kutepov
Russian Federation
candidate of pedagogical science, associate professor
Aleksandr Nikolaevich Sergeev
Russian Federation
doctor of pedagogical science, professor
Aleksander Evgenуevich Gvozdev
Russian Federation
doctor of technical science, professor
Evgeny Aleksandrovich Protopopov
Russian Federation
candidate of technical sciences
Aleksandr Nikolaevich Chukanov
Russian Federation
doctor of technical science, associate professor
Denis Sergeevich Klement’yev
Russian Federation
postgraduate student
References
1. Sergeev N. N. & Sergeev A. N. 2018, Mechanical properties and internal friction of high-strength steels in corrosion environments: monograph, TulGU, Tula.
2. Sergeev N. N., Sergeev A. N., Kutepov S. N., Gvozdev A. E., Ushakov M. V. & Izvol’skii V. V. 2019, Physical-mechanical and corrosion properties of metallic materials operated in aggressive environments, TulGU, Tula.
3. Sergeev N. N., Izvol’skii V. V., Sergeev A. N., Kutepov S. N., Gvozdev A. E., Klementev D. S. & Pantyukhin O. V. 2018, “Development of a method for studying the corrosion-mechanical failure of reinforcing steels in hydrogen-containing media”, Izvestiya Tul’skogo gosudarstvennogo universiteta. Tekhnicheskiye nauki, issue 8, pp. 35-56.
4. Baumert, K. L. & Watkins, W.R. 1993, “Case histories using the slow strain rate test”, Slow strain rate testing for the evaluation of environmentally induced cracking: Research and Engineering Applications; R.D.Kane (ed.), ASTM, pp. 173-180.
5. Beavers J. A. & Koch G. H. 1993, “Limitations of the slow strain rate test technique”, Slow strain rate testing for the evaluation of environmentally induced cracking: Research and Engineering Applications, R.D.Kane (ed.), ASTM, pp. 22-39.
6. Parkins R. D. 1993, “Slow strain rate testing – 25 years experience”, Slow strain rate testing for the evaluation of environmentally induced cracking: Research and Engineering Applications, R.D.Kane (ed.), ASTM, pp. 7-21.
7. Kane R. D. & Wilhelm S. M. 1993, “Status of standardization activities on slow strain rate testing techniques”, Slow strain rate testing for the evaluation of environmentally induced cracking: Research and Engineering Applications, R.D.Kane (ed.), ASTM, pp. 40-47.
8. Sergeev N. N., Izvol’skii V. V., Sergeev A. N., Kutepov S. N., Gvozdev A. E., Ageeva E. V., Klementev D. S. & Kruglyakov O. V. 2019, “Influence of the scale factor and state of the surface on the sensitivity of steel 20GS2 to hydrogen cracking”, Izvestiya Yugo-Zapadnogo gosudarstvennogo universiteta, vol. 23, no. 5, pp. 8-22.
9. Shorshorov M. Kh., Gvozdev A. E., Sergeev A. N., Kutepov S. N., Kuzovleva O. V., Seledkin E. M., Klementev D. S. & Kalinin A. A. 2021, Modeling of resource-saving processes processing of ingot, powder, nanostructured and composite materials: monograph. Ed. 2nd, rev. and additional, Infra-Engineering, Moscow, Vologda.
10. Sergeev N. N., Kutepov S. N., Sergeev A. N., Kolmakov A. G., Izvol’skii V. V. & Gvozdev A. E. 2020, “Long-term strength of 22Kh2G2AYu reinforcing-bar steel during corrosion cracking tests in a boiling nitrate solution”, Russian Metallurgy (Metally), no. 4, pp. 434-440.
11. Sergeev N. N., Sergeev A. N., Kutepov S. N., Gvozdev A. E., Kolmakov A. G. & Klementev D. S. 2021, “Influence of heat treatment on residual stress formation in the wear-resistant steel 60–steel 15–steel 60 bimetal material”, Inorganic Materials: Applied Research, vol. 12, no. 1, pp. 5-9.
12. Sergeev A. N., Kutepov S. N., Kuzovleva O. V., Gvozdev A. E. & Klementev D. S. “Mathematical planning and modeling of the processes of behavior of metal systems in extreme conditions and states”, Algebra, teoriya chisel i diskretnaya geometriya: sovremennyye problemy, prilozheniya i problemy istorii (Proc. XVIII Int. Conf. dedicated to the birthday of professors B.M. Bredikhina, V.I. Nechaev and S.B. Stechkin). Tula, 2020, pp. 385-388.
13. Gvozdev A. E. 2019, Extremal effects of strength and plasticity in highly alloyed metal ingot and powder systems: monograph. 2nd ed., corrected and additional, TulGU, Tula.
14. Shorshorov M. Kh., Gvozdev A. E., Zolotukhin V. I., Sergeev A. N., Kalinin A. A., Breki A. D., Sergeev N. N., Kuzovleva O. V., Starikov N. E. & Maliy D. V. 2016, Development of progressive technologies for the production and processing of metals, alloys, powder and composite nanomaterials: monograph, TulGU, Tula.
15. Khonelidze D. M., Sergeev A. N., Chukanov A. N., Maliy D. V., Kutepov S. N., Gvozdev A. E., Klementev D. S., Metelkina D. S. & Tsoi E. V. 2019, Software package for analysis of corrosion processes and prediction of long-term strength and durability characteristics of reinforcing steels of strength classes A600-A1000 and At600-At1000 under hydrogen stress corrosion, Russia, cer.
16. of aut. no. 2019613673.
17. Sergeev N. N., Minaev I. V., Tikhonova I. V., Gvozdev A. E., Sergeev A. N., Kolmakov A. G., Kutepov S. N., Maliy D. V. & Golyshev I. V. 2019, Method for forming a hardened surface layer in the zone of laser cutting of parts from alloyed structural steels, Russia, patent no. 2707374.
18. Klementev D. S., Sergeev A. N., Medvedev P. N., Kutepov S. N., Maliy D. V., Dorokhin Yu. S. & Gvozdev A. E. 2021, Mathematical digital complex for calculating the long-term corrosion strength of 20GS2 reinforcing steel at different tempering temperatures, Russia, cer. of aut. no. 2021681247.
Review
For citations:
Sergeev N.N., Kutepov S.N., Sergeev A.N., Gvozdev A.E., Protopopov E.A., Chukanov A.N., Klement’yev D.S. About the possibility of using the NACE method when conducting accelerated tests of rebar rolled products for hydrogen embrittlement and stress corrosion cracking. Chebyshevskii Sbornik. 2022;23(1):223-235. (In Russ.) https://doi.org/10.22405/2226-8383-2022-23-1-223-235