Physics and phenomenology of strain hardening: the FCC case

By U. F. Kocks, H. Mecking. 2003

2,881 citations recorded by the source corpus.

Subfields: Materials Chemistry, Mechanical Engineering

View Paper: https://www.semanticscholar.org/paper/1eb344ea3cb5f7bb6acd8113b7e5d025f89e43fa

How researchers see this paper

The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.

In Materials Chemistry

1. Yuntian Zhu
2. Dierk Raabe
3. O. A. Zambrano
4. I. Ovid’ko
5. R. Valiev
6. Michael D. Sangid
7. Jian Lu
8. D. Ponge

In Mechanical Engineering

1. Dierk Raabe
2. O. A. Zambrano
3. Yuntian Zhu
4. R. Valiev
5. I. Ovid’ko
6. D. Ponge
7. Hyoung-Seop Kim
8. Yonghao Zhao

Citations in the corpus

• Strengthening and strain hardening mechanisms in a precipitation-hardened high-Mn lightweight steel (2017, background): “These are the Peierls-Nabarro lattice friction stress, solid solution strengthening, grain boundary strengthening, strengthening due to short-range order and precipitation hardening [78,79].”
• Multiscale modeling of the plasticity in an aluminum single crystal (2009, methodology): “The multiscale analysis presented in this work used as a basis the dislocation-based hardening model of Kocks and Mecking (2003), a model derived from the storage-recovery framework developed in scalar form by Kocks and Mecking (1979, 2003) and by Mecking and Estrin (1987).”
• Overview of aluminum alloy mechanical properties during and after fires (2015, methodology): “As discussed previously, aluminum alloy strain hardening is commonly modeled using the Kocks-MeckingEstrin (KME) model (Mecking and Kocks 1981; Estrin and Mecking 1984; Hancock 1976; Kocks and Mecking 2003).”