Multi-axial composite tube test method

ASTM Special Technical Publication

Volumn , Issue 1416, 2002, Pages 17-29

  Cohen, David ^a  

^a Toray Composite Materials America Inc   (United States)

Author keywords

Carbon fiber; Composite; Epoxy resin; Failure criteria; Filament wound; Helical; Multi axial; Pressure; Tension compression; Test; Torsion; Tube

Indexed keywords

CARBON FIBERS; COMPRESSION TESTING; EPOXY RESINS; FAILURE (MECHANICAL); LOADS (FORCES); PRESSURE EFFECTS; TORSIONAL STRESS; TUBES (COMPONENTS);

FAILURE CRITERIA; FILAMENT WOUND; MULTI-AXIAL; TORSION LOADS;

COMPOSITE MATERIALS;

EID: 8844269506     PISSN: 00660558     EISSN: None     Source Type: Conference Proceeding    
DOI: 10.1520/stp10629s     Document Type: Conference Paper

References (26)

1. Swanson, S.R., Christoforou, A. P. and Colvin, G. E., "Biaxial Testing of Fiber Composites Using Tubular Specimens," Experimental Mechanics, 1988: pp. 238-243.
2. Toombes, G.R., Swanson, S. R., and Cairns, D. S., "Biaxial Testing of Composite Tubes," Experimental Mechanics, Vol. 25, No. 2, 1985, pp. 186-192.
3. Swanson, S.R.a. and A.P. Chhristoforou, "Response of Quasi-Isotropic Carbon/Epoxy Laminate to Biaxial Stress," J. of Composite Materials, Vol. 20, 1988, pp. 457-471.
4. Swanson, S.R.a. and B.C. Trask, "Strength of Quasi-Isotropic Laminate under Off-Axis Loading," Composites Science and Technology, Vol. 34, 1989, pp. 19-34.
5. Christensen, R.M. and S.R. Swanson, "Evaluation of a New Failure Criterion for Fibrous Composite Materials," UCRL-98725, 1988, Lawrence Livermore National Laboratory.
6. Feng, W.W. and S.E. Groves, "On the Finite Strain Invariant Failure Criterion for Composites," Journal of Composite Materials, Vol. 25, No. 1, 1991, pp. 88-100.
7. Hashin, Z., "Failure Criteria for Unidirectional Fiber Composites," J. Applied Mechanics, Vol. 47, 1980, pp. 329-334.
8. Hoffman, O., "The Strength of Orthotropic Materials," J. of Composite Materials, Vol. 1, 1967, pp. 200-206.
9. Ikegami, K., Nose, Y., Yasunaga, T. and Shiratori, E., "Failure Criterion of Angle Ply Laminate of Fiber Reinforced Plastic and Applications to Optimize the Strength," Fiber Science & Technology, Vol. 16, 1982, pp. 175-190.
10. Kawata, K., "On the Criterion of Yield and Fracture of Angle-Ply Laminates Wound with Filament in Their Biaxial Tension," J. Society of Materials Sciences, Japan, Vol. 20, No. 214, 1971, pp. 879-885.
11. Kroll, L. and W. Hufenbach, "Physically Based Failure Criterion for Dimensioning of Thick-Walled Laminates," Applied Composite Materials, Vol. 4, 1997, pp. 321-332.
12. M. J. Hinton, P. D. Soden, and a.A.S. Kaddour, "Special Issue: Failure Criteria in Fiber-Reinforced-Polymer Composites," Composites Science and Technology, Vol. 58, July 1998 (entire issue).
13. Puck, A. and W. Schneider, "On Failure Mechanisms and Failure Criteria of Filament-Wound Glass Fiber/Resin Composites," Plastics & Polymers, Vol. 37, 1969, pp. 33-44.
14. Tsai, S.W., "A Survey of Macroscopic Failure Criteria for Composite Materials," J. of Reinforced Plastic and Composites, Vol. 3, 1984, p. 40.
15. Swanson, S.R., and Qian, Y., "Multiaxial Characterization of T800/3900-2 Carbon/Epoxy Composites," Composites Science and Technology, Vol. 43, 1992, pp. 197-203.
16. Guess, T.R., "Biaxial Testing of Composite Cylinders: Experimental-Theoretical Comparison," Composites, Vol. 11, No. 3, 1980, pp. 139-148.
17. Whitney, J.M., Grimes, G. C. and Francis, P. H., "Effect of End Attachment on the Strength of Fiber-Reinforced Composite Cylinders," Experimental Mechanics, Vol. 13, No. 5, 1973, pp. 185-192.
18. Duggen, M.F.a.B., J. A. "A New Test Specimen Geometry for Achieving Uniform Biaxial Stress Distribution in Laminated Composite Cylinders, in International Conference on Composite Materials, 1980, Paris, France.
19. Groves, S.E., Sanchez, R. J., and Feng, W. W., "Multiaxial failure characterization of composites," UCRL-JC 105244 Rev. 1, 1991, Lawrence Livermore National Laboratory.
20. Lee, C.S., Hwang, W., Park, H. C., and Han, K. S., "Failure of Carob/Epoxy Composite Tubes Under Combined Axial and Torsional Loading, 1. Experimental Results and Prediction of Biaxial Strength by the use of Neural Networks," Composites Science and Technology, Vol. 59, 1999, pp. 1779-1788.
21. s Tubes: Their Static Axial and Shear Properties and Their Fatigue Behavior Under Completely Reversed Load Control Loading," J. Composite Materials, Vol. 16, May 1982, pp. 172-187.
22. Cohen, D., Toombes, Y. T., Johnson, A. K., and Hansen, M. F., "Pressurized Ring Test for Composite Pressure Vessel Hoop Strength and Stiffness Evaluation," J. of Composites Technology & Research, Vol. 17, No. 4, 1995, pp. 331-340.
23. Cohen, D.a.K.A.L., "The Influence of Epoxy Matrix Properties on Delivered Fiber Strength in Filament Wound Composite Pressure Vessels," J. of Reinforced Plastic and Composites, Vol. 10, March 1991, pp. 112-131.
24. Cohen, D., "Influence of Filament Winding Parameters on Composite Vessel Quality and Strength," Composites Part A-Applied Science and Manufacturing, Vol. 28A, 1997, pp. 1035-1047.
25. Cohen, D., "Application of Reliability and Fiber Probabilistic Strength Distribution Concepts to Composite Vessel Burst Strength Design," J. of Composite Materials, Vol. 26, No. 13, 1992, pp. 1984-2014.
26. Cohen, D., "Application of Material Nolinearity to a Composite Pressure Vessel Design," J. of Spacecraft and Rockets, Vol. 28, No. 3, 1991, pp. 339-346.