Monitoring the effects of impact damages on modal parameters in carbon fiber entangled sandwich beams

Engineering Structures

Volumn 31, Issue 12, 2009, Pages 2833-2841

  Shahdin, Amir ^a   Mezeix, Laurent ^b   Bouvet, Christophe ^c   Morlier, Joseph ^a   Gourinat, Yves ^a  

^a UNIVERSITÉ DE TOULOUSE   (France)

^b UNIVERSITÉ DE TOULOUSE   (France)

^c UNIVERSITÉ PAUL SABATIER   (France)

Author keywords

Entangled sandwich materials; Impact testing; Modal parameters; Vibration testing

Indexed keywords

DAMAGE INDICATOR; DAMPING CAPABILITY; ENTANGLED SANDWICH MATERIALS; IMPACT DAMAGES; IMPACT TEST; IMPACT TOUGHNESS; MODAL PARAMETERS; SANDWICH BEAMS; SANDWICH MATERIALS; STIFFNESS VARIATIONS; VIBRATION TEST; VIBRATION TESTING;

CARBON FIBERS; COMPOSITE BEAMS AND GIRDERS; DAMPING; IMPACT TESTING; MODAL ANALYSIS; PNEUMATIC CONTROL EQUIPMENT; STRUCTURAL HEALTH MONITORING;

MATERIALS TESTING;

DAMAGE MECHANICS; DAMPING; IMPACT; MONITORING; STIFFNESS; STRUCTURAL ANALYSIS; STRUCTURAL COMPONENT; TESTING METHOD; VIBRATION;

EID: 70449520111     PISSN: 01410296     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.engstruct.2009.07.008     Document Type: Article

References (57)

1. Schubel P.M., Luo J.J., and Daniel I.M. Impact and post impact behavior of composite sandwich panels. Composites Part A 38 (2007) 1051-1057
2. Dear J.P., Lee H., and Brown S.A. Impact damage processes in composite sheet and sandwich honeycomb materials. Int J Impact Eng 32 (2005) 130-154
3. Petit S., Bouvet C., Bergerot A., and Barrau J.J. Impact and compression after impact experimental study of a composite laminate with a cork thermal shield. Compos Sci Technol 67 (2007) 3286-3299
4. Bull P.H., and Edgren F. Compressive strength after impact of CFRP-foam core sandwich panels in marine applications. Composites B 35 6-8 (2004) 535-541
5. Abrate S. Impact on composite structures (1988), Cambridge University Press
6. Gibson R.F. Modal vibration response measurements for characterization of composite materials and structures. Compos Sci Technol 60 (2000) 2769-2780
7. Ewins D.J. Modal testing theory and practice (1984), John Wiley & Sons Inc p. 269
8. Hwu C., Chang W.C., and Gai H.S. Vibration suppression of composite sandwich beams. J Sound Vib 272 (2004) 1-20
9. Hu J.S., and Hwu C. Free vibration of delaminated composite sandwich beams. Am Inst Aeronaut Astronaut J 33 9 (1995) 1-8
10. Nilsson E., and Nilsson A.C. Prediction and measurement of some dynamic properties of sandwich structures with honeycomb and foam cores. J Sound Vib 251 3 (2002) 409-430
11. Renji K. Experimental modal densities of honeycomb sandwich panels at high frequencies. J Sound Vib 237 1 (2000) 67-79
12. Renji K., and Narayan S. Loss factors of composite honeycomb sandwich panels. J Sound Vib 250 4 (2002) 745-761
13. Yan M.J., and Dowell E.H. Governing equations for vibrating constrained-layer damping sandwich plates and beams. J Appl Mech 39 (1972) 1041-1046
14. Mead D.J. A comparison of some equations for the flexural vibration of damped sandwich beams. J Sound Vib 83 3 (1982) 363-377
15. Della C.N., and Shu D. Vibration of delaminated composite laminates: A review. Appl Mech Rev 60 (2007) 1-20
16. Sanders D.R., Kim Y.I., and Stubbs N. Non-destructive evaluation of damage in composite structures using modal parameters. Exp Mech 32 (1992) 240-251
17. Shahdin A, Morlier J, Gourinat Y. Correlating low energy impact damage with changes in modal parameters: A preliminary study on composite beams. Struct Health Monit 2009;(15 January) [in press]
18. Kim H.Y., and Hwang W. Effect of debonding on natural frequencies and frequency response functions of honeycomb sandwich beams. Compos Struct 55 (2002) 51-62
19. Lestari W., and Qiao P. Damage detection of fiber-reinforced polymer honeycomb sandwich beams. Compos Struct 67 (2005) 365-373
20. Zou Y., Tong L., and Steven G.B. Vibration-based model-dependent damage (delamination) identification and health monitoring for composite structures. A review. J Sound Vib 230 (2000) 357-378
21. Yan Y.J., Cheng L., Wu Z.Y., and Yam L.H. Development in vibration-based structural damage detection technique. Mech Syst Signal Process 21 (2007) 2198-2211
22. Doebling S.W., Farrar C.R., and Prime M.B. A summary review of vibration-based damage identification methods. Shock Vib Digest 30 (1998) 91-105
23. Sohn H, Farrar CR, Hemez FM, Shunk D, Stinemates DW, Nadler BR. A review of structural health monitoring literature. Los Alamos National Laboratory Report LA-13976-MS; 1996-2001
24. Gadelrab R.M. The effect of delamination on the natural frequencies of a laminated composite beam. J Sound Vib 197 3 (1996) 283-292
25. Tracy J.J., and Pardoen G.C. Effect of delamination on the natural frequencies of composite laminates. J Compos Mater 23 12 (1989) 1200-1215
26. Salawu O.S. Detection of structural damage through changes in frequency: A review. Eng Struct 19 9 (1996) 718-723
27. Montalvao D., Ribeiro A.M., and Duarte-Silva J. A method for the localization of damage in a CFRP plate using damping. Mech Syst Signal Process (2008) 10.1016/j.ymssp.2008.08.011
28. Li Z., and Crocker M.J. Effect of thickness and delamination on the damping in honeycomb-foam sandwich beams. J Sound Vib 192 (2006) 977-993
29. Adams R.D. Damping in composites. Mater Sci Forum 119-121 (1993) 3-16
30. Saravanos D.A., and Hopkins D.A. Effects of delaminations on the damped dynamic characteristics of composites. J Sound Vib 192 (1995) 977-993
31. Wang B., and Yang M. Damping of Honeycomb Sandwich Beams. J Mater Process Technol 105 (2000) 67-72
32. Berthelot J.M., Assarar M., Sefrani Y., and El Mahi A. Damping analysis of composite materials and structures. Compos Struct 85 (2008) 189-204
33. Hao M., and Rao M.D. Vibration and damping analysis of a sandwich beam containing a viscoelastic constraining layer. J Compos Mater 39 (2005) 1621-1643
34. Rao M.D., and He S. Dynamic analysis and design of laminated composite beams with multiple damping layers. AIAA J 31 4 (1993) 736-745
35. Jung W.J., and Aref A.J. A combined honeycomb and solid viscoelastic material for structural damping application. Mech Mater 53 8 (2003) 831-844
36. Garai M., and Pompoli F. A Simple empirical model of polyester fiber materials for acoustic applications. Appl Acoust 66 (2005) 1383-1398
37. Golosnoy L.O., Cockburn A., and Clyne T.W. Optimisation of metallic fiber network materials for compact heat exchangers. Adv Eng Mater 10 3 (2008) 210-218
38. Zhang B.M., Zhao S.Y., and He X.D. Experimental and theoretical studies on high-temperature thermal properties of fibrous insulation. J Quant Spectrosc Radiat Transfer 109 (2008) 1309-1324
39. Markaki A.E., and Clyne T.W. Mechanics of thin ultra-light stainless steel sandwich sheet material, Part i. Stiffness. Acta Mater 51 (2003) 1341-1350
40. Dean J, Fallah AS, Brown PM, Louca LA, Clyne TW. Energy absorption during projectile perforation of lightweight panels with metallic fibre cores. In: 8th international conference on sandwich structures. 2008
41. Zhou D., and Stronge W.J. Mechanical properties of fibrous core sandwich panels. Int J Mech Sci 47 (2005) 775-798
42. Mezeix L, Bouvet C, Castanié B, Poquillon D. A new sandwich structured composite with entangled carbon fibers as core material. Processing and Mechanical Properties, In: 8th international conference on sandwich structures. 2008
43. Castéra P. Comportement physico-mecanique des matériaux fibreux cellulosiques considère comme des milieux aléatoires. In: Proceeding of Materiaux. 2002
44. Baudequin M. Identification des mécanismes physiques mis en jeu lors de la reprise d'épaisseur de la laine de verre. Ph.D. Thesis, Paris VI, France: Université Pierre et Marie Curie; 2002
45. Poquillon D., Viguier B., and Andrieu E. Experimental data about mechanical behavior during compression tests for various matted fibres. J Mater Sci 40 22 (2005) 5963-5970
46. Mezeix L., Bouvet C., and Poquillon D. Mechanical behavior of entangled fibers and entangled cross-linked fibers during compression. J Mater Sci 44 14 (2009) 3652-3661
47. Shahdin A, Mezeix L, Bouvet C, Morlier J, Gourinat Y. Fabrication and mechanical testing of a new sandwich structure with carbon fiber network core. J Sandwich Struct Mater 2009:(2nd April) [in press]
48. Shahdin A., Mezeix L., Bouvet C., Morlier J., and Gourinat Y. Fabrication and mechanical testing of glass fiber entangled sandwich beams: A comparison with honeycomb and foam sandwich beams. Compos Struct 90 (2009) 404-412
49. Hosur M.V., Abdullah M., and Jeelani S. Manufacturing and low-velocity impact characterization of foam filled 3-D integrated core sandwich composites with hybrid face sheets. Compos Struct 69 2 (2005) 167-181
50. Vaidya U.K., Hosur M.V., Earl D., and Jeelani S. Impact response of integrated hollow core sandwich composite panels. Composites A 31 8 (2000) 761-772
51. Sutherland L.S., and Guedes Soares C. Impact characterisation of low fiber-volume glass reinforced polyester circular laminated plates. Int J Impact Eng 31 1 (2005) 1-23
52. Sutherland L.S., and Guedes Soares C. Effect of laminate thickness and of matrix resin on the impact of low fiber-volume, woven roving E-glass composites. Compos Sci Technol 64 10-11 (2004) 1691-1700
53. Abdullah M.R., and Cantwell W.J. The impact resistance of polypropylene based fiber-metal laminates. Compos Sci Technol 66 11-12 (2006) 1682-1693
54. HexPly M21. Data Sheet, Hexcel Composites, F.R
55. Aminanda Y., Castanié B., Barrau J.J., and Thevenet P. Experimental analysis and modelling of the crushing of honeycomb cores. Appl Compos Mater 12 3 (2005) 213-227
56. Wojtowicki J.L., and Jaouen L. New approach for the measurements of damping properties of materials using Oberst beam. Rev Scient Instr 75 8 (2004) 2569-2574
57. Richardson MH, Mannan MA. Correlating minute structural faults with changes in modal parameters. In: Proceedings of SPIE 1993. International Society for Optical Engineering; 1923(2). p. 893-8