氢脆
氢
材料科学
晶间断裂
可塑性
微观结构
断裂(地质)
劈理(地质)
脆化
冶金
晶间腐蚀
环境应力断裂
复合材料
化学
腐蚀
有机化学
作者
I.M. Robertson,Petros Sofronis,Akihide Nagao,May L. Martin,Shuai Wang,David Gross,Kelly E. Nygren
标识
DOI:10.1007/s11661-015-2836-1
摘要
The connection between hydrogen-enhanced plasticity and the hydrogen-induced fracture mechanism and pathway is established through examination of the evolved microstructural state immediately beneath fracture surfaces including voids, “quasi-cleavage,” and intergranular surfaces. This leads to a new understanding of hydrogen embrittlement in which hydrogen-enhanced plasticity processes accelerate the evolution of the microstructure, which establishes not only local high concentrations of hydrogen but also a local stress state. Together, these factors establish the fracture mechanism and pathway.
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