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Residual Stress Analysis of Silicon Nitride to Carbon Steel Joint

Published online by Cambridge University Press:  06 March 2019

Masanori Kurita ,
Takashi Kano  and
Takashi Sato
Masanori Kurita
Affiliation:
Nagaoka University of Technology Nagaoka, 940-21 Japan
Takashi Kano
Affiliation:
Nagaoka University of Technology Nagaoka, 940-21 Japan
Takashi Sato
Affiliation:
Nagaoka University of Technology Nagaoka, 940-21 Japan
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Abstract

The residual stress distribution of a ceramic-metal joint specimen was determined by both two- and three-dimensional thermoelastoplastic stress analyses using the finite element method (FEM). The residual stress on the surface of the specimen was also measured by x-ray diffraction. A specimen was prepared by brazing a silicon nitride plate to a carbon steel plate. The highest tensile stress σx perpendicular to the interface appeared at the corners of the silicon nitride adjacent to the interface. The maximum compressive stress σy parallel to the interface occurred at the center of the interface of the silicon nitride. The residual stresses in the silicon nitride and the steel plates distribute antisymmetrically with respect to the center of the specimen. Around the interface, the high stress concentration occurs and the residual stress distributes three-dimensionally, giving a wrong result by the two-dimensional FEM. The residual stress distribution measured by x-rays was similar to that calculated from the three-dimensional FEM.

Type
XII. Analysis of Stress and Fracture by Diffraction Methods
Information
Advances in X-Ray Analysis , Volume 34: Thirty-Ninth Annual Conference on Applications of X-ray Analysis, July 30 - August 3, 1990 , 1990 , pp. 661 - 668
Copyright
Copyright © International Centre for Diffraction Data 1990

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References

1. Morozumi, S., Endo, M. and Kikuchi, M., Journal of Materials Science, 20 (1985), pp.3976–3982.Google Scholar
2. Klomp, J. T., “Fundamentals of Diffusion Bonding, ed. Y. Ishida”, Elsevier (1987), pp.3–24.Google Scholar
3. Nicholas, M. G., “Fundamentals of Diffusion Bonding, ed. Y. Ishida”, Elsevier (1987), pp.25–41.Google Scholar
4. Kurita, M., Sato, M. and Ihara, I., Advances in X-Ray Analysis, Vol.33 (1990), pp.353–362.Google Scholar
5. Kurita, M. et al., Transactions of Japan Society of Mechanical Engineers (A), Vol.54, No.500 (1988), pp.854–860 (in Japanese).Google Scholar
6. Kurita, M., Journal of Testing and Evaluation, Vol.9, No.5 (1981), pp. 285–291.Google Scholar
7. Kurita, M., Ihara, I. and Ono, H., Advances in X-Ray Analysis, Vol.32 (1989), pp.459–469.Google Scholar
8. Kurita, M., Advances in X-Ray Analysis, Vol.32 (1989), pp.377–388.Google Scholar
9. Stoop, B. T. J. and den Ouen, G., “Joining Ceramics, Glass and Metal, ed. W. Kraft”, Informationsgesellshaft-Verlag (1989), pp.235–242.Google Scholar
10. Ferenc, K. J. ahd Tomaszewski, K., “Joining Ceramics, Glass and Metal, ed. W. Kraft”, Informationsgesellshaft-Verlag (1989), pp.317–324.Google Scholar
11. Suganuma, K., Okamoto, T. and Kamachi, K., Journal of Materials Science, Vol.22 (1987), pp.2702–2706.Google Scholar