SMA hybrid composites for dynamic response abatement applications

Journal of Vibration and Acoustics

Volumn 127, Issue 3, 2005, Pages 273-279

  Turner, Travis L ^a  

^a NASA LANGLEY RESEARCH CENTER   (United States)

Author keywords

Adaptive stiffening; Constitutive modeling; Embedded actuators; Hybrid composites; Nitinol; Noise transmission; Random response; Shape memory alloys; Sonic fatigue; Thermal buckling; Thermal post buckling; Thermoelastic stability; Transmission loss

Indexed keywords

ACOUSTIC VARIABLES CONTROL; ACTUATORS; BUCKLING; COMPOSITE MATERIALS; DAMPING; FATIGUE OF MATERIALS; MATHEMATICAL MODELS; NUMERICAL METHODS; THERMAL LOAD; THERMOELASTICITY; VIBRATIONS (MECHANICAL);

ADAPTIVE STIFFENING; CONSTITUTIVE MODELING; EMBEDDED ACTUATORS; HYBRID COMPOSITES; NITINOL; RANDOM RESPONSE; SONIC FATIGUE; THERMAL BUCKLING; THERMOELASTIC STABILITY; TRANSMISSION LOSS;

SHAPE MEMORY EFFECT;

EID: 22944437401     PISSN: 10489002     EISSN: None     Source Type: Journal    
DOI: 10.1115/1.1888588     Document Type: Article

References (38)

1. Tanaka, K., and Nagaki, S., 1982, "A Thermomechanical Description of Materials with Internal Variables in the Process of Phase Transformation," Ing.-Arch., 51, pp. 287-299.
2. Liang, C., and Rogers, C. A., 1990, "One-Dimensional Thermomechanical Constitutive Relations for Shape Memory Materials," J. Intell. Mater. Syst. Struct., 1, pp. 207-235.
3. Brinson, L. C., 1993, "One Dimensional Constitutive Behavior of Shape Memory Alloys: Thermomechanical Derivation with Non-Constant Material Functions," J. Intell. Mater. Syst. Struct., 4(2), pp. 229-242.
4. Boyd, J. G., and Lagoudas, D. C., 1996, "A Thermodynamical Constitutive Model for Shape Memory Materials-Part I: The Monolithic Shape Memory Alloy," Int. J. Plast., 12, pp. 805-842.
5. Cross, W. B., Kariotis, A. H., and Stimler, F. J., 1969, "Nitinol Characterization Study," NASA CR-1433.
6. Jackson, C. M., Wagner, H. J., and Wasilewski, R. J., 1972, "55 - Nitinol The Alloy with a Memory: Its Physical Metallurgy, Properties, and Applications," NASA SP-5110.
7. Otsuka, K., and Wayman, C. M., 1998, Shape Memory Materials, Cambridge University Press, Cambridge, UK.
8. Birman, V., 1997, "Review of Mechanics of Shape Memory Alloy Structures," Appl. Mech. Rev., 50(11), pp. 629-645.
9. Buehler, W. J., and Wang, F. E., 1968, "A Summary of Recent Research on the Nitinol Alloys and Their Potential Application in Ocean Engineering," Ocean Eng., 1, pp. 105-120.
10. Wayman, C. M., and Shimizu, K., 1972, "The Shape Memory (Marmem) Effect in Alloys," Met. Sci. J., 6, pp. 175-183.
11. Wayman, C. M., 1980, "Some Applications of Shape-Memory Alloys," J. Met., June, pp. 129-137.
12. Otsuka, K., and Shimizu, K., 1986, "Pseudoelasticity and Shape Memory Effects in Alloys," Int. Met. Rev., 31(3), pp. 93-114.
13. Rogers, C. A., and Robertshaw, H. H., 1988, "Shape Memory Alloy Reinforced Composites," Engineering Science Preprints 25, Society of Engineering Science, Inc., ESP25.8027.
14. Rogers, C. A., 1990, "Active Vibration and Structural Acoustic Control of Shape Memory Alloy Hybrid Composites: Experimental Results," J. Acoust. Soc. Am., 88(6), pp. 2803-2811.
15. Baz, A., Imam, K., and McCoy, J., 1990, "Active Vibration Control of Flexible Beams Using Shape Memory Actuators," J. Sound Vib., 140 (3). pp. 437-456.
16. Srinivasan, A. V., Cutts, D. G., and Schetky, L. M., 1991, "Thermal and Mechanical Considerations in Using Shape Memory Alloys to Control Vibrations in Flexible Structures," Metall. Trans. A, 22A, pp. 623-627
17. Chaudhry, Z., and Rogers, C. A., 1991, "Bending and Shape Control of Beams Using SMA Actuators," J. Intell. Mater. Syst. Struct, 2. pp. 581-602.
18. Maclean, B. J., Patterson, G. J., and Misra, M. A., 1991, "Modeling of a Shape Memory Integrated Actuator for Vibration Control of Large Space Structures," J. Intell. Mater. Syst. Struct., 2, pp. 72-94.
19. Zhong, Z. W., Chen, R. R., Mei, C., and Pates, C. S., 1994, "Buckling and Postbuckling of Shape Memory Alloy Fiber-Reinforced Composite Plates," Symposium on Buckling and Postbuckling of Composite Structures, ASME AD-41/PVP-293, pp. 115-132.
20. Lee, J. J., and Choi, S., 1999, "Thermal Buckling and Post-Buckling Analysis of a Laminated Composite Beam with Embedded SMA Actuators," Compos. Struct., 47, pp. 695-703.
21. Choi, S., Lee, J. J., Seo, D. C., and Choi, S. W., 1999, "The Active Buckling Control of Laminated Composite Beams with Embedded Shape Memory Alloy Wires," Compos. Struct., 47, pp. 679-686
22. Ostachowicz, W., Krawczuk, M., and Zak, A., 2000, "Dynamics and Buckling of a Multilayer Composite Plate with Embedded SMA Wires," Compos. Struct., 48, pp. 163-167.
23. Turner, T. L., 2000, "A New Thermoelastic Model for Analysis of Shape Memory Alloy Hybrid Composites," J. Intell. Mater. Syst. Struct., 11 (5), pp. 382-394.
24. Turner, T. L., 2001, "Thermomechanical Response of Shape Memory Alloy Hybrid Composites," NASA/TM-2001-210656.
25. Thompson, S. P., and Loughlan, J., 2001, "Enhancing the Post-Buckling Response of a Composite Panel Structure Utilising Shape Memory Alloy Actuators - a Smart Structural Concept," Compos. Struct., 51, pp. 21-36.
26. Rogers, C. A., Liang, C., and Jia, J., 1991, "Structural Modification of Simply-Supported Laminated Plates Using Embedded Shape Memory Alloy Fibers," Comput. Struct., 38(5/6), pp. 569-580.
27. Liang, C., Rogers, C. A., and Fuller, C. R., 1991, "Acoustic Transmission and Radiation Analysis of Adaptive Shape Memory Alloy Reinforced Laminated Plates," J. Sound Vib., 145(1), pp. 23-41.
28. Turner, T. L., Zhong, Z. W., and Mei. C., 1994, "Finite Element Analysis of the Random Response Suppression of Composite Panels at Elevated Temperatures Using Shape Memory Alloy Fibers," AIAA-94 1324-CP, Proceedings of the 35th Structures, Structural Dynamics, and Materials Conference, Hilton Head, SC, April 18-21, pp. 136-146.
29. Ro, J., and Baz, A., 1995, "Nitinol-Reinforced Plates: Part I. Thermal Characteristics," Composites Eng., 5(1), pp. 61-75.
30. Ro, J., and Baz. A., 1995. "Nitinol Reinforced Plates: Part II. Static and Buckling Characteristics," Composites Eng., 5(1), pp. 77-90.
31. Ro, J., and Baz. A., 1995, "Nitinol-Reinforced Plates: Part III. Dynamic Characteristics," Composites Eng., 5(1), pp. 91-106.
32. Birman, V., 1997, "Stability of Functionally Graded Shape Memory Alloy Sandwich Panels," Smart Mater. Struct., 6, pp. 278-286.
33. Turner, T. L., 2001, "Experimental Validation of a Thermoelastic Model for SMA Hybrid Composites," Smart Structures and Materials 2001: Modeling, Signal Processing, and Control in Smart Structures, V. S. Rao (editor), Proc. SPIE, 4326, pp. 208-219.
34. Turner, T. L., and Patel, H. D., 2004, "Analysis of SMA Hybrid Composite Structures Using Commercial Codes," Smart Structures and Materials 2004; Modeling, Signal Processing, and Control, R. C. Smith (Editor), Proc. SPIE, 5383, pp. 82-93.
35. Boyd, J. G., and Lagoudas, D. C., 1996, "A Thermodynamical Constitutive Model for Shape Memory Materials-Part II: The SMA Composite Material," Int. J. Plast., 12(7), pp 843-873.
36. Birman, V., 1996, "Micromechanics of Composites with Shape Memory Alloy Fibers in Uniform Thermal Fields," AIAA J., 34(9), pp. 1905-1912.
37. Turner, T. L., Singh, M. P., and Mei, C., 1995, "A Spectral Analysis Approach for Acoustic Radiation from Composite Panels," AIAA-95-1303-CP, Proceedings of the 36th Structures, Structural Dynamics, and Materials Conference, New Orleans, LA, 10 13 April, pp. 1262-1271.
38. Jacobson, M. J., 1968, "Acoustic Fatigue Design Information for Fiber Reinforced Structures," AFFDL-TR-68-107, United States Air Force.