A Method for the Analysis of the Growth of Short Fatigue Cracks
A.J. McEvily
|
p3 |
Studies of SCC and Hydrogen Embrittlement of High Strength Alloys Using Fracture Mechanics Methods
Wolfgang Dietzel, Michael Pfuff, Guido G. Juilfs
|
p11 |
A Model for Crack-Induced Nucleation of Dislocations, Complex Stacking Faults and Twins
Glenn E. Beltz, Margherita Chang, Anna Machová
|
p17 |
Ideal Strength of Nano-Components
Takayuki Kitamura, Yoshitaka Umeno, Akihiro Kushima
|
p25 |
Theoretical Strength of Metals and Intermetallics from First Principles
Mojmír Šob, Jaroslav Pokluda, Miroslav Černý, Pavel Šandera, V. Vitek
|
p33 |
Nanoscale Measurement of Stress and Strain by Quantitative High-Resolution Electron Microscopy
Martin J. Hÿtch, Jean-Luc Putaux, Jean-Michel Pénisson
|
p39 |
Atomic Force Microscopy Study of the Early Fatigue Damage
Jaroslav Polák, Jiří Man, Karel Obrtlík
|
p45 |
Mechanical Response of Semi-Brittle Nano Particles under an Imposed Cyclic Field
Y. Katz, W. Mook, R. Mukherjee, A. Gidwani, J. Deneen, William W. Gerberich
|
p51 |
Prediction and Control of Grain Boundary Fracture in Brittle Materials on the Basis of the Strongest-Link Theory
Tadao Watanabe, Sadahiro Tsurekawa
|
p55 |
Anisotropic Behaviour of Grain Boundaries
Václav Paidar, Pavel Lejček
|
p63 |