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Mechanics of Metal Matrix Laminates

Published online by Cambridge University Press:  10 February 2011

J. L. Teply
J. L. Teply*
Affiliation:
Alcoa Technical Center, 100 Technical Drive, Alcoa Center, PA 15068, teply_jl@atc.alcoa.com
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Abstract

The mechanics of fracture and fatigue crack propagation of ARALL Laminates and Discontinuously Reinforced SiC Aluminum (DRA) laminates is studied. In these two, supposedly different, material systems the fracture and fatigue performance is closely related to their capability to delaminate. The delamination shape, length, rate of growth, effect on fatigue and fracture toughness are analyzed in the both lamination systems. The similarities between these two lamination systems fatigue and fracture failure modes are determined and summarized. Design for compression is also mantioned.

Type
Research Article
Information
MRS Online Proceedings Library (OPL) , Volume 434: Symposium U – Layered Materials for Structural Applications , 1996 , 15
Copyright
Copyright © Materials Research Society 1996

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References

1. Hierarchical Structures in Biology as a Guide for New Material Technology, NMAB - 464, (National Academy Press, Washington, D. C. 1994).Google Scholar
2. Bucci, R. J., et al., in ARALL Laminates Mechanical Behavior, (Proceeding of ASM Material Week 1986, Orlando, Florida, 1986).Google Scholar
3. Bucci, R. J., et al., in ARALL Laminates Results from a Cooperative Test Program, (Proceedings of Advanced Material Technology 1987), (32nd International SAMPE Symposium and Exhibition, Anaheim, California, April 1987).Google Scholar
4. Laseur, D.R. and Syn, C. K., in Metallic Laminates for Engineering Applications, (Proceedings of the 8th CIMTEC-World Ceramic Congress and Forum on New Material, 1994), Article SVL08.Google Scholar
5. Syn, C. K., Laseur, D. R., and Sherby, O. D., in Processing and Mechanical Properties of Laminated Metal Composites of Al/Al-25 vol% SiC and Ultrahigh Carbon_Steel/Brass, (Int'l Conf. Advanced Synthesis of Engineered Structural Materials, San Francisco, 31 August - 2 September 1992).Google Scholar
6. Marissen, R., Fatigue Crack Growth in ARALL A Hybrid Aluminum-Aramid Composite Material - Crack Growth Mechanisms and Quantitative Prediction of Crack Growth Rates, Ph.D. Dissertation, TU Delft 1988.Google Scholar
7. Marissen, R., Vogelsang, L. B., in Development of a New Hybrid Material: ARALL, (Intercontinental SAMPE Meeting, Cannes, France, January 1981).Google Scholar
8. Roebroecks, R. H. J. J., Constant Amplitude Fatigue of ARALL-2 Laminates, Ph.D. Dissertation, TU Delft, October 1987.Google Scholar
9. Teply, J. L., DiPaolo, B. A. and Bucci, R. J., in Residual Strength of ARALL Laminate Panels, (19th International Sampe Technical Conference, Crystal City, VA, 13 -15 October, 1987).Google Scholar
10. Macheret, Y., Teply, J. L. and Winter, E. F. M., in Delamination Shape Effects in Aramid- Epoxy-Aluminum (ARALL) Laminates with Fatigue Cracks, (Composites '88 International Conference, Boucherville, Quebec, 8 - 9 November, 1988).Google Scholar
11. Westergard, H. M., Am. Soc. Mechanical Engineers, Journal of Applied Mechanics, Series a, Vol.66, pp. 49 (1939).Google Scholar
12. Awerbuch, J., Experimental Investigation of Delamination in ARALL Laminate, Final Report, (Department of Mechanical Engineering, Drexel University, Philadelphia, PA 19101, May 1987).Google Scholar
13. Long, R. S., Analytical Investigation of Delamination Progression in ARALL Laminates, Product Design and Mechanics Division, Alcoa Technical Center, PA 15069, Report No. 57-88-24, August 1988 (unpublished).Google Scholar
14. Reddy, J. N., Barbero, E. J. and Teply, J. L., Plate Bending Element Based on a Generalized Laminate Plate Theory, International Journal for Numerical Methods in Engineering, Vol.28, (October 1989).Google Scholar
15. Barbero, E. J., Reddy, J. N. and Teply, J. L., Accurate Determination of Stresses in ARALL Laminates Using a Generalized Laminate Plate Theory, American Society of Mechanical Engineers, Applied Mechanics Division, Vol.100, (1989).Google Scholar
16. Teply, J. L., Barbero, E. J. and Reddy, J. N., Bending, Vibration and Stability of ARALL Laminates Using a Generalized Laminate Plate Theory, International Journal of Solids and Structures, Vol.27, No.5, (1990), pp. 585–599.Google Scholar
17. Yeh, J. R. and Teply, J. L., Compressive Response of Kevlar/Epoxy Composites, Journal of Composite Materials, Vol.22, (March 1988).Google Scholar
18. Syn, C. K., Laseur, D. R., Cadwell, K. L., Sherby, O. D., and Brown, K. R. in Laminated Metal Composites of Ultrahigh Carbon Steel/Brass and AlI/Al-SiC: Processing and Properties, Developments in Ceramic and Metal -Matrix Composites, Ed. Upadhya, K., (The Mineral, Metals & Material Society, 1991).Google Scholar
19. Bush, R. W., Extrinsic Toughening of Discontinuously Reinforced Aluminum: An Experimental Study of DRA Laminates, Engineering Design Center, Alcoa Technical Center, PA 15069, Report No. 57-95-08, August 1995 (unpublished).Google Scholar