[1]. رمضانخانی ع.، "جوشکاری خطوط لوله،" انتشارات قرن ، تهران 1391.##
[2]. Stroe M.,” Hydrogen Embrittlement of Ferrous Materials”, 2006.##
[3]. Latifi A., Miresmaeili R. and Abdollah Zadeh A., “The mutual effects of hydrogen and microstructure on hardness and impact energy of SMA welds in X65 steel,” Materials Science and Engineering A, Vol. 679, No. 2, January 2017.##
[4]. Ballesteros A., Ponciano J. and Bott I., “Study of the susceptibility of AP5L X80 girth welds to sulfide stress corrosion cracking and hydrogen embrittlement,” 8th International Pipeline Conference IPC2010.##
[5]. Hardie D., Charles E. A. and Lopez A. H., “Hydrogen embrittlement of high strength pipeline steels,” Corrosion Science, Vol. 48 , pp. 4378–4385, 2006.##
[6]. Du X. S., Cao W. B., Wang C. D., Li S. J., Zhao J. Y. and Sun Y. F., “Effect of microstructures and inclusions on hydrogen-induced cracking and blistering of A537 steel,” Materials Science and Engineering A 642, pp. 181–186, 2015.##
[7]. Birnbaum K., “Mechanisms of hydrogen related fracture of metals,” Technical Report, pp. 1-18, 1989.##
[8]. Miresmaeili R., Liu L. and Kanayama H., “A possible explanation for the contradictory results of hydrogen effects on macroscopic deformation,” Int. J. Press. Vessel. Pip. 99–100, pp. 34–43, 2012.##
[9]. Bridgman P. W., “Studies in large plastic flow and fracture”, McGraw-Hill New York, 1952.##
[10]. Khatib Zadeh Davani R. and Miresmaeili R., Soltanmohammadi M., “Effect of thermomechanical parameters on mechanical properties of base metal and heat affected zone of X65 pipeline steel in the presence of hydrogen,” Materials Science and Engineering A, Vol. 718, pp. 135-146, 2018.##
[11]. Lunarska E., Ososkov Y. and Jagodzinsky Y., “Correlation between critical hydrogen concentration and hydrogen damage of pipeline steel,” International Journal of Hydrogen Energy, Vol. 22, No. 2–3, pp. 279-284, 1997.##
[12]. Ghomashchi R., Costin W. and Kurji R., “Evolution of weld metal microstructure in shielded metal arc welding of X70 HSLA steel with cellulosic electrodes: A case study,” Materials Characterization, Vol. 107, pp. 317–326, 2015.##
[13]. Koh S., Lee J., Yang B. and Kim K., “Effect of Molybdenum and Chromium Addition on the Susceptibility to Sulfide Stress Cracking of High-Strength, Low-Alloy Steels,” Corrosion, Vol. 63, pp. 220-230, 2007.##
[14]. Zhao Y., Seok M. Y., Choi I. C., Lee Y. H. and Park S. J., Ramamurty U., Suh J.Y., Jang J.i., “The role of hydrogen in hardening/softening steel: Influence of the charging process,” Scripta Materialia, Vol. 107: pp. 46-49, 2015.##
[15]. Jia H. A., Hung M. Richard H., Gangloff P. J. and Scully R., “Hydrogen diffusion and trapping in a precipitation-hardened nickel–copper–aluminum alloy Monel K-500 (UNS N05500),” Acta Materialia, Vol. 61, pp. 3186–3199, 2013.##
[16]. Kong J., Zhen L., Guo B., Li P., Wang A. and Xie C., “Influence of Mo content on microstructure and mechanical properties of high strength pipeline steel,” Material Design, Vol. 25 :pp. 723-728, 2004.##
[17]. Chu W. Y., Qiao L. J., Li J. X., Su Y. J., Yan Y., Bai Y., Ren X. C. and Huang H. Y., “Fatigue crack growth acceleration caused by irreversible hydrogen desorption in high-strength steel and its mechanical condition,” Materials Science and Engineering, Vol. 528, pp. 7729–7738, 2011.##
[18]. Robertson I. M., Birnbaum H. K., Sofronis P: Chapter 91 Hydrogen Effects on Plasticity. In: Dislocations in Solids. Edited by Hirth JP, Kubin L, Vol. 15, pp. 249-293, 2009.##
[19]. Salman A. and Duheisat A., “An Investigation of Mechanical Degradation of Pure Copper by Hydrogen,” Contemporary Engineering Sciences, Vol. 7, No. 4, pp. 165 – 178, 2014.##
[20]. Kim S. S., Lee E. W. and Shin K. S., “Effect of cathodic hydrogen charging on tensile properties of 2090 AL-LI alloy,” Vol. 22, pp. 1831-1834, 1988.##
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