Abstract
Beginning with the introduction of boron fibre-reinforced aluminium, metal matrix composites have been used extensively, and research in the area has increased rapidly in recent years. Metal matrix composites exhibit high specific strength (strength-to-weight ratio) and high specific modulus, in addition to a service temperature capability much higher than that of polymer matrix composites. In addition, they are excellent thermal conductors. Potentially, the ductility and good environmental resistance of metallic matrices can result in superior composite material products.
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References
Adams DF (1970) Inelastic analysis of a unidirectional composite subject to transverse normal loading. J Comp Mater 4:310–328
Adams DF (1987) A micromechanics analysis of the influence of the interface on the performance of polymer-matrix composites. J Reinf Plast Comp 6:66–88
Adams DF, Crane DA (1984) Combined loading micromechanical analysis of a unidirectional composite. Composites 15 (3):181–191.
Adams DF, Doner DR (1967) Transverse normal loading of a unidirectional composite. J Comp Mater 1:152–164
Adams DF, Miller AK (1977) Hygrothermal microstresses in a unidirectional composite exhibiting inelastic material behavior. J Comp Mater 11:285–299
Argon AS, Im J, Safoglu R (1975) Cavity formation from inclusions in ductile fracture. Met Trans A 6:825–837
Bahei-EI-Din YA (1979) Plastic analysis of metal-matrix composite laminates. PhD dissertation, Duke University, South Carolina
Bahei-EI-Din Y A, Dvorak GJ (1979) Plastic yielding at a circular hole in a laminated FP-AI plate. In: Modern developments in composite materials and structures. American Society of Mechanical Engineers, New York, pp 123–147
Chen CC, Kobayashi S (1978) Rigid-plastic finite element analysis of ring compression. In: Application of numerical methods to forming processes, vol AMD-28, American Society of Mechanical Engineers, New York
Dvorak GJ, Bahei-EI-Din Y A (1979) Elastic-plastic behavior of fibrous composites. J Mech Phys Solids 27:51–72
Dvorak GJ, Rao MSM, Tarn JQ (1974) Generalized initial yield surfaces for unidirectional composites. Trans ASME: J Appl Mech 41:249–253
Erturk T, Kuhn HA (1979) Use of forming criteria in forging complex shapes from metal-matrix composites. Trans ASME: J Eng Mat Tech 101:3–11
Erturk T, Kuhn HA, Lawley A (1974) Forging of metal-matrix composites - forming criteria. Met Trans A 5:2295–2303
Getten JR, Ebert LJ (1969) The cold rolling characteristics of aluminum-boron fiber composites. Trans ASM 62:869–878
Hill R (1950) Mathematical theory of plasticity. Oxford University Press, London
Hung C (1990) Process design of three-dimensional open-die forging and the deformation analysis of metal matrix composites. PhD dissertation, University of California, Berkeley
Hwang SM, Kobayashi S (1984) Preform design in plane strain rolling by the finite-element method. Int J Mach Tool Des Res 24 (4):253–266
Hwang SM, Kobayashi S (1986) Preform design in disk forging. Int J Mach Tool Des Res 26 (3):231–243
Im KH (1990) Forming criteria for metal matrix composites. PhD dissertation, University of California, Berkeley
Im KH, Dharan CKH (1990) Forming criteria based on fiber-matrix interfacial strength for metal matrix composites. Submitted for publication
Kim NS (1989) Computer-aided preform design in metal forming by the finite element method. PhD dissertation, University of California, Berkeley
Lee CH, Kobayashi S (1973) New solutions to rigid-plastiC deformation problems using a matrix method. Trans ASME: J Eng Ind 95 (3):865–873
Mori K, Osakada K (1984) Simulation of three-dimensional deformation in rolling by the finiteelement method. Int J Mech Sci 26 (9/10):515–525
Oh SI (1982) Finite element analysis of a metal forming process with arbitrary shaped dies. Int J Mech Sci 24 (8):479–493
Park JJ, Kobayashi S (1984) Three-dimensional finite-element analysis of block compression. Int J Mech Sci 26 (3):165–176
Park JJ, Rebelo N, Kobayashi S (1983) A new approach to preform design in metal forming with the finite element method. Int J Mach Tool Des Res 23 (1):71–79
Salkind M, George F, Tice W (1969) Some effects of cold rolling on the microstructure and properties of AI3Ni whisker reinforced aluminum. Trans Met Soc AIME 245:2339–2345
Shah SN, Kobayashi S (1974) Rigid-plastic analysis of cold heading by the matrix method. In: Tobias SA, Koenigsberger K (eds) Proceedings 15th International Machine Tool Design Research Conference pp. 561–569
Shiau YC (1987) Three-dimensional finite element analyses of open-die forging and plate rolling. PhD Dissertation, University of California, Berkeley
Taylor RL (1989) FEAP - finite element analysis program manual. University of California, Berkeley
Yamada Y, Yoshimura N, Sakurai T (1968) Plastic stress-strain matrix and its application for the solution of elastic-plastic problems by finite-element method. Int J Mech Sci 10:343–354
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© 1992 Springer-Verlag London Limited Printed in Germany
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Dharan, C.K.H., Kobayashi, S. (1992). Forming of Metal Matrix Composites. In: Hartley, P., Pillinger, I., Sturgess, C. (eds) Numerical Modelling of Material Deformation Processes. Springer, London. https://doi.org/10.1007/978-1-4471-1745-2_14
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DOI: https://doi.org/10.1007/978-1-4471-1745-2_14
Publisher Name: Springer, London
Print ISBN: 978-1-4471-1747-6
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