Frequency analysis of stress waves in testing 3-D angle-interlock woven composite at high strain rates

Journal of Composite Materials

Volumn 41, Issue 24, 2007, Pages 2915-2938

  Sun, Baozhong ^a   Gu, Bohong ^a,b  

^a DONGHUA UNIVERSITY   (China)

^b ZHONGYUAN UNIVERSITY OF TECHNOLOGY   (China)

Author keywords

3 D angle interlock woven composite; Fourier transform; Frequency domain; Split Hopkinson pressure bar (SHPB); Strain rate; Time frequency analysis; Wavelet transform

Indexed keywords

COMPRESSIVE STRESS; FOURIER TRANSFORMS; FREQUENCY DOMAIN ANALYSIS; STRAIN RATE; STRESS-STRAIN CURVES; WAVELET ANALYSIS;

3-D ANGLE-INTERLOCK WOVEN COMPOSITE; IMPACT ENERGY; SPLIT HOPKINSON PRESSURE BAR (SHPB); TIME-FREQUENCY ANALYSIS;

ACOUSTIC WAVES;

EID: 35548964776     PISSN: 00219983     EISSN: 1530793X     Source Type: Journal    
DOI: 10.1177/0021998307082181     Document Type: Article

References (36)

1. Mouritz, A.P., Bannister, M.K., Falzon, P.J. and Leong, K.H. (1999). Review of Applications for Advanced Three-Dimensional Fibre Textile Composites, Composites: Part A, 30: 1445 - 1461.
2. Chen, X., Spola, M., Paya, J.G. et al. (1999). Experimental Studies on the Structure and Mechanical Properties of Multi-layer and Angle-interlock Woven Structures, Journal of the Textile Institute, 90 (1). 91 - 99, Part 1.
3. Chen, X. and Potiyaraj, P. (1999). CAD/CAM of Orthogonal and Angle-interlock Woven Structures for Industrial Applications, Textile Research Journal, 69 (9). 648 - 655.
4. Byun, J.H. and Chou, T.W. (1989). Modelling and Characterization of Textile Structural Composite: A Review, Journal of Strain Analysis for Engineering Design, 24 (4). 253 - 262.
5. Whitney, T.J. and Chou, T.W. (1989). Modeling of 3-D Angle-interlock Textile Structural Composites, Journal of Composite Materials, 23 (9). 890 - 911.
6. Byun, J.H. and Chou, T.W. (1990). Elastic Properties of 3-Dimensional Angle-interlock Fabric Preforms, Journal of the Textile Institute, 81 (4). 538 - 548.
7. Byun, J.H. and Chou, T.W. (1991). Three-dimensional Textile Composites: A Review, American Society of Mechanical Engineers, Applied Mechanics Division, AMD, 129: 47 - 55.
8. Cox, B.N., Dadkhah, M.S., Inman, R.V. et al. (1992). Mechanisms of Compressive Failure in 3D-Composites, Acta Metallurgica et Materialia, 40 (12). 3285 - 3298.
9. Naik, R.A., Jarmon, D.C. and Logan, C.P. (1998). Characterization and Modeling of the Stiffness and Strength of Angle Interlock Woven Composites. Collection of Technical Papers- AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, 2: 962 - 971.
10. Tan, P., Tong, L.Y. and Steven, G.P. (1999). Micromechanics Models for Mechanical and Thermomechanical Properties of 3D Through-the-thickness Angle Interlock Woven Composites, Composites Part A, 30 (5). 637 - 648.
11. Naik, N.K., Azad, S.N.M. and Prasad, P.D. (2002). Stress and Failure Analysis of 3D Angle Interlock Woven Composites, Journal of Composite Materials, 36 (1). 93 - 123.
12. Huang, G. and Zhong, Z.L. (2002). Tensile Behavior of 3D Woven Composites by Using Different Fabric Structures, Materials and Design, 23 (7). 671 - 674.
13. Sheng, S.Z. and Hoa, S.V. (2003). Modeling of 3D Angle Interlock Woven Fabric Composites, Journal of Thermoplastic Composite Materials, 16 (1). 45 - 58.
14. Tsai, K.H., Chiu, C.H. and Wu, T.H. (2000). Fatigue Behavior of 3D Multi-layer Angle Interlock Woven Composite Plates, Composites Science and Technology, 60 (2). 241 - 248.
15. Gowayed, Y. and Fan, H. (2001). Fatigue Behavior of Textile Composite Materials Subjected to Tension-Tension Loads, Polymer Composites, 22 (6). 762 - 769.
16. Chiu, C.H., Lai, M.H. and Wu, C.M. (2004). Compression Failure Mechanisms of 3-D Angle Interlock Woven Composites Subjected to Low-energy Impact, Polymers and Polymer Composites, 12 (4). 309 - 320.
17. Sun, B.Z., Gu, B.H. and Ding, X. (2005). Compressive Behavior of 3-D Angle-interlock Woven Fabric Composites at Various Strain Rates, Polymer Testing, 24 (4). 447 - 454.
18. Lifshitz, J.M. and Leber, H. (1994). Data Processing in the Split Hopkinson Pressure Bar Tests, International Journal of Impact Engineering, 5 (6). 723 - 733.
19. Dioh, N.N., Ivankovic, A., Leevers, P.S., et al. (1936 / 1995). Stress Wave-Propagation Effects in Split Hopkinson Pressure Bar Tests, Proceedings of the Royal Society of London Series A - Mathematical and Physical Sciences, 449: 187-204.
20. Zhao, H. and Gary, G. (1996). On the Use of SHPB Techniques to Determine the Dynamic Behavior of Materials in the Range of Small Strains, International Journal of Solids and Structures, 33 (23). 3363 - 3375.
21. Zhao, H. and Gary, G. (1997). A New Method for the Separation of Waves - Application to the SHPB Technique for an Unlimited Duration of Measurement, Journal of the Mechanics and Physics of Solids, 45 (7). 1185 - 1202.
22. Zhao, H. and Gary, G. (1998). Crushing Behaviour of Aluminium Honeycombs Under Impact Loading, International Journal of Impact Engineering, 21 (10). 827 - 836.
23. Bussac, M.N., Collet, P., Gary, G. and Othman, R. (2002). An Optimisation Method for Separating and Rebuilding One-dimensional Dispersive Waves from Multi-point Measurements - Application to Elastic or Viscoelastic Bars, Journal of the Mechanics and Physics of Solids, 50 (2). 321 - 349.
24. Li, Z.H. and Lambros, J. (1999). Determination of the Dynamic Response of Brittle Composites by the Use of the Split Hopkinson Pressure Bar, Composites Science and Technology, 59 (7). 1097 - 1107.
25. Zhao, H. (2003). Material Behaviour Characterization Using SHPB Technique, Tests and Simulations, Computers and Structures, 81: 1301 - 1310.
26. Ramirez, H. and Rubio-Gonzalez, C. (2006). Finite-element Simulation of Wave Propagation and Dispersion in Hopkinson Bar Test, Materials and Design, 27 (1). 36 - 44.
27. Sung, D.U., Kim, C.G. and Hong, C.S. (2002). Monitoring of Impact Damages in Composite Laminates Using Wavelet Transform, Composites Part B, 33: 35 - 43.
28. Hopkinson, B. (1914). A Method of Measuring the Pressure Produced in the Detonation of High Explosives or by the Impact of Bullets, Philos. Trans. R. Soc. London, Ser. A, 213A: 437 - 456.
29. Kolsky, H. (1949). An Investigation of the Mechanical Properties of Materials at Very High Rates of Loading, Proc. Phys. Soc. London, Sect. B, 62 (11). 676 - 700.
30. Nicholas, T. (1981). Tensile Testing of Materials at High Rates of Strain, Experimental Mechanics, 21 (5). 177 - 185.
31. Harding, J. and Welsh, L.H. (1982). Impact Testing of Fiber Reinforced Composite Materials, In: Hayashi, T., Kawata, K. and Umekawa, S. (eds.), Proceedings of Fourth International Conference on Composite Materials (ICCM-4), Tokyo, pp. 845-852.
32. Meyers, M.A. (1994). Dynamic Behavior of Materials [Chapter 12: Experimental Techniques: Methods to Produce Dynamic Formation]. John Wiley & Sons, Inc., New York, pp. 296 - 322.
33. Saint-Venant, B.De. (1867). Memoire sur le choc longitudinal de deux barres elastiques (Memo on the impact of two elastic longitudinal bars). Journal de Mathematique (Pures et Appliquees), 2: ser XII, pp. 237 - 376.
34. Goswami, J.C. and Chan, A.K. (1999). Fundamentals of Wavelets: Theory, Algorithms and Applications [Chapter 4: Time-frequency Analysis, pp. 57 - 88; Chapter 6: Construction of Wavelets pp. 108 - 140 ], John Wiley & Sons, New York.
35. Mallat, S. (1998). A Wavelet Tour of Signal Processing [Chapter VIII: Wavelet Packet and Local Cosine Bases], Academic Press, San Diego, CA, pp. 318 - 372.
36. Chui, C.K. (1992). Wavelets - A Tutorial in Theory and Applications [Part III: Applications to Numerical Analysis and Signal Processing]. Academic Press, San Diego, CA, pp. 541 - 713.