Skip to content
Licensed Unlicensed Requires Authentication Published by De Gruyter May 26, 2013

Detection of Defects in Natural Composite Materials Using Thermal Imaging Technique

Fehlererkennung in natürlichen Kompositmaterialien mittels Thermografie
  • M. J. Suriani , Aidy Ali , A. Khalina , S. M. Sapuan , S. Abdullah and Haftirman
From the journal Materials Testing

Abstract

Nowadays, non-destructive testing (NDT) is frequently replacing destructive techniques in determining the properties of materials. In this study, defects in Kenaf/epoxy composite materials were detected using an inyyfrared (IR) thermal imaging technique, which is one of the most practical non-destructive techniques currently applied. Kenaf bast fibres were used to fabricate composite materials with epoxy resin as a binding material. The composites were manufactured using a manual lay-up process. The thermography analysis of the IR camera were verified by optical microscope and scanning electron microscope (SEM) investigations. The defect detection accuracy of this technology is 95%.

Kurzfassung

Heute ersetzen zerstörungsfreie Prüfverfahren vielfach zerstörende Technologien, um die Eigenschaften von Materialien zu bestimmen. In der diesem Beitrag zugrunde liegenden Studie wurden Fehler in Kenaf-Epoxid-Kompositmaterialien mittels Thermografie bestimmt, die eine der am häufigsten in der Praxis angewendeten Verfahren darstellt. Um die Kompositmaterialien herzustellen, wurden Kenaf-Bastfasern mit Epoxidharz als Bindungsmaterial verwendet. Die Komposite wurden in einem manuellen Laminierverfahren gefertigt. Die thermografischen Analysen der IR-Kamera wurden mittels Lichtmikroskopie und Rasterelektronenmikroskopie (REM) verifiziert. Die Fehlererkennungsgenauigkeit dieser Technologie liegt bei 95%.


M. J. Suriani is lecturer at Institute of Teacher Education, Malaysia. She received her first degree in Food and Process Engineering in 2001 and master degree in Industrial and Systems Engineering in 2007 from Universiti Putra Malaysia (UPM). She is currently pursuing her PhD in Materials Engineering at UPM.

Aidy Ali is Professor of Mechanical Engineering at National Defense University of Malaysia (UPNM). He received his first degree in Mechanical Engineering from UPM in 1999. Then he pursued his PhD degree in 2003 researching Improving Fatigue Life of Aircraft Components by Using Surface Engineering at Sheffield University, United Kingdom (UK). He was awarded PhD degree in December 2005.

Abdan Khalina is associate professor at UPM. She completed her first degree in Agricultural Engineering 1996, then she was awarded PhD in Biocomposites Technology on her research entitle Injection Moulded Properties and Rheological Behaviours of Oil Palm Fibre Reinforced Polypropylene Composites at UPM in 2005.

S. M. Sapuan is professor of Mechanical Engineering at Universiti Putra Malaysia since 2007. He received his first degree in Mechanical Engineering at University of Newcastle, Australia and master degree at Loughborough University, Leicestershire, UK. He was awarded his PhD at Leicester University, UK.

S. Abdullah is professor of Mechanical Engineering at Universiti Kebangsaan Malaysia (UKM). He received his first degree in Mechanical Engineering from UKM, and his master degree from Loughborough University, UK. He was awarded a Ph.D degree from Sheffield University, UK.

Haftirman is lecturer at Universiti Malaysia Perlis (UniMAP). He received his first degree in Mechanical Engineering from Universiti Sumatera Utara (USU), Indonesia. He was awarded Master of Science (Industry Engineering) and PhD degree in Materials Engineering from Fukui University, Japan.


References

1. X.Maldague: Applications of infrared thermography in non-destructive evaluation, P.K.Rastogi, D.Inaudi: (Eds.): Trends in Optical Non-Destructive Testing, Elsevier Science, Amsterdam (2000), pp. 28128510.1016/B978-008043020-1/50040-5Search in Google Scholar

2. M.Choi, K.Kang, J.Park, K.Kim: NDT & E International41 (2008), pp. 19124Search in Google Scholar

3. D.Wu, G.Busse, G.Rev: Gen Therm37 (1998), pp. 693703Search in Google Scholar

4. M. J.Suriani, AidyAl, A.Khalina, S. M.Sapuan: Key Engineering Materials462–463 (2011), pp. 918924Search in Google Scholar

5. A. A.Badghaish, D. C.Fleming: Journal of Composite Materials42 (2008), No. 13, pp. 13361357Search in Google Scholar

6. F.Amon, A.Hamins, N.Bryner, J.Rowe: Fire Safety Journal43 (2008), pp. 541550Search in Google Scholar

7. S. D.Clark, R. A.Shenoi, H. G.Allen: Composites Science Technology59 (1999), pp. 471486Search in Google Scholar

8. E.Ng: International Journal of Thermal Sciences48 (2008), pp. 84985910.1016/j.ijthermalsci.2008.06.015Search in Google Scholar

9. W.Ruddock: http://www.infraredthermography.com (accessed on 05. 01.10)Search in Google Scholar

10. E. F. J.Ring: Imaging Science Journal48 (2000), pp. 18Search in Google Scholar

11. C. S.Woo, W. D.Kim, J. D.Kwon: Materials Science and Engineering A (2008), pp. 376381Search in Google Scholar

12. A.Helmy, M.Holdmann, M.Rizkalla: IEEE Transactions on Biomedical Engineering55 (2008), pp. 11681175Search in Google Scholar

13. J. H.Tan, E. Y. K.Ng, U.Rajendra Archarya, C.Chee: Infrared Physics & Technology52 (2009), No. 4, pp. 97108Search in Google Scholar

14. P.B.Stefanic: http://www.escrs.org/eurotimes/March2003/thermo.asp (accessed on 15.12.09)Search in Google Scholar

15. J.Deans, J.Gerhard, L. J.Carter: Infrared Physics & Technology48 (2006), pp. 202216Search in Google Scholar

16. I.Katra, D. G.Blumberg, H.Lavee, P.Sarah: Journal of Hydrology334 (2007), pp. 359367Search in Google Scholar

17. W.Swiderrski, D.Szabra: Possibility of defects detection in multi-layered composite materials used for military applications by IR thermography, Proc. of the 5th International Workshop on Advances in Signal Processing for Non-Destructive Evaluation of Materials, Quebec City, Canada (2005), pp. 101105Search in Google Scholar

18. M.Venkatraman, M.Menaka, M.Vasudevan, B.Raj: Thermography for online detection of incomplete penetration and penetration depth estimation, Proc. of the 12th A-PCNDT 2006, Asia Pacific Conference on NDT, Auckland, New Zealand (2006), pp. 236240Search in Google Scholar

19. M.Omar, K.Hassana, K.Donohueb, K.Saito, R.Allooc: NDT E Int39 (2006), No. 1, pp. 112131Search in Google Scholar

20. G.Shen, T.Li: http://www.ndt.net/search/docs.php3?id=4553 (accessed on 30. 06. 11)Search in Google Scholar

21. A. A.Gowen, K. K.Tiwari, P. J.Cullen, K.Mc Donnell, C. P.Donell: Trends in Food Science & Technology21 (2010), pp. 190200Search in Google Scholar

22. R.Kafieh; T.Lotfi, RassoulAmirfattahi. Automatic detection of defects on polyethylene pipe welding using thermal infrared imaging. Infrared Physics & Technology (2011) Volume 54, Issue 4. pp 31732510.1016/j.infrared.2010.12.010Search in Google Scholar

23. P.K.Kumar, N.V.Raghavendra, B.K.Sridhara: Materials and Design32 (2011), pp. 11291137Search in Google Scholar

24. M.Bernard, A.Khalina, R.Janius, M.Faizal, K. S.Kamarudin: Effect of processing parameters on mechanical properties of Kenaf fiber plastic composite, paper presented at the meeting of the International Advanced Technology Congress (ATCi), Malaysia (2009)Search in Google Scholar

25. ASTM D-3039American Society of Testing Materials. 1999.Search in Google Scholar

26. M.Zampoli, F.Pourboghrat, S. A.Yankovich, B. N.Rodgers, J.Moore, L. T.Drzal, A. K.Mohanty, M.Misra: Composites Part A (2007), No. 38, pp. 15691580Search in Google Scholar

27. K.Joseph, S.Thomas, C.Pavithran: Polymer37 (1996), pp. 5139514910.1007/698_2009_21Search in Google Scholar

28. X. P.Maldague: Theory and Practice of Infrared Technology for Non-destructive Testing, John Wiley & Sons, New York (2001)Search in Google Scholar

29. D. G.Aggelis, E. Z.Kordatos, M.Strantza, D. V.Soulioti, T. E.Matikas: Construction and Building Materials25 (2011), pp. 30893097Search in Google Scholar

30. J.Scheirs: Compositional and Failure Analysis, A Practical Approach, John Wiley, Chichester, USA (2000).Search in Google Scholar

31. S.Roychowdhury, J. W.Gillespie, S. G.Advani: Void formation and growth in thermoplastic processing, Proc. of the 3rd Conference on Computer Aided Design in Composite Material Technology CADCOMP, Computational Mechanics Publisher, Southampton, UK (1992), pp. 9510110.1007/978-94-011-2874-2_7Search in Google Scholar

32. W. D.Bascom, J. L.Bitner, R. J.Moulton, A. R.Siebert: Composites (1980), pp. 91810.1021/i360027a003Search in Google Scholar

33. B.Dewimille, A. R.Bunsell: Composites14 (1983), No. 1, pp. 3540Search in Google Scholar

34. F.Lapique, K.Redford: International of Adhesion and Adhesives22 (2002), No. 4, pp. 337346Search in Google Scholar

35. A.Khalina, H.Jalaludin, M. P.Ansell, M. D.Khairul Zaman, R.Janius, I.Nor Azowa: S. M.Sapuan (Ed.): Research on Natural Fibre Reinforced Polymer Composites, Universiti Putra Malaysia Press, Serdang (2009), pp. 109125Search in Google Scholar

36. A. R.Sanadi, D. F.Caufield, G.Kovacsvolgyi, B.Destree: High fiber low matrix composites: Kenaf fibre/polypropylene, Proc. of the 6th International Conference on Woodfibre-Plastic Composites, Madison (2001), pp. 180185Search in Google Scholar

37. A. K.Mohanty, M. A.Khan, G.Hinrichsen: Composites Part A31 (2000), pp. 143150Search in Google Scholar

38. Z.Leman: Mechanical Properties of Sugar Palm Fibre-Reinforced Epoxy Composites, PhD Thesis, Universiti Putra Malaysia (2011)Search in Google Scholar

Published Online: 2013-05-26
Published in Print: 2012-05-01

© 2012, Carl Hanser Verlag, München

Downloaded on 5.12.2023 from https://www.degruyter.com/document/doi/10.3139/120.110333/html
Scroll to top button