Abstract
This paper presents a technique to study dynamic compression fatigue of hard ceramics. In this technique, a split-Hopkinson-compression-bar apparatus is modified to allow recovery tests on hard ceramic samples. The exact number of fatigue cycles along with the stress level and strain rate can be controlled, and strain rates as high as 400s−1 at a peak stress of 3.2 GPa were obtained for each fatigue cycle. Two types of hotpressed silicon-nitrides, one having crystalline-grain-boundary phase, and the other having amorphous-grain-boundary phase, were repeatedly tested on this apparatus. Fatigue lives of both materials were found to be very sensitive to sample-surface roughness, and for equivalent sample-surface condition, the dynamic fatigue life of amorphous-grain-boundary phase silicon-nitride was observed to be higher than that of crystalline-grain-boundary phase silicon-nitride.
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References
Kawakubo, T. andKomeya, K., “Static and Cyclic Fatigue Behavior of a Sintered Silicon Nitride at Room Temperature,”J. Amer. Cer. Soc.,70 (6),400–405 (1987).
Chang, J., Khandelwal, P. andHeitman, P.W., “Dynamic and Static Fatigue Behavior of Sintered Silicon Nitrides,”Cer. Eng. Sci. Proc.,8, (7–8),766–777 (1987).
Nikkila, A.P. andMantyla, T.A., “Cyclic Fatigue of Silicon Nitrides,”Cer. Eng. Sci. Proc.,10 (7–8),646–656 (1989).
Okazaki, M., McEvily, A.J. andTanaka, T., “On the Mechanism of Fatigue Crack Growth in Silicon Nitride,”Met. Trans.,22A (6),1425–1434 (June 1991).
Horibe, S., “Fatigue of Silicon Nitride Ceramics under Cyclic Loading,”J. European Cer. Soc.,6 (2),89–95 (1990).
Kossowsky, R., “Cyclic Fatigue of Hot Pressed Silicon Nitride,”J. Amer. Cer. Soc.,56 (10),531–535 (1973).
Masuda, M., Yamada, N., Soma, T., Matsui, M. andOda, I., “Fatigue of Ceramics (Part 2)—Cyclic Fatigue Properties of Sintered Silicon Nitride at Room Temperature,”J. Cer. Soc. of Japan, Int. Ed.,97,509–514 (May 1989).
Ko, H.N., “Fatigue Strength of Sintered Silicon Nitride Under Rotary Bending,”J. Mat. Sci. letters,6,175–177 (1987).
Masuda, M., Soma, T. andMatsui, M., “Cyclic Fatigue Behavior of Silicon Nitride Ceramics,”J. European Cer. Soc.,6,253–258 (1990).
Ewart, L. andSuresh, S., “Crack Propagation in Ceramics Under Cyclic Loads,”J. Mat. Sci.,22,1173–1192 (1987).
Tanaka, T., Okabe, N. andIshimaru, Y., J. Japan Soc. Mat. Sci.,37,137–143 (1988).
Reece, M.J., Guitu, F. andSammur, M.F.R., “Cyclic Fatigue Crack Propagation in Alumina Under Direct Tension-Compression Loading,”J. Amer. Cer. Soc.,72 (2),348–352 (1989).
Rothman, E.P., “Advanced Structural Ceramics: Technical/Economic Process Modeling of Production and a Demand Analysis for Cutting Tools and Turbochargers,” Materials Systems Lab., MIT (Aug. 1985).
Baldoni, J.G. and Buljan, S.T., SME Paper MR86-912 (March 1986).
North, B., SME Paper MR86-451 (March 1986).
Charles River Associates, “Technological and Economic Assessment of Advanced Ceramic Materials, Vol. 6: A Case Study of Ceramic Cutting Tools,” NBS-GCR 84-470-6 (Aug. 1984).
Baumgartner, H.R., “Evaluation of Roller Bearings Containing Hot-Pressed Silicon Nitride Rolling Elements,” Ceramics for High Performance Applications, ed. J.J. Burke, A. E. Gorum and R.N. Katz, Brook Hill Publishing, Chestnut Hill, MA, 713–728 (1974).
Baumgartner, H.R., “Ceramic Bearings for Turbine Applications,” Ceramics for High Performance Applications-II, ed. J.J. Burke, E.N. Lenoe and R.N. Katz, Brook Hill Publishing, Chestnut Hill, MA, 423–444 (1978).
Taguchi, M., Advanced Ceramic Materials,2,754 (1987).
Japanese Industrial Newspaper (Oct. 17, 1986).
Nakatani, S., Yoshizu, K., Mitsunaga, T. and Isohita, A., SAE Paper 861406 (1986).
Tsukawaki, Y., Shimano, K., Shigetsu, M., Takatoo, M., Ogawa, Y. and Ogasawara, T., SAE Paper 861408 (1986).
Ogawa, Y., Machida, M., Miyamura, N., Tashiro, K. and Sugano, M., “Ceramic Rocker Arm Insert for Internal Combustion Engines”, presented at the 1986 SAE Annual Conf. (1986).
Larsen, R.P. and Johnson, L.R., “Ceramic Turbochargers: A Case Study of Near-Term Application of High-Strength Ceramics,” ANL/CNSV-47 (1984).
Metcalfe, A.G. and Napier, J.C., “Ceramics for Small Radial Inflow Power Generators,” Ceramics for High Performance Applications-III, Reliability ed. E.M. Lenoe, R.N. Katz and J.J. Burke, Plenum Press, New York, 173–186 (1983).
Richerson, D.W. and Johansen, K.M., “Ceramic Gas Turbine Engine Demonstration Program,” Final Rep. Contract N00024-76-C-5352 (May, 1982).
McLean, A.F., “Overview of ARPA/ERDA/FORD Ceramic Turbine Program,” Ceramics for high Performance Applications-II, ed. J.J. Burke, E.N. Lenoe and R.N. Katz, Brook Hill Publishing, Chestnut Hill, MA, 1–34 (1974).
Horii, H. andNemat-Nasser, S., “Compression-Induced Microcrack Growth in Brittle Solids: Axial Splitting and Shear Failure,”J. Geophys. Res.,90 (B4),3105–3125 (1985).
Ashby, M.F. andHallam, S.D., “The Failure of Brittle Solids Containing Small Cracks Under Compressive Stress States,”Acta Met.,34 (3),497–510 (1986).
Nemat-Nasser, S. andHorii, H., “Compression-Induced Nonplanar Crack Extension With Application to Splitting, Exfoliation, and Rockburst,”J. Geophys. Res.,87 (B8),6805–6821 (1982).
Evans, A.G., “Fatigue in Ceramics,”Int. J. Fract. Mech.,16 (6),485–498 (1980).
Follansbee, P.S., “The Hopkinson Bar,”Metals Handbook, 9th Ed., ASM, Metals Park, OH,8,198–203 (1985).
Lindholm, U.S., “Some Experiments with the Split Hopkinson Pressure Bar,”J. Mech. Phys. Solids,12,317–335 (1964).
Nemat-Nasser, S., Isaacs, J.B. andStarrett, J.E., “Hopkinson Techniques for Dynamic Experiments,”Proc. Roy. Soc. Lond. A,435,371–391 (1991).
Follansbee, P.S. andFrantz, C., “Wave Propagation in the Split Hopkinson Pressure Bar,”J. Eng. Mat. Tech,105,61–66 (1983).
Guiu, F., Reece, M.J. andVaughan, D.A.J., “Cyclic Fatigue of Ceramics,”J. Mat. Sci.,26,3275–3286 (1991).
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Sharma, V., Nemat-Nasser, S. & Vecchio, K.S. Dynamic-compression fatigue of hot-pressed silicon-nitride. Experimental Mechanics 34, 315–323 (1994). https://doi.org/10.1007/BF02325146
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DOI: https://doi.org/10.1007/BF02325146