Page 166 - Дисертаця Венгринюк

166

Sustainability with Hydrogen. DeutscherVerein des Gas und Wasserfaches: Bonn,

Germany, 2023.

78. Nguyen T. T., Heo H. M., Park J. et al. Fracture properties and fatigue

life assessment of API X70 pipeline steel under the effect of an environment

containing hydrogen. Journal of Mechanical Science and Technology. 2021.
Vol. 35. P. 1445–1455.

79. Briottet L., Moro I., Lemoine P. Quantifying the hydrogen embrittlement

of pipeline steels for safety considerations. International Journal of Hydrogen

Energy. 2012. Vol. 37. P. 17616–17623.

80. Capelle J., Gilgert J., Dmytrakh I. et al. Sensitivity of pipelines with steel

API X52 to hydrogen embrittlement. International Journal of Hydrogen Energy.

2008. Vol. 33. P. 7630–7641.

81. Depraetere R., De Waele W., Cauwels M., et al. The effect of hydrogen

and notch orientation in SENT specimens on the fracture toughness of an API 5L

X70 pipeline steel. Engineering Fracture Mechanics. 2024. Vol. 300. Article
No. 109995.

82. Chatzidouros E.V., Traidia A., Devarapalli R. S., et al. Fracture
toughness properties of HIC susceptible carbon steels in sour service conditions.

International Journal of Hydrogen Energy. 2019. Vol. 44, No 39. P. 22050–63.
83. Chatzidouros E, Papazoglou V, Pantelis D. Hydrogen effect on fracture

toughness of API 5L X70, X65 and X52 pipeline steel welds: an overview. American

Society of Mechanical Engineers Digital Collection, October 31, 2011. Vol. 3.

P. 251–260.

84. Xing Y., Yang Z., Yao X. et al. Effects of hydrogen on the fracture

toughness of X80 steel base metal and girth weld under strong cathodic current with

in-situ hydrogen charging. Engineering Failure Analysis. 2022. Vol. 135. Article

No. 106143.

85. Álvarez G., Peral L. B., Rodríguez C., et al. Hydrogen embrittlement of

structural steels: Effect of the displacement rate on the fracture toughness of high-