Published June 5, 2015
| Version 10001566
Journal article
Open
Theoretical and Experimental Bending Properties of Composite Pipes
Authors/Creators
Description
Aim of this work is to determine the theoretical and
experimental properties of filament wound glass fiber/epoxy resin
composite pipes with different winding design subjected under
bending. For determination of bending strength of composite samples
three point bending tests were conducted. Good correlation between
theoretical and experimental results has been obtained, where sample
No4 has shown the highest value of bending strength. All samples
have demonstrated matrix cracking and fiber failure followed by
layers delamination during testing. Also, it was found that smaller
winding angles lead to an increase in bending stress. From presented
results good merger between glass fibers and epoxy resin was
confirmed by SEM analysis.
Files
10001566.pdf
Additional details
References
- M. Roux, "Reinforced nanocomposites for electrical applications", Master thesis, European School of Material Sciences and Engineering, France, 2010.
- ASTM D790–03 Standard, Annual book of ASTM standard vol. 36, 1981.
- ASTM D6272–02 Standard, Annual book of ASTM standard vol. 36, 1981.
- http://www.composite-oracle.com/main.asp?q=4
- S. Putic, M. Stamenovic, M. Zrlic, B. Bajaceta, "Bending properties of glass – polyester composite pipes", 3th International Conference on Deformation Processing and Structure of Materials, 2007, Belgrade.
- M. Krivokuća, S. Putić, P. Uskoković, R. Aleksić, Uticaj strukture na savojna svojstva laminarnog kompozitnog materijala, III Jugoslovenska Konferencija o Novim Materijalima YUCOMAT 99, Herceg-Novi, Zbornik izvoda, 1999, pp. 228.
- A. A. Kaw, G. Willenbring, "A software tool for mechanics of composite materials", Int. J. Eng. Sci., vol. 13, No. 6, 1997, pp. 433-441.
- N. Akkus, M. Kawahara, "Bending behaviors of thin composite pipes with reinforcing nodes", Mater. Sci. Res. Inter., vol. 6, No. 2, 2000, pp. 131-135.
- A. A. Kaw, Mechanics of composite materials. CRC Inc., Boca Raton, FL 1997. [10] J. P. Fuchs, M. W. Hyer, J. H. Jr. Starnes, "Numerical and experimental investigation of the bending response of thin-walled composite cylinders", NASA-CR-195730, Blacksburg, Virginia, September 1993. [11] F. Shadmehri, "Buckling of laminated composite conical shells; Theory and experiment," PhD Thesis, Concordia University, Montreal, Quebec, Canada, September 2012. [12] M. I. El-Geuchy, "Bending behavior of thick-walled composite tubes", PhD Thesis, Concordia University, Montreal, Quebec, Canada, April 2013. [13] M. Krstić, D. Ilić, D. Bekrić, J. Petrović, I. Vujičić, S. Putić, "Mikromehanička analiza loma laminatnog staklo-epoksi kompozitnog materijala ispitavanog savijanjem", Inženjersko društvo za koroziju, Zaštita materijala 3, 2014. [14] B. Ingersoll, "Development of flexure testing fixtures and methods for thin-wall composite tubes", Master Thesis, The University of Utha, December 2010. [15] S. Risteska, B. Samakoski, Z. Sokoloski, M. Stefanovska, "Investigation of bending properties and damages of glass fiber/epoxy resin composite pipes", The 46-th International October Conference of Mining and Metallurgy, Bor, October 2014. [16] M. Stamenović, S. Putić, B. Bajćeta, D. Vitković,"Numerical method for the prediction of bending properties of glass/epoxy composites", Acta Periodica Technologica, 38th ed., 2007, pp. 85-95. [17] E. Sideridis, G. A. Papadopoulos., "Short-beam and three-point-bending tests for the study of shear and flexural properties in unidirectional-fiberreinforced epoxy composites", J. Appl. Polym. Sci., vol. 93, 2004, pp. 63-74.