Page 131 - dysertaciyahembara

advanced high-strength steels for auto construction// Corrosion Reviews. 2016;

34(3) p. 127-152.

64. Liu Q., Atrens A. A critical review of the influence of hydrogen on the

mechanical properties of medium-strength steels// Corrosion Reviews. 2013;

31(3-6) p. 85-103.

65. Escobar D.P., Verbeken K., Duprez L., Verhaege M. Evaluation of

hydrogen trapping in high strength steels by thermal desorption spectroscopy//

Materials Science and Engineering: A. 2012; 551 p. 50-58.

66. Alvaro A., Jensen I.T., Kheradmand N., Løvvik O.M., Olden V.

Hydrogen embrittlement in nickel, visited by first principles modeling, cohesive

zone simulation and nanomechanical testing// International journal of hydrogen

energy. 2015 ;40(47) p. 16892-16900.

67. Jiang D.E., Carter E.A. First principles assessment of ideal fracture

energies of materials with mobile impurities: implications for hydrogen

embrittlement of metals// Acta materialia. 2004; 52(16) p. 4801-4807.

68. Jiang D.E., Carter E.A. Diffusion of interstitial hydrogen into and

through bcc Fe from first principles// Physical Review B. 2004; 70(6) p. 064102.

69. Song J., Curtin W.A. Atomic mechanism and prediction of hydrogen

embrittlement in iron// Nature materials. 2013; 12(2) p. 145-51.
70. Hickel T., Nazarov R., McEniry E.J., Leyson G., Grabowski B.,

Neugebauer J. Ab initio based understanding of the segregation and diffusion
mechanisms of hydrogen in steels. Jom. 2014; 66(8) p. 1399-1405.

71. Counts W.A., Wolverton C., Gibala R. First-principles energetics of
hydrogen traps in α-Fe: Point defects// Acta Materialia. 2010; 58(14) p. 4730-

4741.

72. Yu H, Olsen J.S., Olden V., Alvaro A., He J., Zhang Z. Cohesive zone

simulation of grain size and misorientation effects on hydrogen embrittlement in

nickel// Engineering Failure Analysis. 2017; 81 p. 79-93.

131