PSI - Issue 80

M. Elkhodbia et al. / Procedia Structural Integrity 80 (2026) 187–194

194

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Author name / Structural Integrity Procedia 00 (2023) 000–000

vides a more mechanistically complete and general foundation for future temperature dependent HAC simulations, particularly for scenarios involving lower hydrogen concentrations, di ff erent materials, or explicit modeling of HELP mechanisms where plasticity e ff ects are expected to be more significant.

Acknowledgements

The authors acknowledge the financial support provided by Abu Dhabi National Oil Company (ADNOC) under grant no. S.O. 9100000617 / KUX 8434000453.

References

Amor, H., Marigo, J.J., Maurini, C., 2009. Regularized formulation of the variational brittle fracture with unilateral contact: Numerical experiments. Journal of the Mechanics and Physics of Solids 57, 1209–1229. Asmara, Y.P., 2018. The roles of h 2 s gas in behavior of carbon steel corrosion in oil and gas environment: a review. Jurnal Teknik Mesin (JTM) 7, 37–43. Cancio, M.J., Perez, T.E., Collet-Lacoste, J.R., 2010. Environmental and metallurgical parameters a ff ecting sulfide stress cracking resistance of high strength steels, in: NACE CORROSION, NACE. pp. NACE–10283. Cui, C., Ma, R., Mart´ınez-Pan˜eda, E., 2022. A generalised, multi-phase-field theory for dissolution-driven stress corrosion cracking and hydrogen embrittlement. Journal of the Mechanics and Physics of Solids 166, 104951. Cupertino-Malheiros, L., Mandal, T.K., The´bault, F., Mart´ınez-Pan˜eda, E., 2024. On the suitability of single-edge notch tension (sent) testing for assessing hydrogen-assisted cracking susceptibility. Engineering Failure Analysis 162, 108360. Djukic, M.B., Bakic, G.M., Zeravcic, V.S., Sedmak, A., Rajicic, B., 2019. The synergistic action and interplay of hydrogen embrittlement mecha nisms in steels and iron: Localized plasticity and decohesion. Engineering Fracture Mechanics 216, 106528. Elkhodbia, M., Barsoum, I., . Coupled chemo-thermo-mechanical phase field modeling of hydrogen assisted cracking. International Journal of Hydrogen Energy (In Press) . Elkhodbia, M., Gadala, I., Barsoum, I., AlFantazi, A., Wahab, M.A., 2025. Multi-physics microstructural modelling of a carbon steel pipe failure in sour gas service. Engineering Failure Analysis 174, 109469. Elkhodbia, M., Negi, A., Mubarak, G., Barsoum, I., AlFantazi, A., 2023. Review on sulfide stress cracking in sour service for octg and recent advances in modeling of hydrogen-assisted fracture. Geoenergy Science and Engineering , 212174. Golahmar, A., Kristensen, P.K., Niordson, C.F., Mart´ınez-Pan˜eda, E., 2022. A phase field model for hydrogen-assisted fatigue. International Journal of Fatigue 154, 106521. Isfandbod, M., Mart´ınez-Pan˜eda, E., 2021. A mechanism-based multi-trap phase field model for hydrogen assisted fracture. International Journal of Plasticity 144, 103044. Liu, L., Case, R., 2022. The influence of h2s on hydrogen absorption and sulfide stress cracking resistance of high strength low alloy carbon steel c110. Journal of Natural Gas Science and Engineering 99, 104418. Mandal, T.K., Parker, J., Gagliano, M., Mart´ınez-Pan˜eda, E., 2024. Computational predictions of weld structural integrity in hydrogen transport pipelines. International Journal of Hydrogen Energy . Mart´ınez-Pan˜eda, E., Golahmar, A., Niordson, C.F., 2018. A phase field formulation for hydrogen assisted cracking. Computer Methods in Applied Mechanics and Engineering 342, 742–761. doi: 10.1016/j.cma.2018.07.021 . MR0175, A., 2021. Petroleum and natural gas industries — materials for use in h2s-containing environments in oil and gas production. Available from NACE International and ISO. Negi, A., Barsoum, I., 2024. E ff ect of residual stress on sulfide stress cracking and fracture toughness in carbon steel: A phase-field modeling approach. Available at SSRN 5061926 . Negi, A., Elkhodbia, M., Barsoum, I., AlFantazi, A., 2024a. Coupled analysis of hydrogen di ff usion, deformation, and fracture: a review. Interna tional Journal of Hydrogen Energy 82, 281–310. Negi, A., Elkhodbia, M., Barsoum, I., AlFantazi, A., 2024b. A phase field finite element study and evaluation of sulfide stress cracking in dcb specimen testing. Heliyon 10. Omura, T., Kobayashi, T., Ueda, M., 2009. Ssc resistance of high strength low alloy steel octg in high pressure h2s environments, in: NACE CORROSION, NACE. pp. NACE–09102. Taylor, G.I., Quinney, H., 1934. The latent energy remaining in a metal after cold working. Proceedings of the Royal Society of London. Series A, Containing Papers of a Mathematical and Physical Character 143, 307–326. TM0177, A., 2016. Laboratory testing of metals for resistance to sulfide stress cracking and stress corrosion cracking in h2s environments. Valverde-Gonza´lez, A., Mart´ınez-Pan˜eda, E., Quintanas-Corominas, A., Reinoso, J., Paggi, M., 2022. Computational modelling of hydrogen assisted fracture in polycrystalline materials. international journal of hydrogen energy 47, 32235–32251. Vera, J., Case, R., 1997. The relationship between hydrogen permeation and sulfide stress cracking susceptibility of octg materials at di ff erent temperatures and ph values, in: NACE CORROSION, NACE. pp. NACE–97047. Zhang, Z., Zheng, Y., Hou, D., Zhang, H., Li, Y., Zhang, L., 2020. The influence of hydrogen sulfide on internal pressure strength of carbon steel production casing in the gas well. Journal of Petroleum Science and Engineering 191, 107113.

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