Article ID | Journal | Published Year | Pages | File Type |
---|---|---|---|---|
7964042 | Journal of Nuclear Materials | 2016 | 17 Pages |
Abstract
The observations are consistent with a model of transition in which in-plane cracking becomes interlinked prior to transition. These cracks, combined with the development of cracks with a through-thickness component (driven primarily by plasticity in the metal) and/or a porous network of fine cracks (associated with phase transformation), form a percolation path through the oxide layer. The oxidising species can then percolate from the oxide surface to the metal/oxide interface, at which stage transition then ensues.
Related Topics
Physical Sciences and Engineering
Energy
Nuclear Energy and Engineering
Authors
H. Swan, M.S. Blackmur, J.M. Hyde, A. Laferrere, S.R. Ortner, P.D. Styman, C. Staines, M. Gass, H. Hulme, A. Cole-Baker, P. Frankel,