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Influence of Nanotubes and Other Nanofillers on the Properties of Thermoset:thermoplastic Blends for Composite Matrices

Published online by Cambridge University Press:  01 February 2011

Marianne Kilbride
Affiliation:
[email protected], University of Strathclyde, Pure and Applied Chemistry, Thomas Graham Building, 295 Cathedral Street, Glasgow, G1 1XL, United Kingdom
Richard Arthur Pethrick
Affiliation:
[email protected], University of Strathclyde, Pure and Applied Chemistry, Thomas Graham Building, 295 Cathedral Street, Glasgow, G1 1XL, United Kingdom
Steven Ward
Affiliation:
[email protected], Cytec Engineered Materials, Redcar, TS10 4RF, United Kingdom
Mark Harriman
Affiliation:
[email protected], Cytec Engineered Materials, Redcar, TS10 4RF, United Kingdom
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Abstract

Recently there has been an increase in the use of composite materials for aircraft construction. Composites have significant production and application advantages, but generally suffer from being electrically insulating, and hence are unable to handle a lightening strike in the traditional way that aluminium would. A potential solution to this problem is sought through the use of carbon nanotubes and carbon nanographite. Achieving the correct dispersion of the conducting filler is critical to achieving the desired enhancement in conductivity. Two different methods have been explored to achieve the dispersions; – direct blending and solution dispersion, with a range of concentrations of nanographite being incorporated. In addition, the effect of directly blending graphite nanoplatelets and carbon nanotubes in order to create a hybrid nanocomposite material was studied. The carbon nanotubes were incorporated into a blend with the graphite nanoplatelets with the intention of utilizing their tube structure in order to bridge the gaps between the platelet sheets of nanographite, creating more effective and abundant conductive pathways throughout the composite. In all cases the electrical conductivity was measured using a four point probe technique.

Type
Research Article
Copyright
Copyright © Materials Research Society 2008

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References

REFERENCES

1. Saunders, D.S., The Development of Fatigue Damage Around Fastner Holes in Thick Graphite/Epoxy Composite Laminates. Composites, 1993. 24(4): p. 309321.Google Scholar
2. Ezquerra, T.A., Kulescza, M. and Balta-Calleja, F.J., Electrical Transport in Polyethylene-Graphite Composite Materials. Syntheric Metals, 2003. 41(3): p. 915920.Google Scholar
3. Bennett, C.H., Serially Deposited Amorphous Aggregates of Hard Spheres. Journal of Applied Physics, 1972. 43(6): p. 27272734.Google Scholar
4. Song, L.N., Electrically Conductive Nanocomposites of Aromatic Polydisulfide/Expanded Graphite. Composites Science and Technology, 2006. 66: p. 2156.Google Scholar
5. Chen, G.H. et al. , Preparation of Polystyrene-Graphite Conducting Nanocomposites Via Intercalation Polymerisation. Polymer International, 2001. 50: p. 980985.Google Scholar
6. Pinnavaia, T.J. and Beall, G.W., Polymer-Clay Nanocomposites. 2000: p. 101.Google Scholar
7. Uhl, F.M. et al. , Expandable Graphite/Polyamide-6 Nanoomposites Polymer Degradation And Stability, 2005. 89: p. 70.Google Scholar
8. Kalaitzidou, K., Fukushima, H. and Drzal, L.T., A New Compounding Method for Exfoliated Graphite-Polypropylene Nanocomposites with Enhanced Flexural Propertiesand Lower Percolation Threshold. Composites Science and Technology, 2007. 67: p.20452051 Google Scholar