A review on the matrix toughness of thermoplastic materials

Enes Akca, Ali Gursel


Composite material has attracted increasingly remarked interest over the last few decades and set it apart in its own class due to its distinct properties. This paper is a review on the matrix toughness of thermoplastic polymer composites. Toughness of thermoplastics has been actively studied since the 1980s.the main advantage in using thermoplastics to toughen resins is that their incorporation need not result in important decreases in desirable properties such as modules and yield strengths. However, the predominant criteria for achieving optimum toughness enhancement in the thermoplastic toughening of epoxy resins are still not all that clear from the literature. Epoxy and polyester resins are commonly modified by introducing carboxyl-terminated butadiene-acrylonitrile copolymers (ctbn). A tough elastomeric phase, for example, a silicone rubber with good thermal resistance in a polyimide resin, produced a tough matrix material. It summarizes what the authors believe are the important requirements for good thermoplastic toughening.

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Sinha R. Outlines of polymer technology. New Delhi: Prentice-Hall by India Private Limited; 2002.

Mortensen A. Concise encyclopedia of composite materials. Second Edition. Amsterdam: Elsevier; 2007.

Cherrington R, Goodship V, Meredith J, Wood BM, Coles S, Vuillaume A, Feito-Boirac A, Spee F, Kirwan K. Producer responsibility: defining the incentive for recycling composite wind turbine blades in Europe. Energy Policy 2012; 47:13-21.

Yang Y. Recycling of composite materials. Chemical Engineering and Processing: Process Intensification 2012; 51:53-68.

Kaw K. Mechanics of composite materials. Second Edition. USA: CRC Press; 2006.

Waddon AJ, Hill MJ, Keller A, Blundell DJ. On the crytal texture of linear polyaryls (PEEK, PEK and PPS). Journal of Materials Science 1987; 22:1773-84.

Krishan KC. Composite materials; science and engineering. New York: Springer; 2013.

Ting RY. The role of polymeric matrix in the processing and structural properties of composite materials. Seferis JC, Nicolais L, editors. Rubber Modified Matrices, New York: Springer; 1983, p 171-188.

Sultan JN, McGarry FJ. Effect of rubber particle size on deformation mechanisms in glassy epoxy. Polymer Engneering & Science 1973; 13:29-34.

Riew CK, Rowe EH, Siehert AR. Toughness and brittleness of plastics Rudolph DD, Aldo MC, editors. Rubber toughened Thermosets. American Chemical Society, Advances in Chemistry; 1976, p 326-343.

Bascom WD, Cottington RL. Effect of temperature on the adhesive fracture behavior of an elastomer-epoxy resin. Journal of Adhesion 1976; 7:333-346.

St. Clair AK, St. Clair TL. International Journal of Adhesion and Adhesives 1981; 1:249-255.

Scott JM, Phillips DC. Carbon fibre composites with rubber toughened matrices. Journal of Materials Science 1975; 10:551-562.

Blundell DJ, Chalmers JM, Mackenzie MW, Gaskin WF. Crystalline morphology of the matrix of PEEK-Carbon fibre aromatic polymer composites, Part 1: Assessment of crystallinity. Sampe Quarterly 1985; 16:22-30.

Cogswell FN. Microstructure and properties of thermoplastic aromatic polymer composites. 28th National Sampe Symposium 1983; 14:157-165.

Hartness JT. Polyether-etherketone matrix composites. 14th National Sampe Technical Conference 1982; 14:26-43.

O’Connor JE, Beever WR, Geibel JF. Proc Sampe Materials Symp 1986; 31:1313.

DOI: http://dx.doi.org/10.21533/pen.v3i2.52


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ISSN: 2303-4521

Digital Object Identifier DOI: 10.21533/pen

Creative Commons License
This work is licensed under a Creative Commons Attribution 4.0 International License