Crossref Citations
This article has been cited by the following publications. This list is generated based on data provided by
Crossref.
Malzbender, Jürgen
2005.
Comment on the determination of mechanical properties from the energy dissipated during indentation.
Journal of Materials Research,
Vol. 20,
Issue. 5,
p.
1090.
Ma, Dejun
Ong, Chung Wo
Wong, Sing Fai
and
He, Jiawen
2005.
New Method for Determining Young’s Modulus by Non-ideally Sharp Indentation.
Journal of Materials Research,
Vol. 20,
Issue. 6,
p.
1498.
Wang, Lugen
Ganor, M.
and
Rokhlin, S.I.
2005.
Inverse scaling functions in nanoindentation with sharp indenters: Determination of material properties.
Journal of Materials Research,
Vol. 20,
Issue. 4,
p.
987.
Ma, Dejun
Zhang, Taihua
and
Ong, Chung Wo
2006.
Evaluation of the effectiveness of representative methods for determining Young's modulus and hardness from instrumented indentation data.
Journal of Materials Research,
Vol. 21,
Issue. 1,
p.
225.
Ma, Dejun
Zhang, Taihua
and
Ong, Chung Wo
2006.
Revelation of a functional dependence of the sum of two uniaxial strengths/hardness on elastic work/total work of indentation.
Journal of Materials Research,
Vol. 21,
Issue. 4,
p.
895.
Cao, Yan Ping
Qian, Xiu Qing
and
Lu, Jian
2006.
On the determination of reduced Young's modulus and hardness of elastoplastic materials using a single sharp indenter.
Journal of Materials Research,
Vol. 21,
Issue. 1,
p.
215.
Kushch, V. I.
Dub, S. N.
and
Litvin, P. M.
2007.
Determination of the young modulus from elastic section of the Berkovich indenter loading curve.
Journal of Superhard Materials,
Vol. 29,
Issue. 4,
p.
228.
Ma, Dejun
Ong, Chung Wo
and
Zhang, Taihua
2008.
An improved energy method for determining Young’s modulus by instrumented indentation using a Berkovich tip.
Journal of Materials Research,
Vol. 23,
Issue. 8,
p.
2106.
Aida Rodríguez Pulecio, Sara
Cristina Moré Farias, María
and
Souza, Roberto Martins
2009.
Analysis of the tip roundness effects on the micro- and macroindentation response of elastic–plastic materials.
Journal of Materials Research,
Vol. 24,
Issue. 3,
p.
1037.
Kushch, V. I.
and
Dub, S. N.
2012.
The assessment of elasto-plastic properties of materials from nanoindentation and computer modeling. 1. State-of-the-art of the problem (Review of the literature).
Journal of Superhard Materials,
Vol. 34,
Issue. 3,
p.
149.
Charleux, L.
Keryvin, V.
Nivard, M.
Guin, J.-P.
Sanglebœuf, J.-C.
and
Yokoyama, Y.
2014.
A method for measuring the contact area in instrumented indentation testing by tip scanning probe microscopy imaging.
Acta Materialia,
Vol. 70,
Issue. ,
p.
249.
Giro-Paloma, Jessica
Al-Shannaq, Refat
Fernández, Ana
and
Farid, Mohammed
2015.
Preparation and Characterization of Microencapsulated Phase Change Materials for Use in Building Applications.
Materials,
Vol. 9,
Issue. 1,
p.
11.
Shirazi, Reyhaneh Neghabat
Rochev, Yury
and
McHugh, Peter
2016.
Nanoindentation of solvent-cast and compression-moulded poly(lactic-co-glycolic acid) to determine elastic modulus and hardness.
Polymer Testing,
Vol. 50,
Issue. ,
p.
111.
Jung, Anne
Chen, Zhaoyu
and
Diebels, Stefan
2017.
Applied Nanoindentation in Advanced Materials.
p.
223.
Perzynski, Konrad
Cios, Grzegorz
Szwachta, Grzegorz
Zych, Dawid
Setty, Mohan
Bala, Piotr
and
Madej, Lukasz
2019.
Numerical modelling of a compression test based on the 3D digital material representation of pulsed laser deposited TiN thin films.
Thin Solid Films,
Vol. 673,
Issue. ,
p.
34.
Liu, Ming
Cong, Zhibo
Fu, Haiying
and
Li, Pengyuan
2022.
Relationships in instrumented indentation by Berkovich indenter.
Journal of Materials Research,
Vol. 37,
Issue. 23,
p.
4084.