On the Role of Stress, Strain and Diffusion in Dissolution – Condensation Mechanism of Liquid Metal Embrittlement

Evgeny E. Glickman

doi:10.4028/www.scientific.net/DDF.264.141

Paper Titles

Nonequilibrium Vacancies in Nanosystems
p.109

Nonlinear Stress Effects in Diffusion
p.117

Stress Relaxation Mechanisms during Cd₂₁Ni₅ Intermetallic Growth under High Hydrostatic Pressure
p.123

Thermal and Mechanical Stability of Polycrystalline Nanowires
p.133

On the Role of Stress, Strain and Diffusion in Dissolution – Condensation Mechanism of Liquid Metal Embrittlement
p.141

Diffusion of Implanted Metals in Tantalum Silicide
p.151

Solid-State Reactions in Ni(10 nm)/C(2 nm)/Si(001) Thin Film System
p.155

Influence of Annealing Environment and Film Thickness on the Phase Formation in the Ti/Si(100) and (Ti +Si)/Si(100) Thin Film Systems
p.159

Study of Diffusion and Reaction Diffusion in the Fe-C-Nb System
p.163

HomeDefect and Diffusion ForumDefect and Diffusion Forum Vol. 264On the Role of Stress, Strain and Diffusion in...

On the Role of Stress, Strain and Diffusion in Dissolution – Condensation Mechanism of Liquid Metal Embrittlement

Abstract:

The models of liquid –metal embrittlement (LME) which explore the concept of fast stress/strain induced liquid phase diffusion as the major factor responsible for acceleration of subcritical cracks are overviewed and refined. The models are used for further analysis of several focus issues in the LME kinetics.