Size effects of nanoindentation creep

By Han Li, Alfonso H. W. Ngan. 2004

240 citations recorded by the source corpus.

Subfields: Aerospace Engineering, Mechanical Engineering, Mechanics of Materials

View Paper: https://www.semanticscholar.org/paper/1f169982fdcdcd3cc876308ef468663e96f37fcc

How researchers see this paper

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

In Aerospace Engineering

1. M. Kawasaki
2. Terence G. Langdon
3. Zhaoping Lu
4. Junyang He
5. U. Ramamurty
6. G. Pharr
7. Easo P. George
8. Oleg N. Senkov

In Mechanical Engineering

1. M. Kawasaki
2. Zhaoping Lu
3. Junyang He
4. Terence G. Langdon
5. U. Ramamurty
6. G. Pharr
7. Z. Horita
8. R. Valiev

In Mechanics of Materials

1. E. Herbert
2. M. Kawasaki
3. G. Pharr
4. Terence G. Langdon
5. J. Jang
6. Junyang He
7. W. Oliver
8. U. Ramamurty

Citations in the corpus

• Measurement of power-law creep parameters by instrumented indentation methods (2013, background): “displacement, and time data recorded during an indentation experiment is not well understood because of the complex nature of stress and strain rate history during indentation contact (Asif and Pethica, 1997; Bucaille et al., 2002; Chu and Li, 1977; Grau et al., 1998; Li and Ngan, 2004; Lucas and Ol”
• Spherical nanoindentation creep behavior of nanocrystalline and coarse-grained CoCrFeMnNi high-entropy alloys (2016, methodology): “For sharp indentation, _ εi is given as (dh/dt)h 1 in which the displacement rate (dh/dt) is typically calculated by fitting the hcreep-thold curve according to an empirical fitting equation [44,78]:”