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HomeKey Engineering MaterialsKey Engineering Materials Vols. 251-252Effectiveness of Two-Dimensional Versatile Program...

Effectiveness of Two-Dimensional Versatile Program Based on Body Force Method and its Application to Crack Problems

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Advances in Fracture and Damage Mechanics III

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Periodical:

Key Engineering Materials (Volumes 251-252)

Pages:

97-102

DOI:

https://doi.org/10.4028/www.scientific.net/KEM.251-252.97

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Online since:

October 2003

Authors:

Hironobu Nisitani, Akihide Saimoto

Keywords:

Body Force Method, Boundary Integral Equations, Crack Problems, Principle of Superposition, Stress Analysis

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© 2003 Trans Tech Publications Ltd. All Rights Reserved

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[1] Nisitani, H., Journal of JSME, Vol. 70, No. 580, p.627, 1967. (in Japanese).

[2] Nisitani, H., Bulletin of JSME, Vol. 11, No. 43, p.14, (1968).

[3] Murakami, Y. et. als., Stress Intensity Factors Handbook, Vol. 1, Pergamon Press, (1987).

[4] Nisitani, H., Saimoto, A and Noguchi, H., Proc. of 1st Conference on Computer Aided Assessment and Control of Localized Damage, Vol. 3, p.33, (1990).

[5] Chen, D-H. and Nisitani, H., Trans. of JSME Ser. A, Vol. 51, No. 462, p.571, 1985 (in Japanese).

[6] Chen, D-H., Nisitani, H. and Noguchi, H., JSME International Journal, Vol. 33, p.193, (1990).

[7] Nisitani, H. et. als., Proc. of Joint ASME/JSME Conference on Electronic Packaging, Vol. 1, p.437, (1992).

[8] Nisitani, H., Mechanics of Fracture, 5 (ed. Sih, G.C. ), Sijthoff & Noordhoff, Chapter 1, (1978).

[9] Nisitani, H., Bulletin of JSME, Vol. 6, No. 24, p.635, (1963).

[10] Abe H., Hayashi K. and Yamamoto T., Trans. of JSME, Vol. 51-465, p.1359, 1985. (in Japanese).

[11] Kitagawa H. and Yuuki R., Trans. of JSME, Vol. 41-346, p.1641, 1975. (in Japanese).

[12] Isida M., Trans. of JSME , Vol. 44-380. p.1122, 1978. (in Japanese).

[13] Gross, D. and Srawley, J. E., NASA, Technical Note, TM-80174, (1976).

[14] Srawley, J. E., Int. J. of Frac., Vol. 12, p.475, (1976).

[15] Saimoto, A. and Nisitani. H., Proc. of Damage and Fracture Mechanics , CMP, p.3 , (1998).

[16] Saimoto, A. and Nisitani, H., Proc. of 6th ICB/MF&F, Lisbon, Vol. 2, p.999, (2001).