Measurement of fracture strength of diamond film using AE and corrosion potential fluctuation during indentation test

Nihon Kikai Gakkai Ronbunshu, A Hen/Transactions of the Japan Society of Mechanical Engineers, Part A

Volumn 73, Issue 1, 2007, Pages 57-65

  Ikeda, Ryuji ^a   Hayashi, Masahito ^b   Yonezu, Akio ^b   Cho, Hideo ^b   Ogawa, Takeshi ^b   Takemoto, Mikio ^b  

^a Asahi Diamond Industrial Co Ltd   (Japan)

^b NONE

Author keywords

Acoustic emission; Brittle fracture; Corrosion potential fluctuation; Diamond coating material; Finite element method; Fracture strength; Indentation

Indexed keywords

ACOUSTIC EMISSIONS; BRITTLE FRACTURE; CHEMICAL VAPOR DEPOSITION; FINITE ELEMENT METHOD; FRACTURE TOUGHNESS; INDENTATION; MEASUREMENT THEORY;

CORROSION POTENTIAL FLUCTUATION; DIAMOND COATING MATERIAL;

DIAMOND FILMS;

EID: 34248547643     PISSN: 03875008     EISSN: None     Source Type: Journal    
DOI: 10.1299/kikaia.73.57     Document Type: Article

References (18)

1. Johnanson, S. et al., Fracture Testing of Silicon Microelements in situ in a Scanning Electron Microscope, Journal of Applied Physics, Vol. 63 (1988), pp. 4799-4803.
2. Beams, J.W., (Neugebauer, C.A. et al. eds.), The Structure and Properties of Thin Films (1959), p. 183, Wiley, New York.
3. Kagawa, H. et al., Evaluation of Fracture Strength of Thin Films by Indentation with a Small Spherical Indenter, Transaction of the Japan Society of Mechanical Engineers, Series A, Vol. 60, No. 570 (1994), pp. 396-401.
4. Huber, M.T., Zur Theorie der Beruhrung fester Elasitisher Korper, Annalen Der Phyik, Vol. 14 (1904), pp. 153-163.
5. Ikawa, N. and Shimada, S., Microstrength Measurement of Brittle Materials Utilizing Acoustic Emission Technique, Seimitsukikai (in Japanese), Vol. 48, No. 2 (1982), pp. 177-183.
6. Kagawa, H. et al., Approximate Expression for Stress Distribution in Film Subjected to Indentation by Spherical Indenter (the Case of a Very Thin Film), Transaction of the Japan Society of Mechanical Engineers, Series A, Vol. 60, No. 570 (1994), pp. 416-420.
7. Hayashi, K. and Yuan, F., The Initiation of Ring Cracking in Ceramic Coating Indented by an Elastic Sphere, Transaction of the Japan Society of Mechanical Engieers, Series A. Vol. 64, No. 617 (1995), pp. 30-35.
8. Ikeda, R. et al., An Advanced Method for measuring the residual stress of deposited film utilizing laser spallation technique, Journal of Science and Technology of Advanced Material, Vol. 7, No. 1 (2006), pp. 90-96.
9. Sato, T. et al., Effect of Fracture Dynamics in Thin Plate on the Waveform and Radiation Pattern of the Lamb waves, Japanese Journal of Applied Physics, Vol. 38 (1999), pp.3139-3200.
10. Inoue, H., A Grounding in Electrochemical Noise Measurement, Journal of Japanese Scociety of Corrosion Engineering, Vol. 52 (2003), pp. 444-451.
11. Fukai, T., Study on Erosion-Corrosion Prevention of Process Plant Control Valve by Ceramic Coating, Doctral Thesis submitted to Osaka University, (1995).
12. McSkimin, H. J. and Bond, W. L., Elastic moduli of diamond, Physical Review, Vol. 105 (1956), pp. 116-121.
13. Anderson, O. L. (Mason, W. P. ed.), in Physical Acoustics, Vol. IIIB, (1965), p. 43, Academic Press, New York.
14. Ogi, H. et al., Complete mode identification for resonance ultrasound spectroscopy, The Journal of the Acoustical Society of America, Vol. 112 (2002), pp. 2553-2557.
15. Pickrell, D. J. et al., Thermal Expansion of Polycrystalline Diamond Produced by Chemical Vapor Deposition, Applied Physics Letters, Vol. 64 (1994), pp. 2353-2355.
16. Gray, K. J. and Windischmann, H., Free-standing CVD Diamond Wafers for Thermal Management by D. C. Arc jet Technology, Diamond and Related Materials, Vol. 8 (1999), pp. 903-908.
17. Coe, S. E. and Sussmann, R. S., Optical, Thermal and Mechanical Properties of CVD diamond, Diamond and Related Materials, Vol. 9 (2000), pp. 1726-1729.
18. Gruen, D. M., Nanocrystalline Diamond Films, Annual Review of Material Science, Vol. 29 (1999), p. 211.