Historical Developments and Potential Applications: Smart Materials and Structures

Inderjit  Chopra; Jayant Sirohi

doi:10.1017/CBO9781139025164.002

1 - Historical Developments and Potential Applications: Smart Materials and Structures

Published online by Cambridge University Press: 18 December 2013

Inderjit Chopra and

Jayant Sirohi

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Inderjit Chopra: Affiliation:
University of Maryland, College Park
Jayant Sirohi: Affiliation:
University of Texas, Austin

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Summary

The quest for superior capability in both civil and military products has been a key impetus for the discovery of high performance new materials. In fact, the standard of living has been impacted by the emergence of high performance materials. There is no doubt that the early history of civilization is intertwined with the evolution of new materials. For example, different eras of civilization are branded with their material capabilities, and these periods are referred to as the Stone Age, the Bronze Age, the Iron Age, and the Synthetic Material Age. The Stone Age represents the earliest known period of human civilization that stretches back to one million years BC, when tools and weapons were made out of stone. The Bronze Age (sometimes called the Copper Age) spans 3500–1000 BC. Weapons and implements were made of bronze (an alloy of copper and tin) during this period. The alloy is stronger than either of its constituents. Bronze was used to build weapons such as swords, axes, and arrowheads; implements such as utensils and sculptures; and other industrial products. The Iron Age followed the Bronze Age around 1000 BC and was characterized by the introduction of iron metallurgy. Iron ores were plentiful (cheap) but required high-temperature (2800°F) furnaces as compared to copper, which required lower-temperature (1900°F) furnaces. The Iron Age was the age of the industrial revolution, and many of the initial design tools, mechanics-based analyses, and material characterizations were formulated during this period.

Type: Chapter
Information: Smart Structures Theory , pp. 1 - 112

DOI: https://doi.org/10.1017/CBO9781139025164.002 [Opens in a new window]

Publisher: Cambridge University Press

Print publication year: 2013

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References

[1] H. R., Clauser. Modern materials concepts make structure key to progress. Materials Engineering, 68(6):38–42,1968.Google Scholar

[2] H. R., Clauser. From static to dynamic materials in design. Mechanical Engineering, 20–26,1975.Google Scholar

[3] V., Giurgiutiu, C. A., Rogers, and Z., Chaudhry. Energy-based comparison of solid-state induced-strain actuators. Journal of Intelligent Material Systems and Structures, 7(1): 4–14, 1996.Google Scholar

[4] C. D., Near. Piezoelectric actuator technology. Proceedings of the SPIE Smart Structures and Materials Symposium, 2717:246–258, San Diego, CA, 1996.Google Scholar

[5] J. J., Dosch, D. J., Inman, and E., Garcia. A self-sensing piezoelectric actuator for collocated control. Journal of Intelligent Material Systems and Smart Structures, 3: 166–185, January 1992.Google Scholar

[6] V., Gupta, M., Sharma, and N., Thakur. Optimization criteria for optimal placement of piezoelectric sensors and actuators on a smart structure: A technical review. Journal of Intelligent Material Systems and Structures, 21(12):1227–1243, August 2010.Google Scholar

[7] S. R., Hall, E. F., Crawley, and J. P., How. Hierarchic control architecture for intelligent structures. Journal of Guidance, Control and Dynamics, 14(3):503–512, 1991.Google Scholar

[8] H., Kawai. The piezoelectricity of poly(vinylidene) fluoride. Japanese Journal of Applied Physics, 8:975–976, 1969.Google Scholar

[9] L. C., Chang and T. A., Read. Plastic deformation and diffusionless phase change in metals – the gold-cadmium beat phase. Transactions of the AIME, Journal of Metals, 191:47–52, 1951.Google Scholar

[10] W. J., Buehler, J. V., Gilfrich, and R. C., Wiley. Effect of low-temperature phase change on the mechanical properties of alloys near composition TiNi. Journal of Applied Physics, 34:1475–1477, 1963.Google Scholar

[11] W. J., Buehler and R. C., Wiley. Nickel-base alloys. U.S. Patent 3,174,851,1965.

[12] E., Hornbogen and G., Wassermann. Uber den einflus von spannungen und das auftretten von umwandlungsplastizitat bei beta 1-beta-umwandlung des messings. Zeitung für Metallkunde, 47:427–433,1956.

[13] C. W., Chen. Some characteristics of the martensite transformation of Cu-Al-Ni alloys. Journal of Metallurgy, 9:1201–1203, 1957.Google Scholar

[14] M. W., Burkart and T. A., Read. Diffusionless phase change in the indium-thallium alloys. AIMEJ. Met., 197:1516–1524,1953.Google Scholar

[15] Z. S., Basinski and J. W., Christian. Experiments on the martensitic transformation in single crystals of indium-thallium alloys. Acta Metallurgica, 2(1):148–166, 1954.Google Scholar

[16] D. A., Hebda and S. R., White. Effect of training conditions and extended thermal cycling on Nitinol two-way shape memory behavior. Smart Materials and Structures, 4(4):298–304, 1995.Google Scholar

[17] M., Wuttig. Some notes on mechanical damping of shape memory alloys. In Engineering Aspects of Shape Memory Alloys, 488–489, 1990.Google Scholar

[18] E. R., Oberaigner, K., Tanaka, and F. D., Fischer. Investigation of the damping behavior of a vibrating shape memory alloy rod using a micromechanical model. Smart Materials and Structures, 5(4):456–463,1996.Google Scholar

[19] K., Tanaka. A thermomechanical sketch of shape memory effect: One-dimensional tensile behavior. Res Mechanica, 18:251–263,1986.Google Scholar

[20] C., Liang and C. A., Rogers. One-dimensional thermomechanical constitutive relations for shape memory materials. Journal of Intelligent Material Systems and Structures, 8(4):285–302, 1997.Google Scholar

[21] L. C., Brinson. One-dimensional constitutive behavior of shape memory alloys: Thermomechanical derivation with non-constant material functions. Journal of Intel-ligent Materials and Structures, 1:207–234, 1990.Google Scholar

[22] J. G., Boyd and D. C., Lagoudas. A thermodynamic constitutive model for the shape memory materials, Part I: the monolithic shape memory alloys. International Journal of Plasticity, 12(6):805–842, 1998.Google Scholar

[23] Y., Ivshin and T. J., Pence. Constitutive model for hysteretic phase transition behavior. International Journal of Engineering Science, 32(4):681–704, 1994.Google Scholar

[24] H., Tobushi, S., Yamada, T., Hachisuka, A., Ikai, and K., Tanaka. Thermomechanical properties due to martensitic and R-phase transformations of TiNi shape memory alloy subjected to cyclic loadings. Smart Materials and Structures, 5(6):788–795,1996.Google Scholar

[25] J. J., Epps and I., Chopra. Comparative evaluation of shape memory alloy constitutive models with test data. Paper # AIAA-1997-1194, Proceedings of the 38th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, Kissimmee, FL, April 1997.Google Scholar

[26] H., Prahlad and I., Chopra. Experimental characterization of Ni-Ti shape memory alloy wires under uniaxial loading conditions. Journal of Intelligent Material Systems and Structures, 11(4):272–282, 2000.Google Scholar

[27] A. J., Zak, M. P., Cartmell, W. M., Ostachowicz, and M., Wiercigroch. One-dimensional shape memory alloy models for use with reinforced composite structures. Smart Materials and Structures, 12(3):338–346, 2003.Google Scholar

[28] B., Malovrh and F., Gandhi. Mechanism-based phenomenological models for the pseudoelastic hysteresis behavior of shape memory alloys. Journal of Intelligent Material Systems and Structures, 12(1):21–30, 2001.Google Scholar

[29] B-C., Chang, J. A., Shaw, and M. A., Iadicola. Thermodynamics of shape memory alloy wire: Modeling, experiments and application. Continuum Mechanics & Thermodynamics, 18(1/2):83–118, 2006.Google Scholar

[30] F., Falk. Ginzburg-Landau theory of static domain walls in shape-memory alloys. Zeitschrift fur Physik B Condensed Matter, 51(2):177–185, 1983.Google Scholar

[31] J. M., Ball and R. D., James. Fine phase mixtures as minimizers of energy. Archivefor Rational Mechanics and Analysis, 100(1):13–52, 1987.Google Scholar

[32] R., Abeyaratne and J. K., Knowles. On the driving traction acting on a surface of strain discontinuity in a continuum. Jo rnal of the Mechanics and Physics of Solids, 38(3): 345–360, 1990.Google Scholar

[33] G. R., Barsch and J., Krumhansl. Martensite Chapter, Nonlinear Physics in Martensitic Transformations. In ASM International, Martensite (USA), 125–147, 1992.Google Scholar

[34] A., Sadjadpour and K., Bhattacharya. A micromechanics-inspired constitutive model for shape-memory alloys: The one-dimensional case. Smart Materials and Strructures, 16(1):S51–S62, February 2007.Google Scholar

[35] E., Patoor, A., Eberhardt, and M., Berveiller. Thermomechanical behaviour of shape memory alloys. Archiwum Mechaniki Stosowanej, 40(5):775–794,1988.Google Scholar

[36] Q. P., Sun and K. C., Hwang. Micromechanics modelling for the constitutive behavior of polycrystalline shape memory alloys. I: Derivation of general relations. Journal of the Mechanics and Physics of Solids, 41(1):1–17, 1993.Google Scholar

[37] Q. P., Sun and K. C., Hwang. Micromechanics modelling for the constitutive behavior of polycrystalline shape memory alloys. II. Study of the individual phenomena. Journal of the Mechanics and Physics of Solids, 41(1):19–33,1993.Google Scholar

[38] M., Huang and L. C., Brinson. A multivariant model for single crystal shape memory alloy behavior. Journal of the Mechanics and Physics of Solids, 46(8):1379–1409, 1998.Google Scholar

[39] J. G., Boyd and D. C., Lagoudas. Thermomechanical response of shape memory composites. Journal of Intelligent Material Systems and Structures, 5(3):333–346, 1994.Google Scholar

[40] E. J., Graesser and F. A., Cozzarelli. A proposed three-dimensional constitutive model for shape memory alloys. Journal of Intelligent Material Systems and Structures, 5(1): 78–89, 1994.Google Scholar

[41] E., Patoor, A., Eberhardt, and M., Berveiller. Micromechanical modelling of the shape memory behavior. International Mechanical Engineering Congress and Exposition, Chicago, IL, ASME Applied Mechanics Division, 189:23–37, 1994.Google Scholar

[42] B., Zhou, S. H., Yoon, and J. S., Leng. A three-dimensional constitutive model for shape memory alloys. Smart Materials and Structures, 18(9):095016, 2009.Google Scholar

[43] J. S. N., Paine and C. A., Rogers. Review of multi-functional SMA hybrid composite materials and their applications. Adaptive Structures and Composite Materials: Analysis and Application, AD-Vol. 45/MD-Vol. 54, ASME, pages 37–15,1994.Google Scholar

[44] K., Jonnalagadda, G. E., Kline, and N. R., Sottos. Local displacements and load transfer in shape memory alloy composites. Experimental Mechanics, 37(1):78–86, 1997.Google Scholar

[45] J., Epps and R., Chandra. Shape memory alloy actuation for active tuning of composite beams. Smart Materials and Structures, 6(3):251–264, 1997.Google Scholar

[46] T., Ogisu, M., Shimanuki, S., Kiyoshima, and N., Takeda. A basic study of CFRP laminates with embedded prestrained SMA foils for aircraft structures. Journal of Intelligent Material Systems and Structures, 16(2):175–185, 2005.Google Scholar

[47] J. A., Shaw and S., Kyriakides. Thermomechanical aspects of NiTi. Journal of the Mechanics and Physics of Solids, 43(8):1243–1281, 1995.Google Scholar

[48] M. A., Iadicola and J. A., Shaw. An experimental setup for measuring unstable thermo-mechanical behavior of shape memory alloy wire. Journal of Intelligent Material Systems and Structures, 13(2):157–166, 2002.Google Scholar

[49] Y., Liu. The work production of shape memory alloy. Smart Materials and Structures, 13(3):552–561, June 2004.Google Scholar

[50] S., Nomura, K., Tonooka, J., Kuwata, L. E., Cross, and R. E., Newnham. Electrostriction in Pb(Mg1/3Nb2/3)O3 ceramics. Proceedings of the 2nd Meeting on Ferroelectric Materials and Their Applications, pages 133–138, 1979.Google Scholar

[51] S. J., Jang, L. E., Cross, K., Uchino, and S., Nomura. Dielectric and electrostrictive properties of ferroelectric relaxors in the system Lead Magnesium Nio-bate (Pb(Mg1/3Nb2/3)O3) – Lead Titanate (PbTiO3) – Barium Zinc Niobate (Ba(Zn1/3Nb2/3)O3). Journal of the American Ceramic Society, 64(4):209–212,1981.Google Scholar

[52] S. L., Swartz and T. R., Shrout. Fabrication of perovskite Lead Magnesium Niobate. Materials Research Bulletin, 17(10):1245–1250, October 1982.Google Scholar

[53] W., Pan, E., Furman, G. O., Dayton, and L. E., Cross. Dielectric aging effects in doped Lead Magnesium Niobate: Lead Titanate relaxor ferroelectric ceramics. Journal of Materials Science Letters, 5(6):647–649, 1986.Google Scholar

[54] J., Scortesse, J. F., Manceau, F., Bastien, and M., Lejeune. Apparent Young's modulus in PMN-PT electrostrictive ceramics. The European Physical Journal of Applied Physics, 14:155–158, 2001.Google Scholar

[55] F. T., Calkins, A. B., Flatau, and M. J., Dapino. Overview of magnetostrictive sensor technology. Journal of Intelligent Materials and Smart Structures, 18(10):1057–1066, October 2007.Google Scholar

[56] G. P., Carman and M., Mitrovic. Nonlinear constitutive relations for magnetostrictive materials with application to 1-D problems. Journal of Intelligent Material Systems and Structures, 6(5):673–683, 1995.Google Scholar

[57] K. S., Kannan and A., Dasgupta. Continuum magnetoelastic properties of Terfenol-D; what is available and what is needed. Proceedings of the ASME Adaptive Materials Symposium, Summer Meeting, ASME-AMD-MD (UCLA), 1995.Google Scholar

[58] J. B., Restoff, H. T., Savage, A. E., Clark, and M., Wun-Fogle. Preisach modeling of hysteresis in Terfenol-D. Journal of Applied Physics, 67(9):5016–5018,1990.Google Scholar

[59] A. A., Adly and I. D., Mayergoyz. Magnetostriction simulation using anisotropic vector Preisach-type models. IEEE Transactions on Magnetics, 32(5):3773–3775,1996.Google Scholar

[60] R. C., Smith. Modeling techniques for magnetostrictive actuators. Proceedings of SPIE Symposium on Smart Structures and Materials, 3041:243–255, 1997.Google Scholar

[61] A. E., Clark, M., Wun-Fogle, J. B., Restorff, and T. A., Lograsso. Magnetic and magnetostrictive properties of Galfenol alloys under large compressive stresses. Proceedings of the International Symposium on Smart Materials-Fundamentals and System Applications, Pacific Rim Conference on Advanced Materials and Processing (PRICM-4), Honolulu, Hawaii, December 2001.Google Scholar

[62] R. A., Kellogg, A. B., Flatau, A. E., Clark, M., Wun-Fogle, and T. A., Lograsso. Quasistatic transduction characterization of Galfenol. Journal of Intelligent Material Systems and Structures, 16(6):471–479, June 2005.Google Scholar

[63] R. A., Kellogg, A. M., Russell, T. A., Lograsso, A. B., Flatau, A. E., Clark, and M., WunFogle. Tensile properties of magnetostrictive iron-gallium alloys. Acta Materialia, 52(17):5043–5050, October 2004.Google Scholar

[64] A. E., Clark, J. B., Restorff, M., Wun-Fogle, T. A., Lograsso, and D. L., Schlagel. Magnetostrictive properties of body-centered cubic Fe-Ga and Fe-Ga-Al alloys. IEEE Transactions on Magnetics, 36(5):3238–3240, September 2000.Google Scholar

[65] J., Atulasimha and A. B., Flatau. A review of magnetostrictive Iron-Gallium alloys. Smart Materials and Structures, 20(4):043001, 2011.Google Scholar

[66] W. M., Winslow. Method and means for translating electrical impulses into mechanical forces. U.S. Patent 2, 417, 850, 1947.Google Scholar

[67] W. M., Winslow. Induced fibration of suspensions. Journal of Applied Physics, 20: 1137–1140, 1949.Google Scholar

[68] W., Winslow. Field responsive fluid couplings. U.S. Patent 2,886, 151, 1959.Google Scholar

[69] J., Rabinow. Magnetic fluid torque and force transmitting device. U.S. Patent 2, 575, 360, 1951.Google Scholar

[70] J. E., Stangroom. Electrorheological fluids. Physics in Technology, 14(6):290–296, 1983.Google Scholar

[71] D., Brooks. Electro-rheological devices. Chartered Mechanical Engineer, 29:91–93, 1982.Google Scholar

[72] R., Stanway, J. L., Sproston, and A. K., El-Wahed. Applications of electro-rheological fluids in vibration control: A survey. Smart Materials and Structures, 5(4):464–182, 1996.Google Scholar

[73] J. A., Powell. The mechanical properties of an electrorheological fluid under oscillatory dynamic loading. Smart Materials and Structures, 2(4):217–231, 1993.Google Scholar

[74] W., Wen, X., Huang, S., Yang, K., Lu, and P., Sheng. The giant electrorheological effect in suspensions of nanoparticles. Nature Materials, 2(11):727–730, November 2003.Google Scholar

[75] T. G., Duclos. Design of devices using electrorheological fluids. Society of Automotive Engineering Transactions, Sec. 2, SAE Paper No. 881134, 97:2532–2536, 1988.Google Scholar

[76] Z. P., Shulman, R. G., Gorodkin, and V. K., Gleb. The electro-rheological effect and its possible uses. Journal of Non-Newtonian Fluid Mechanics, 8:29–41, 1981.Google Scholar

[77] M. V., Gandhi, M. V., Thompson, S. B., Choi, and S., Shakir. Electro-rheological fluid-based articulating robotic systems. ASME Journal of Mechanisms, Transmissions and Automation in Design, 111:328–336, 1989.Google Scholar

[78] M. V., Gandhi and M. V., Thompson. Ultra-advanced composite materials incorporating electro-rheological fluids. Proceedings of the 4th US-Japan Conference on Composite Materials, Washington, DC, June 1988.Google Scholar

[79] M. R., Jolly, J. W., Bender, and J. D., Carlson. Properties and applications of commercial magnetorheological fluids. Journal of Intelligent Material Systems and Structures, 10(1): 5–13, 1999.Google Scholar

[80] J., Rabinow. Magnetic fluid clutch. National Bureau of Standards Technical News Bulletin, 32(4):54–60, 1948.Google Scholar

[81] T. C., Jordan and M. T., Shaw. Electrorheology. IEEE Transactions on Electrical Insulation, 24(5):849–878, 1989.Google Scholar

[82] M., Whittle, R., Firoozian, D. J., Peel, and W. A., Bullough. A model for the electrical characteristics of an ER valve. International Journal of Modern Physics B, 6(15-16): 2683–2704, August 1992.Google Scholar

[83] A., Hosseini-Sianaki, W. A., Bullough, R. C., Tozer, M., Whittle, and J., Makin. Experimental investigation into the electrical modelling of electrorheological fluids in the shear mode. IEE Proceedings: Science, measurement and technology, 141(6):531–537, 1994.Google Scholar

[84] J., Clack, R., Stanway, and J. L., Stroston. The electrical transfer characteristics of electrorheological fluids in the squeeze-flow mode. Journal of Intelligent Material Systems and Structures, 5(5):713–722, 1994.Google Scholar

[85] R., Stanway, J., Sproston, and R., Firoozian. Identification of the damping law of an electro-rheological fluid: A sequential filtering approach. Journal of Dynamic Systems, Measurement and Control, 111(1):91–96, 1989.Google Scholar

[86] R. C., Ehrgott and S. F., Masri. Modeling the oscillatory dynamic behavior of electrorheological materials in shear. Smart Materials and Structures, 1(4):275–285, 1992.Google Scholar

[87] W. M., Winslow. Field-controlled hydraulic device. U.S. Patent 2, 661, 596, 1953.Google Scholar

[88] J. D., Carlson. Low-cost MR fluid sponge devices. H., Borgmann, editor, 6th International Conference on New Actuators, pages 417–421, 1998.Google Scholar

[89] Y., Shen, M. F., Golnaraghi, and G. R., Heppler. Experimental research and modeling of magnetorheological elastomers. Journal of Intelligent Material Systems and Structures, 15(1):27–35, 2004.Google Scholar

[90] J. D., Carlson. What makes a good MR fluid?Journal of Intelligent Material Systems and Structures, 13(7-8):431–435, 2002.Google Scholar

[91] A., Dogan, J., Tressler, and R. E., Newnham. Solid-state ceramic actuator designs. AIAA Journal, 39(7):1354–1362, 2001.Google Scholar

[92] A. J., Moskalik and D., Brei. Quasi-static behavior of individual C-block piezoelectric actuators. Journal of Intelligent Material Systems and Structures, 8(7):571, 1997.Google Scholar

[93] A. J., Moskalik and D., Brei. Dynamic performance of C-block array architectures. Journal of Sound and Vibration, 243(2):317–346, 2001.Google Scholar

[94] K. D., Rolt. History of flextensional electro-acoustic transducers. Journal of the Acoustical Society of America, 87(3):1340–1345, 1990.Google Scholar

[95] H. C., Hayes. Sound generating and directing apparatus. U.S. Patent 2, 064, 911, 1936.Google Scholar

[96] W. J., Toulis. Flexural-extensional electromechanical transducer. U.S. Patent 3, 277, 433, 1966.Google Scholar

[97] R. E., Newnham, Q. C., Xu, and S., Yoshikawa. Transformed stress direction acoustic transducer. U.S. Patent 4, 999, 819, 1991.Google Scholar

[98] A., Dogan, K., Uchino, and R. E., Newnham. Composite piezoelectric transducer with truncated conical endcaps cymbal. IEEE Transactions on Ultrasonics, Ferroelectrics and Frequency Control, 44(3):597–605, 1997.Google Scholar

[99] G. H., Haertling. RAINBOW ceramics – A new type of ultra-high-displacement actuator. American Ceramic Society Bulletin, 73(1):93–96, 1994.Google Scholar

[100] R. F., Hellbaum, R. G., Bryant, and R. L., Fox. Thin layer composite unimorph ferroelectric driver and sensor. US Patent 5, 632,841, 1997.Google Scholar

[101] K. M., Mossi, G. V., Selby, and R. G., Bryant. Thin-layer composite unimorph ferroelectric driver and sensor properties. Materials Letters, 35(1):39–49, 1998.Google Scholar

[102] J. P., Dunne, S. W., Jacobs, and E. W., Baumann. Synthesis and processing of efficient cost-effective structures Phase II (SPICES II): Smart Materials Aircraft Applications Evaluation. Proceedings of the SPIE Smart Structures and Materials Conference, Industrial and Commercial Applications, San Diego, CA, 3326:2–12, 1998.Google Scholar

[103] B., Culshaw. ASSET: Collaboration in Europe on smart structures. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:22–28, 2001.Google Scholar

[104] H., Hanselka and D., Sachau. German industrial research project ADAPTRONIK: Content, results, and outlook. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:29–36, 2001.Google Scholar

[105] A. J., Lockyer, K. H., Alt, J. N., Kudva, and J., Tuss. Air vehicle integration issues and considerations for CLAS successful implementation. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:48–59, 2001.Google Scholar

[106] K., Miura. Adaptive structures research at ISAS, 1984-1990. Journal of Intelligent Material Systems and Structures, 3(1):54–74, 1992.Google Scholar

[107] S., Utku and B. K., Wada. Adaptive structures in Japan. Journal of Intelligent Material Systems and Structures, 4(4):437–451, 1993.Google Scholar

[108] Y., Matsuzaki. Smart structures research in Japan. Smart Materials and Structures, 6(4): 1–10, 1997.Google Scholar

[109] Y., Matsuzaki, T., Ikeda, and C., Boller. New technological development of passive and active vibration control: Analysis and test. Smart Materials and Structures, 14(2): 343–348, April 2005.Google Scholar

[110] A. M., R. McGowan, A. E., Washburn, L. G., Horta, R. G., Bryant, D. E., Cox, E. J., Siochi, S. L., Padula, and N. M., Holloway. Recent results from NASA's Morphing Project. Proceedings of the SPIE Smart Structures and Materials Symposium, 4698:97–111, 2002.Google Scholar

[111] R. L., Forward. Electronic damping of orthogonal bending modes in a cylindrical mastexperiment. Journal of Spacecraft and Rockets, 18(1):11–17, 1981.Google Scholar

[112] T., Bailey and J. E., Hubbard Jr.Distributed piezoelectric-polymer active vibration control of a cantilevered beam. Journal of Guidance and Control, 8(5):605–611, 1985.Google Scholar

[113] E., Crawley and J., de Luis. Use of piezoceramic actuators as elements of intelligent structures. AIAA Journal, 25(10):1373–1385, October 1987.Google Scholar

[114] S., Hanagud, M. W., Obal, and A. J., Calise. Optimal vibration control by the use of piezoceramic sensors and actuators. Journal of Guidance, Control and Dynamics, 15(5):1199–1206, 1992.Google Scholar

[115] A., Baz and S., Poh. Performance of an active control system with piezoelectric actuators. Journal of Sound and Vibration, 126(2):327–343, 1988.Google Scholar

[116] R. L., Forward. Electronic damping of vibrations in optical structures. Applied Optics, 18(5):690–697, 1979.Google Scholar

[117] N., Hagood and E., Crawley. Experimental investigation into passive damping enhancement for space structures. Paper # AIAA-1989-3436, Proceedings of the AIAA Guidance, Navigation and Control Conference, Boston, MA, 1989.Google Scholar

[118] B. K., Wada. Application of adaptive structures in the design of space structures. Paper # AIAA-1992-1225, Proceedings of the AIAA Aerospace Design Conference, Irvine, CA, February 1992.Google Scholar

[119] B. K., Wada, J. L., Fanson, and E. F., Crawley. Adaptive structures. Journal of Intelligent Material Systems and Structures, 1(2):157–174, April 1990.Google Scholar

[120] B. K., Wada. Adaptive structures: An overview. Journal of Spacecraft, 27(3):330–337, May-June 1990.Google Scholar

[121] L. Y., Lu, S., Utku, and B. K., Wada. On the placement of active members in adaptive truss structures for vibration control. Smart Materials and Structures, 1(1):8–23, 1992.Google Scholar

[122] D. R., Dean and L. T., James. Adaptive Laser Optical Technique (ALOT). 1st DOD Conference on High Energy Laser Technology, Naval Training Center, San Diego, CA, USA, October 1974.Google Scholar

[123] T., Sato, H., Ishikawa, and O., Ikeda. Multilayered deformable mirror using PVDF films. Applied Optics, 21(20):3664–3668, October 1982.Google Scholar

[124] J. C., Chen. Response of large space structures with stiffness control. Journal of Space-craft and Rockets, 21(5):463–167, September-October 1984.Google Scholar

[125] C. S., Major and S. S., Simonian. An experiment to demonstrate active and passive control of a flexible structure. American Control Conference, IEEE, New York, 1984.Google Scholar

[126] M. D., Rhodes and M. M., Mikulas Jr.. Deployable controllable geometry truss beam. NASA Langley Research Center Report, NASA TM-86366, June 1985.Google Scholar

[127] K., Miura, H., Furuya, and H., Suzuki. Variable geometry truss and its applications to deployable truss and space crane arm. Acta Astronautics, 12(7/8):599–607, 1985.Google Scholar

[128] M., Natori, K., Iwasaki, and F., Kuwao. Adaptive planar truss structures and their vibration characteristics. Paper # AIAA-1989-0743, Proceedings of the 28th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, New York, April 1987.Google Scholar

[129] J. L., Fanson, C., Cheng-Chih, B. J., Lurie, and R. S., Smith. Damping and structural control of the JPL Phase 0 testbed structure. Journal of Intelligent Material Systems and Structures, 2(3):281–300, 1991.Google Scholar

[130] K., Miura and H., Furuya. Adaptive structure concept for future space applications. AIAA Journal, 26(8):995–1002, August 1988.Google Scholar

[131] O. J., Godard, M. Z., Lagoudas, and D. C., Lagoudas. Design of space systems using shape memory alloys. Proceedings of the SPIE Smart Structures and Materials Symposium, 5056:545–558, 2003.Google Scholar

[132] D. J., Hartl and D. C., Lagoudas. Aerospace applications of shape memory alloys. Proceedings of the Institution of Mechanical Engineers, Part G: Journal of Aerospace Engineering, 221(4):535–552, 2007.Google Scholar

[133] J. L., Fanson, G. H., Blackwood, and C. C., Chu. Active-member control of precision structures. Paper # AIAA-1989-1329, Proceedings of the 30th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, Mobile, AL, April 1989.Google Scholar

[134] G-S., Chen, B. J., Lurie, and B. K., Wada. Experimental studies of adaptive structures for precision performance. Paper # AIAA-1989-1327, Proceedings of the 30th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, Mobile, AL, April 1989.Google Scholar

[135] L. D., Peterson, J. J., Allen, J. P., Lauffer, and A. K., Miller. An experimental and analytical synthesis of controlled structure design. In AIAA-1989-1170, Proceedings of the 30th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, Mobile, AL, April 1989.Google Scholar

[136] M., Salama, J., Umland, R., Bruno, and J., Garba. Shape adjustment of precision truss structures: Analytical and experimental validation. Smart Materials and Structures, 2(4):240–248, 1993.Google Scholar

[137] C. L., Hom, P. D., Dean, and S. R., Winzer. Simulating electrostrictive deformable mirrors: I. Nonlinear static analysis. Smart Materials and Structures, 8(5):691–699,1999.Google Scholar

[138] G., Park, M. H., Kim, and D. J., Inman. Integration of smart materials into dynamics and control of inflatable space structures. Journal of Intelligent Material Systems and Structures, 12(6):423–433, 2001.Google Scholar

[139] A. K., Jha and D. J., Inman. Optimal sizes and placements of piezoelectric actuators and sensors for an inflated torus. Journal of Intelligent Material Systems and Structures, 14(9):563–576, 2003.Google Scholar

[140] J. W., Martin and J., Main. Noncontact electron gun actuation of a piezoelectric polymer thin-film bimorph structure. Journal of Intelligent Material Systems and Structures, 13(6):329–337, 2002.Google Scholar

[141] F., Andoh, G., Washington, H. S., Yoon, and V., Utkin. Efficient shape control of distributed reflectors with discrete piezoelectric actuators. Journal of Intelligent Material Systems and Structures, 15(1):3–15, 2004.Google Scholar

[142] P., Gaudenzi, D., Giarda, and F., Morganti. Active microvibration control of an optical payload installed on the ARTEMIS spacecraft. Journal of Intelligent Material Systems and Structures, 9(9):740–748, 1999.Google Scholar

[143] S. A., Lane, S., Griffin, and D., Leo. Active structural acoustic control of a launch vehicle fairing using monolithic piezoceramic actuators. Journal of Intelligent Material Systems and Structures, 12(12):795–806, 2001.Google Scholar

[144] S. A., Lane, S., Griffin, and D. J., Leo. Active structural-acoustic control of composite fairings using single-crystal piezoelectric actuators. Smart Materials and Structures, 12(1):96–104, 2003.Google Scholar

[145] C., Niezrecki and H. H., Cudney. Feasibility to control launch vehicle internal acoustics using piezoelectric actuators. Journal of Intelligent Material Systems and Structures, 12(9):647–660, 2001.Google Scholar

[146] B. K., Henderson and K. K., Denoyer. Recent transitions of smart structures technologies through flight experiments. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:153–158, 2001.Google Scholar

[147] H. P., Monner, H., Hanselka, and E. J., Breitbach. New results and future plans of the German major project ADAPTRONICS. Proceedings of the SPIE Smart Structures and Materials Symposium, 4698:313–324, 2002.Google Scholar

[148] J. K., Dürr, R., Honke, M. V., Alberti, and R., Sippel. Analysis and design of an adaptive lightweight satellite mirror. Proceedings of the SPIE Smart Structures and Materials Symposium, 4698:351–363, 2002.Google Scholar

[149] J. K., Dürr, R., Honke, M., Von Alberti, and R., Sippel. Development and manufacture of an adaptive lightweight mirror for space application. Smart Materials and Structures, 12(6):1005–1016, 2003.Google Scholar

[150] S., Barbarino, S., Ameduri, L., Lecca, and A., Concillo. Wing shape control through and SMA-based device. Journal of Intelligent Materials and Smart Structures, 20(3): 283–296, 2009.Google Scholar

[151] K. N., Melton. Ni-Ti Based Shape Memory Alloys. Engineering Aspects of Shape Memory Alloys, Edited by T. W., Duerig. Butterworth-Heinemann Limited, 1990.Google Scholar

[152] P., Hajela and R., Glowasky. Application of piezoelectric elements in supersonic panel flutter suppression. Paper # AIAA 91-3191, Proceedings of the AIAA, AHS and ASEE, Aircraft Design Systems and Operations Meeting, Baltimore, MD, 1991.Google Scholar

[153] K. D., Frampton, R. L., Clark, and E. H., Dowell. Active control of panel flutter with piezoelectric transducers. Journal of Aircraft, 33(4):768–774, July-August 1996.Google Scholar

[154] R. C., Scott and T. A., Weisshaar. Panel flutter suppression using adaptive material actuators. Journal of Aircraft, 31(1):213–222, January-February 1994.Google Scholar

[155] A., Suleman and V. B., Venkayya. Flutter control of an adaptive laminated composite panel with piezoelectric layers. Paper # AIAA 94-1744 Proceedings of the 6th AIAA/USAF/NASA/ISSMO Symposium on Multidisciplinary Analysis and Optimization, pages 4–6, 1996.Google Scholar

[156] S. M., Ehlers and T. A., Weisshaar. Static aeroelastic control of an adaptive lifting surface. Journal of Aircraft, 30(4):534–540, July-August 1993.Google Scholar

[157] K. B., Lazarus, E. F., Crawley, and C. Y., Lin. Multivariable active lifting surface control using strain actuation: Analytical and experimental results. Journal of Aircraft, 34(3): 313–321, 1997.Google Scholar

[158] C., Nam, Y., Kim, and T. A., Weisshaar. Optimal sizing and placement of piezo-actuators for active flutter suppression. Smart Materials and Structures, 5(2):216–224, 1996.Google Scholar

[159] C. Y., Lin, E. F., Crawley, and J., Heeg. Open- and closed-loop results of a strain-actuated active aeroelastic wing. Journal of Aircraft, 33(5):987–994, September-October 1996.Google Scholar

[160] A., Suleman, C., Crawford, and A. P., Costa. Experimental aeroelastic response of piezoelectric and aileron controlled 3-D wing. Journal of Intelligent Material Systems and Structures, 13(2):75–83, 2002.Google Scholar

[161] J. K., Strelec, D. C., Lagoudas, M. A., Khan, and J., Yen. Design and implementation of a shape memory alloy actuated reconfigurable airfoil. Journal of Intelligent Material Systems and Structures, 14(4):257–273, 2003.Google Scholar

[162] M. J., Rossi, F., Austin, and W., van Nostrand. Active rib experiment for shape control of an adaptive wing. Paper # AIAA-1993-1700, Proceedings of the 34th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, La Jolla, CA, April 1993.Google Scholar

[163] C., Thill, I., Bond, E., Potter, and P., Weaver. Morphing skins. The Aeronautical Journal, 112:117–139, 2008.Google Scholar

[164] R., Beblo, K., Gross, and W. L., Mauck. Mechanical and curing properties of a styrene-based shape memory polymer. Journal of Intelligent Material Systems and Structures, 21(7):677–683, 2010.Google Scholar

[165] R., Ikegami and E. D., Haugse. Structural health management for aging aircraft. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:60–67, 2001.Google Scholar

[166] E., Kiely, G., Washington, and J., Bernhard. Design and development of smart microstrip patch antennas. Smart Materials and Structures, 7(6):792–800, 1998.Google Scholar

[167] F. J., Chen, C., Yao, G. B., Beeler, R. G., Bryant, and R. L., Fox. Development of synthetic jet actuators for active flow control at NASA Langley. Paper# AIAA-2000-2405, Proceedings of Fluids 2000, Denver, CO, June 2000.Google Scholar

[168] R., Rathnasingham and K., Breuer. Coupled fluid-structural characteristics of actuators for flow control. AIAA Journal, 35(5):832–837, May 1997.Google Scholar

[169] B. L., Smith and A., Glezer. The formation and evolution of synthetic jets. Physics of Fluids, 10(9):2281–2297, September 1998.Google Scholar

[170] A., Crook and A. M., Sadri. The development and implementation of synthetic jets for control of separated flow, AIAA Paper # 1999-3176 17th Applied Aerodynamics Conference, Norfolk, VA, July, 1999.Google Scholar

[171] P., Mane, K., Mossi, A., Rostami, R., Bryant, and N., Castro. Piezoelectric actuators as synthetic jets: Cavity dimension effects. Journal of Intelligent Material Systems and Structures, 18(11):1175–1190, 2007.Google Scholar

[172] N., Schaeffler, M., Kegerise, T., Hepner, and G., Jones. Overview of active flow control actuator development at NASA Langley Research Center. Paper # AIAA-2002-3159, Proceedings of the 1st AIAA Flow Control Conference, Saint Louis, MO, 2002.Google Scholar

[173] A., Kumar and J. N., Hefner. Future challenges and opportunities in aerodynamics. In 22nd International Congress of Aeronautical Sciences, ICAS Paper 2000-0.2, August 2000.Google Scholar

[174] A. E., Washburn. NASA micro-aero-adaptive control. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:326–344, 2001.Google Scholar

[175] V. Q., Nguyen, M., Syaifuddin, H. C., Park, D. Y., Byun, N. S., Goo, and K. J., Yoon. Characteristics of an insect-mimicking flapping system actuated by a unimorph piezoceramic actuator. Journal of Intelligent Material Systems and Structures, 19(10):1185–1193, 2008.Google Scholar

[176] B., Sanders, R., Crowe, and E., Garcia. Defense Advanced Research Projects Agency -smart materials and structures demonstration program overview. Journal of Intelligent Material Systems and Structures, 15(4):227–233, April 2004.Google Scholar

[177] J. N., Kudva. Overview of the DARPA smart wing project. Journal of Intelligent Material Systems and Structures, 15(4):261–267, April 2004.Google Scholar

[178] C. A., Martin, B. J., Hallam, J. S., Flanagan, and J. D., Bartley-Cho. Design, fabrication and testing of a scaled wind-tunnel model for the smart wing project. Journal of Intelligent Material Systems and Structures, 15(4):269–278, April 2004.Google Scholar

[179] J. D., Bartley-Cho, D. P., Wang, C. A., Martin, J. N., Kudva, and M. N., West. Development of high-rate, adaptive trailing-edge control surface for the smart wing Phase 2 wind-tunnel model. Journal of Intelligent Material Systems and Structures, 15(4): 279–291, April 2004.Google Scholar

[180] B., Sanders, D., Cowan, and L., Scherer. Aerodynamic performance of the smart wing control effectors. Journal of Intelligent Material Systems and Structures, 15(4):293–303, April 2004.Google Scholar

[181] A. J., Lockyer, C. A., Martin, D. K., Linder, P. S., Walia, and B. F., Carpenter. Power system requirement for integration of smart structures into aircraft. Journal of Intelligent Material Systems and Structures, 15(4):305–315, April 2004.Google Scholar

[182] W. E., Triplett. Pressure measurements of twin vertical tails in buffeting flow. Journal of Aircraft, 20(11):920–925, November 1983.Google Scholar

[183] C. L., Pettit, M., Bandford, D., Brown, and E., Pendleton. Full-scale wind-tunnel pressure measurements on an F/A-18 tail during buffet. Journal of Aircraft, 33(6):1148–1156, November-December 1996.Google Scholar

[184] R. W., Moses and L., Huttsell. Fin-buffeting features of an early F-22 model. Paper # AIAA-2000-1695, Proceedings of the 41st AIAA/ASME/ASCE/AHS/ASC Strucurres, Structural Dynamics and Materials Conference, Atlanta, GA, April 2000.Google Scholar

[185] R. W., Moses, C. D., Wieseman, A. A., Bent, and A. E., Pizzochero. Evaluation of new actuators in a buffet loads environment. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:10–21, 2001.Google Scholar

[186] R. W., Moses. Vertical tail buffeting alleviation using piezoelectric actuators – some results of the Actively Controlled Response of Buffet-Affected Tails (ACROBAT) program, NASA TM 110336, April 1997.Google Scholar

[187] R. M., Hauch, J. H., Jacobs, K., Ravindra, and C., Dima. Reduction of vertical tail buffet response using active control. Paper # AIAA-1995-1080, Proceedings of the 36th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, April 1995.Google Scholar

[188] A., Suleman, A. P., Costa, and P. A., Moniz. Experimental flutter and buffeting suppression using piezoelectric actuators and sensors. Proceedings of the SPIE Smart Structures and Materials Symposium, 3674:72–83, 1999.Google Scholar

[189] C. R., Fuller. Active control of sound transmission/radiation from elastic plates by vibration inputs: I. Analysis. Journal of Sound and Vibration, 136(1):1–15,1990.Google Scholar

[190] C. A., Gentry, C., Guigou, and C. R., Fuller. Smart foam for applications in passive-active noise radiation control. The Journal of the Acoustical Society of America, 101(4):1771–1778, April 1997.Google Scholar

[191] J., Kim and J. K., Lee. Broadband transmission noise reduction of smart panels featuring piezoelectric shunt circuits and sound-absorbing material. The Journal of the Acoustical Society of America, 112(3):990–998, 2002.Google Scholar

[192] J., Kim and Y. C., Jung. Piezoelectric smart panels for broadband noise reduction. Journal of Intelligent Material Systems and Structures, 17(8-9):685–690, 2006.Google Scholar

[193] B., Petitjean and C., Greffe. Active interior noise control: An industrial perspective. Proceedings of the SPIE Smart Structures and Materials Symposium, 4698:133–142, 2002.Google Scholar

[194] S., Bohme, D., Sachau, and H., Breitbach. Optimization of actuator and sensor positions for an active noise reduction system. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171:61710N-1 – 61710N-11, 2006.Google Scholar

[195] T. L., Turner, R. D., Buehrle, R. J., Cano, and G. A., Fleming. Modeling, fabrication and testing of a SMA hybrid composite jet engine chevron concept. Journal of Intelligent Material Systems and Structures, 17(6):483–497, 2006.Google Scholar

[196] F. T., Calkins, J. H., Mabe, and G. W., Butler. Boeing's variable geometry chevron: Morphing aerospace structures for jet noise reduction. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171:61710O-1–61710O-12, 2006.Google Scholar

[197] D. J., Hartl, D. C., Lagoudas, F. T., Calkins, and J. H., Mabe. Use of a Ni60Ti shape memory alloy for active jet engine chevron application: I. Thermomechanical characterization. Smart Materials and Structures, 19(1):015020, 2010.Google Scholar

[198] D. J., Hartl, D. C., Lagoudas, F. T., Calkins, and J. H., Mabe. Use of a Ni60Ti shape memory alloy for active jet engine chevron application: II. Experimentally validated numerical analysis. Smart Materials and Structures, 19(1):015021, 2010.Google Scholar

[199] J., Webster. High integrity adaptive SMA components for gas turbine applications. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171:61710F-1–61710F-8, 2006.Google Scholar

[200] N. H., Schiller, W. R., Saunders, and W., Chishty. Development of a piezoelectric-actuated fuel modulation system for active combustion control. Journal of Intelligent Material Systems and Structures, 17(5):403–410, 2006.Google Scholar

[201] D. M., Pitt, J. P., Dunne, E. V., White, and E., Garcia. Wind-tunnel demonstration of the SAMPSON smart inlet. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:345–356, 2001.Google Scholar

[202] D. M., Pitt, J. P., Dunne, E. V., White, and E., Garcia. SAMPSON smart inlet SMA powered adaptive lip design and static test. Paper # AIAA-2001-1359, Proceedings of the 42nd AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference and Exhibit, Seattle, WA, April 16–19, 2001.Google Scholar

[203] N., Rey, G., Tillman, R. M., Miller, T., Wynosky, M. J., Larkin, J. D., Flamm, and L. S., Bangert. Shape memory alloy actuation for a variable area fan nozzle. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:371–382, 2001.Google Scholar

[204] I., Chopra. Status of application of smart structures technology to rotorcraft systems. Journal of the American Helicopter Society, 45(4):228–252, October 2000.Google Scholar

[205] I., Chopra. Review of state of art of smart structures and integrated systems. AIAA Journal, 40(11):2145–2187, November 2002.Google Scholar

[206] B., Balachandran, A., Sampath, and J., Park. Active control of interior noise in a three-dimensional enclosure. Smart Materials and Structures, 5(1):89–97, 1996.Google Scholar

[207] W., Gembler, H., Schweitzer, R., Maier, M., Pucher, P., Jaenker, and F., Hermle. Smart struts: The solution for helicopter interior noise problems. In Proceedings of the 25th European Rotorcraft Forum, Rome, Italy, 1, September 1999.Google Scholar

[208] N. A., Koratkar and I., Chopra. Development of a Mach-scaled model with piezoelectric bender actuated trailing-edge flaps for helicopter individual blade control (IBC). AIAA Journal, 38(7):1113–1124, July 2000.Google Scholar

[209] N. A., Koratkar and I., Chopra. Wind-tunnel testing of a Mach-scaled rotor model with trailing-edge flaps. Smart Materials and Structures, 10(1):1–14, Febuary 2001.Google Scholar

[210] N. A., Koratkar and I., Chopra. Wind-tunnel testing of a Mach-scaled rotor model with trailing-edge flaps. In Proceedings of the 57th Annual Forum of the American Helicopter Society, Washington, DC, May 2001.Google Scholar

[211] B., Roget and I., Chopra. “Individual blade-control methodology of a rotor with dissimilar blades,” Journal of the American Helicopter Society, 48(3): 176–185, July 2003.Google Scholar

[212] M., Fulton and R. A., Ormiston. Small-scale rotor experiments with on-blade elevons to reduce blade vibratory loads in forward flight. Journal of the American Helicopter Society, 46(2):96–106, April 2001.Google Scholar

[213] T., Lee and I., Chopra. Design issues of a high-stroke, on-blade piezostack actuator for helicopter rotor with trailing-edge flaps. Journal of Intelligent Material Systems and Structures, 11(5):328–342, May 2000.Google Scholar

[214] T., Lee and I., Chopra. Design of piezostack-driven trailing-edge flap actuator for helicopter rotors. Smart Materials and Structures, 10(1):15–24, February 2001.Google Scholar

[215] T., Lee and I., Chopra. Wind-tunnel test of blade sections with piezoelectric trailing-edge flap mechanism. In Proceedings of the 57th Annual Forum of the American Helicopter Society, Washington, DC, May 2001.Google Scholar

[216] F. K., Straub, H. T., Ngo, V., Anand, and D. B., Domzalski. Development of a piezoelectric actuator for trailing-edge flap control for full-scale rotor system. Smart Materials and Structures, 10(1):25–34, February 2001.Google Scholar

[217] S. R., Hall and E. F., Prechtl. Preliminary testing of a Mach-scaled active rotor blade with a trailing edge servo-flap. Proceedings of the SPIE Smart Structures and Materials Symposium, 3668:14–21, 1999.Google Scholar

[218] P., Janker, V., Kloppel, F., Hermle, T., Lorkowski, S., Storm, M., Christmann, and M., Wettemann. Development and evaluation of a hybrid piezoelectric actuator for advanced flap control technology. In Proceedings of the 25th European Rotorcraft Forum, Rome, Italy, September 1999.Google Scholar

[219] A. P. F., Bernhard and I., Chopra. Trailing-edge flap activated by a piezo-induced bending-torsion coupled beam. Journal of the American Helicopter Society, 44(1):3–15, January 1999.Google Scholar

[220] A. P. F., Bernhard and I., Chopra. Hover test of an active-twist, Mach-scale rotor using a piezo-induced bending-torsion actuator beam. In Proceedings of the AHS Northeast Region Technical Specialists' Meeting on Improving Rotorcraft Acceptance Through Active Control Technology, Bridgeport, CT, October 2000.Google Scholar

[221] A. P. F., Bernhard and I., Chopra. Analysis of a bending-torsion coupled actuator for a smart rotor with active blade tips. Smart Materials and Structures, 10(1):35–52, February 2001.Google Scholar

[222] P. C., Chen and I., Chopra. Wind-tunnel test of a smart rotor with individual blade twist control. Journal of Intelligent Material Systems and Structures, 8(5):414–425, May 1997.Google Scholar

[223] P. C., Chen and I., Chopra. Hover testing of smart rotor with induced-strain actuation of blade twist. AIAA Journal, 35(1):6–16, January 1997.Google Scholar

[224] R. C., Derham and N. W., Hagood. Rotor design using smart materials to actively twist blades. In Proceedings of the 52nd Annual Forum of the American Helicopter Society, Washington, DC, June 1996.Google Scholar

[225] J. P., Rodgers and N. W., Hagood. Preliminary Mach-scale hover testing of an integral twist-actuated rotor blade. Proceedings of the SPIE Smart Structures and Materials Symposium, 3329:291–308, 1998.Google Scholar

[226] J. P., Rodgers, N. W., Hagood and D., Weems. Design and manufacture of an integral twist-actuated rotor blade. Paper # AIAA-1997-1264, Proceedings of the 38th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, Kissimmee, FL, April 1997.Google Scholar

[227] C. E. S., Cesnik, S. J., Shin, and M. L., Wilbur. Dynamic response of active twist rotor blades. Smart Materials and Structures, 10(1):62–76, February 2001.Google Scholar

[228] C. E. S., Cesnik and S. J., Shin. Control of integral twist-actuated helicopter blades for vibration reduction. In Proceedings of the 58th American Helicopter Society Annual Forum, Montreal, Canada, May 2002.Google Scholar

[229] J. J., Epps and I., Chopra. In-flight tracking of helicopter rotor blades using shape memory alloy actuators. In Proceedings of the 56th American Helicopter Society Annual Forum, Virginia Beach, VA, May 2000.Google Scholar

[230] J. J., Epps and I., Chopra. In-flight tracking of helicopter rotor blades using shape memory alloy actuators. Smart Materials and Structures, 10(1):104–111, February 2001.Google Scholar

[231] K., Singh, J., Sirohi, and I., Chopra. An improved shape memory alloy actuator for rotor blade tracking. Journal of Intelligent Material Systems and Structures, 14(12):767–786, December 2003.Google Scholar

[232] C., Liang, F., Davidson, L. M., Schetky, and F. K., Straub. Applications of torsional shape memory alloy actuators for active rotor blade control – opportunities and limitations. Proceedings of the SPIE Smart Structures and Materials Symposium, 2717:91–100,1996.Google Scholar

[233] D. K., Kennedy, F. K., Straub, L. M., Schetky, Z., Chaudhry, and R., Roznoy. Development of an SMA actuator for in-flight rotor blade tracking. Journal of Intelligent Materials and Smart Structures, 15:235–260, April 2004.Google Scholar

[234] H., Prahlad and I., Chopra. Characterization of SMA torsional actuators for variable twist tilt rotor (VTTR) blades. Paper # AIAA-2002-1445, Proceedings of the 43rd AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, Denver, CO, April 2002.Google Scholar

[235] H., Prahlad and I., Chopra. Modeling and experimental characterization of SMA tor-sional actuators. Journal of Intelligent Material Systems and Structures, 18(1):29–38, January 2007.Google Scholar

[236] P. C., Chen, R. A. D., Evans, J., Niemczuk, and J. D., Baeder. Blade-vortex interaction noise reduction with active twist smart rotor technology. Smart Materials and Structures, 10(1):77–85, 2001.Google Scholar

[237] A., Sampath and B., Balachandran. Active control of multiple tones in an enclosure. The Journal of the Acoustical Society of America, 106(1):211–225, 1999.Google Scholar

[238] J., Shen and I., Chopra. Actuation requirements for a swashplateless helicopter control system with trailing-edge flaps. Paper # AIAA-2002-1444, Proceedings of the 43rd AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics and Materials Conference, Denver, CO, April 2002.Google Scholar

[239] J., Shen and I., Chopra. Aeroelastic stability of trailing-edge flap helicopter rotors. Journal of the American Helicopter Society, 48(4):236–243, 2003.Google Scholar

[240] J., Shen and I., Chopra. Swashplateless helicopter rotor with trailing-edge flaps. Journal of Aircraft, 41(2):208–214, 2004.Google Scholar

[241] J., Shen and I., Chopra. A parametric design study for a swashplateless helicopter rotor with trailing-edge flaps. Journal of the American Helicopter Society, 49(1):43–53, 2004.Google Scholar

[242] R., Kube and V., Kloeppel. On the role of prediction tools for adaptive rotor system developments. Smart Materials and Structures, 10(1):137–144, 2001.Google Scholar

[243] I., Pelinescu and B., Balachandran. Analytical study of active control of wave transmission through cylindrical struts. Smart Materials and Structures, 10(1):121–136, 2001.Google Scholar

[244] D. R., Mahapatra, S., Gopalakrishnan, and B., Balachandran. Active feedback control of multiple waves in helicopter gearbox support struts. Smart Materials and Structures, 10(5):1046–1058, 2001.Google Scholar

[245] G. M., Kamath, N. M., Wereley, and M. R., Jolly. Characterization of magnetorheological helicopter lag dampers. Journal of the American Helicopter Society, 44(3):234–248, 1999.Google Scholar

[246] P., Konstanzer, B., Grohmann, and B., Kroplin. Decentralized vibration control and coupled aeroservoelastic simulation of helicopter rotor blades with adaptive airfoils. Journal of Intelligent Material Systems and Structures, 12(4):209, 2001.Google Scholar

[247] S. J., Kim and C. Y., Yun. Performance comparison between piezoelectric and elastomeric lag dampers on ground resonance stability of helicopter. Journal of Intelligent Material Systems and Structures, 12(4):215, 2001.Google Scholar

[248] A., Sampath and B., Balachandran. Studies on performance functions for interior noise control. Smart Materials and Structures, 6(3):315–332, 1997.Google Scholar

[249] F. K., Straub, D. K., Kennedy, D. B., Domzalski, A. A., Hasan, H., Ngo, V., Anand, and T., Birchette. Smart material actuated rotor technology – SMART. Journal of Intelligent Materials and Smart Structures, 15(4):249–260, 2004.Google Scholar

[250] D., Jacot, T., Calkins, and J., Mabe. Boeing active flow control system BAFC-II. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:317–325, 2001.Google Scholar

[251] F. T., Calkins and D. J., Clingman. Vibrating surface actuators for active flow control. Proceedings of the SPIE Smart Structures and Materials Symposium, 4698:85–96, 2002.Google Scholar

[252] G. W., Housner, L. A., Bergman, T. K., Caughey, A. G., Chassiakos, R. O., Claus, S. F., Masri, R. E., Skelton, T. T., Soong, B. F., Spencer, and J. T. P., Yao. Structural control: Past, present, and future. Journal of Engineering Mechanics, 123(9):897–971, 1997.Google Scholar

[253] V. G. M., Annamdas and C. K., Soh. Application of electromechanical impedance technique for engineering structures: Review and future issues. Journal of Intelligent Material Systems and Structures, 21(1):41–59, 2010.Google Scholar

[254] D. R., Huston, P. L., Fuhr, T. P., Ambrose and D. A., Barker. Intelligent civil structures -activities in Vermont. Smart Materials and Structures, 3(2):129–139, 1994.Google Scholar

[255] A., Mendez, T. F., Morse, and F., Mendez. Applications of embedded optical fiber sensors in reinforced concrete buildings and structures. Proceedings of the SPIE Fiber Optic Smart Structures and Skins II Symposium, 1170:60–69, 1989.Google Scholar

[256] D. R., Houston, P. L., Fuhr, P. J., Kajensky, and D., Snyder. Concrete beam testing with optical-fiber sensors. In Proceedings of the ASCE Minisymposium on the Nondestructive Testing of Concrete, San Antonio, TX, April 1992.Google Scholar

[257] X., Chen, F., Ansari, and H., Ding. Embedded fiber-optic displacement sensor for concrete elements. Proceedings of the 11th Engineering Mechanics Conference, ASCE, pages 359–364, 1996.Google Scholar

[258] R. M., Measures. Structural sensing with fiber-optic systems. Proceedings of the 11th Engineering Mechanics Conference, ASCE, pages 224–227, 1996.Google Scholar

[259] A., Holst and R., Lessing. Fiber-optic intensity modulated sensors for continuous observation of concrete and rock-fill dams. In Proceedings of the 1st European Conference on Smart Structures and Materials, Glasgow, Scotland, 1992.Google Scholar

[260] P. L., Fuhr and D. R., Huston. Multiplexed fiber optic pressure and vibration sensors for hydroelectric dam monitoring. Smart Materials and Structures, 2(4):260–263, 1993.Google Scholar

[261] P. L., Fuhr, D. R., Huston, P. J., Kajenski, and T. P., Ambrose. Performance and health monitoring of the Stafford Medical Building using embedded sensors. Smart Materials and Structures, 1(1):63–68, 1992.Google Scholar

[262] M., deVries, M., Nasta, V., Bhatia, T., Tran, J., Greene, R. O., Claus and S., Masri. Performance of embedded short-gage-length optical-fiber sensors in a fatigue-loaded reinforced concrete specimen. Smart Materials and Structures, 4(1A):107–113, 1995.Google Scholar

[263] G., Song, H., Gu, and Y-L., Mo. Smart aggregates: Multifunctional sensors for concrete structures – a tutorial and a review. Smart Materials and Structures, 17(3):033001, 2008.

[264] S., Aizawa, T., Kakizawa, and M., Higasino. Case studies of smart materials for civil structures. Smart Materials and Structures, 7(5):617–626, 1998.Google Scholar

[265] S., Zhou, Z., Chaudhry, C. A., Rogers, and R., Quattrone. Review of embedded particle tagging methods for nondestructive evaluation (NDE) of composite materials and structures. Proceedings of the SPIE Smart Structures and Materials Symposium, 2444:39–52, 1995.Google Scholar

[266] S. J., Dyke. Recent R & D activities on smart sensors and monitoring in the US. In Proceedings of US-Korea Joint Seminar/Workshop on Smart Structures Technologies, Coordinators: C. B., Yun and L. A., Bergman, Seoul, Korea, 2-1 September 2004.Google Scholar

[267] K. P., Chong, N. J., Carino, and G., Washer. Health monitoring of civil infrastructures. Smart Materials and Structures, 12(3):483–193, 2003.Google Scholar

[268] R. C., Tennyson, A. A., Mufti, S., Rizkalla, G., Tadros, and B., Benmokrane. Structural health monitoring of innovative bridges in Canada with fiber-optic sensors. Smart Materials and Structures, 10(3):560–573, 2001.Google Scholar

[269] D., Wang, J., Liu, D., Zhou, and S., Huang. Using PVDF piezoelectric film sensors for in-situ measurement of stayed-cable tension of cable-stayed bridges. Smart Materials and Structures, 8(5):554–559, 1999.Google Scholar

[270] W. H., Liao, D. H., Wang, and S. L., Huang. Wireless monitoring of cable tension of cable-stayed bridges using PVDF piezoelectric films. Journal of Intelligent Material Systems and Structures, 12(5):331–339, May 2001.Google Scholar

[271] R., Betti and R. B., Testa. Vibration and damage control for long-span bridges. Smart Materials and Structures, 4(1A):91–100, 1995.Google Scholar

[272] T. P., Ambrose, D. R., Houston, P. L., Fuhr, E. A., Devino, and M. P., Werner. Shoring systems for construction-load monitoring. Smart Materials and Structures, 3(1):26–34, 1994.Google Scholar

[273] C. K., Soh, K. K. H., Tseng, S., Bhalla, and A., Gupta. Performance of smart piezoceramic patches in health monitoring of a RC bridge. Smart Materials and Structures, 9(4):533–542, 2000.Google Scholar

[274] D. J., Pines and P. A., Lovell. Conceptual framework of a remote wireless health-monitoring system for large civil structures. Smart Materials and Structures, 7(5):627–636, 1998.Google Scholar

[275] Y., Fujino. Vibration and control of long-span bridges. Advances in Structural Dynamics, Edited by J. M., Ko and Y. L., Xu, volume 1, pages 55–66. Elsevier Science Ltd., Oxford (UK), 2000.Google Scholar

[276] S., Nagarajaiah, B. F., Spencer, and J., Yang. Recent advances in control of civil infrastructures in USA. In C. B., Yun and L. A., Bergman, editors, Proceedings of US-Korea Joint Seminar/Workshop on Smart Structures Technologies, Seoul, South Korea, 2-4 September 2004.Google Scholar

[277] F., Gordaninejad, M., Saiidi, B. C., Hansen, E. O., Ericksen, and F. K., Chang. Magneto-rheological fluid dampers for control of bridges. Journal of Intelligent Material Systems and Structures, 13(2):167–180, 2002.Google Scholar

[278] A., Baz. Optimal deflection control of multi-segment traversing beams. Smart Materials and Structures, 4(2):75–82, 1995.Google Scholar

[279] M., Sakamoto and T., Kobori. Research, development and practical applications on structural response control of buildings. Smart Materials and Structures, 4(1A):58–74, 1995.Google Scholar

[280] A. K., Agrawal and J. N., Yang. Optimal placement of passive dampers on seismic and wind-excited buildings using combinatorial optimization. Journal of Intelligent Material Systems and Structures, 10(12):997–1014, 1999.Google Scholar

[281] G., Leitmann and E., Reithmeier. Semi-active control of a vibrating system by means of electrorheological fluids. Dynamics and Control, 3(1):7–33,1993.Google Scholar

[282] H. P., Gavin. Design method for high-force electrorheological dampers. Smart Material and Structures, 7(5):664–673, 1998.Google Scholar

[283] S. J., Dyke, B. F., Spencer Jr., M. K., Sain, and J. D., Carlson. An experimental study of MR dampers for seismic protection. Smart Materials and Structures, 7(5):693–703, 1998.Google Scholar

[284] J. D., Carlson and B. F., Spencer Jr., Magneto-rheological fluid dampers for semi-active seismic control. Proceedings of the 3rd International Conference on Motion and Vibration Control, pages 35–40, 1996.Google Scholar

[285] I., Nishimura, A. M., Abdel-Ghaffar, S. F., Masri, R. K., Miller, J. L., Beck, T. K., Caughey, and W. D., Iwan. An experimental study of the active control of a building model. Journal of Intelligent Material Systems and Structures, 3(1):134–165, 1992.Google Scholar

[286] I. D., Aiken, D. K., Nims, A. S., Whittaker, and J. M., Kelly. Testing of passive energy dissipation systems. Earthquake Spectra, 9(3):335–370, 1993.Google Scholar

[287] P. R., Witting and F. A., Cozzarelli. Technical Report NCEER-92-0013. National Center for Earthquake Engineering Research, State University of New York, Buffalo, 1992.Google Scholar

[288] P. R., Witting and F. A., Cozzarelli. Design and seismic testing of shape memory structural dampers. Proceedings of Damping-93, San Francisco, CA, 1993.Google Scholar

[289] Y., Zhang and N. D., Sims. Milling workpiece chatter avoidance using piezoelectric active damping: A feasibility study. Smart Materials and Structures, 14(6):N65–N70, December 2005.Google Scholar

[290] G. P., O'Neal, B. K., Min, Z. J., Pasek, and Y., Koren. Integrated structural/control design of micro-positioner for boring bar tool insert. Journal of Intelligent Material Systems and Structures, 12(9):617–627, September 2001.Google Scholar

[291] A., Milecki and D., Sedziak. The use of magnetorheological fluid dampers to reduce servo drive velocity jumps due to load changes. Journal of Intelligent Material Systems and Structures, 16(6):501–510, June 2005.Google Scholar

[292] K. S., Kim, S. B., Choi, and M. S., Cho. Vibration control of a wire cut discharge machine using ER brake actuator. Journal of Intelligent Material Systems and Structures, 13(10): 621–624, October 2002.Google Scholar

[293] A. R., Johnson and W., Bullough. Design and control considerations for a high-speed electrorheological traversing mechanism. Journal of Intelligent Material Systems and Structures, 13(11):725–735, 2002.Google Scholar

[294] R. S., Fielder, C., Boyd, M., Palmer, and O., Eriksen. Real time pressure monitoring of dynamic control during paper mill operation using fiber optic pressure sensors. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171:61710B-1–61710B-11, 2006.Google Scholar

[295] R., Neugebauer, M., Hoffmann, H.-J., Roscher, S., Scheffler and K., Wolf. Control of sheet-metal forming processes with piezoactuators in smart structures. Proceedings of the SPIESmart StructuresandMaterials Symposium, 6171:61710E-1–61710E-9, 2006.Google Scholar

[296] M., Yang, K., Manabe, and H., Nishimura. Development of an intelligent tool system for flexible L-bending process of metal sheets. Smart Materials and Structures, 7(4): 530–536, 1998.Google Scholar

[297] D. Y., Li. Exploration of Ti-Ni shape memory alloy for potential application in a new area: Tribological engineering. Smart Materials and Structures, 9(5):717–726, 2000.Google Scholar

[298] W. I., Kordonski and D., Golini. Fundamentals of magnetorheological fluid utilization in high precision finishing. Journal of Intelligent Material Systems and Structures, 10(9): 683–689, 2000.Google Scholar

[299] K., Shimada, H., Nishida, and Y., Akagami. Electrorheological rotating disk clutch mechanism under AC electric field: II. Efficiency metrics. Journal of Intelligent Material Systems and Structures, 13(7-8):497–502, July 2002.Google Scholar

[300] M., Nakano. A novel semi-active control of automotive suspension using an electro-rheological shock absorber. Proceedings of the 5th International Conference on ER Fluids, MR Suspensions and Associated Technologies, SAE Technical Papers Series 920275, 1995.Google Scholar

[301] N. K., Petek, D. J., Romstadt, M. B., Lizell, and T. R., Weyenberg. Demonstration of an automotive semi-active suspension using electrorheological fluid. SAE Transactions, 104(6):987–992, 1995.Google Scholar

[302] M. S., Suh and M. S., Yeo. Development of semi-active suspension systems using ER fluids for the wheeled vehicle. Journal of Intelligent Material Systems and Structures, 10(9):743–747, 1999.Google Scholar

[303] J. D., Carlson, D. M., Catanzarite, and K. A., St. Clair. Commercial magneto-rheological fluid devices. Proceedings of the 5th International Conference on ER Fluids, MR Fluids and Associated Technologies, World Scientific, Singapore, pages 20–28, 1995.Google Scholar

[304] H. S., Lee and S. B., Choi. Control and response characteristics of a magneto-rheological fluid damper for passenger vehicles. Journal of Intelligent Material Systems and Structures, 11(1):80–87, 2000.Google Scholar

[305] Q.-H., Nguyen and S.-B., Choi. Optimal design of MR shock absorber and application to vehicle suspension. Smart Materials and Structures, 18(3):035012, 2009.Google Scholar

[306] M. S., Yeo, H. G., Lee, and M. C., Kim. A study on the performance estimation of semi-active suspension system considering the response time of elelctro-rheological fluid. Journal of Intelligent Material Systems and Structures, 13(7):485–489, July 2002.Google Scholar

[307] Y., Shen, M. F., Golnaraghi, and G. R., Heppler. Analytical and experimental study of the response of a suspension system with a magnetorheological damper. Journal of Intelligent Material Systems and Structures, 16(2):135–147, 2005.Google Scholar

[308] M., Yu, C. R., Liao, W. M., Chen, and S. L., Huang. Study on MR semi-active suspension system and its road testing. Journal of Intelligent Material Systems and Structures, 17 (8-9):801–806, 2006.Google Scholar

[309] Y., Zhu, J., Qiu, J., Tani, S., Suzuki, Y., Urushiyama, and Y., Hontani. Vibration control of a steering wheel using piezoelectric actuators. Journal of Intelligent Material Systems and Structures, 10(2):92–99, 1999.Google Scholar

[310] U., Lee, D., Kim, N., Hur, and D., Jeon. Design analysis and experimental evaluation of an MR fluid clutch. Journal of Intelligent Material Systems and Structures, 10(9): 701–707, 1999.Google Scholar

[311] Y. K., Ahn, B. S., Yang, M., Ahmadian, and S., Morishita. A small-sized variable-damping mount using magnetorheological fluid. Journal of Intelligent Material Systems and Structures, 16(2):127–133, 2005.Google Scholar

[312] G. J., Stelzer, M. J., Schulz, J., Kim, and R. J., Allemang. A magnetorheological semi-active isolator to reduce noise and vibration transmissibility in automobiles. Journal of Intelligent Material Systems and Structures, 14(12):743–765, December 2003.Google Scholar

[313] S., Sassi, K., Cherif, L., Mezghani, M., Thomas, and A., Kotrane. An innovative magneto-rheological damper for auotmotive suspension: From design to experimental characterization. Smart Materials and Structures, 14(4):811–822, 2005.Google Scholar

[314] D. F., Leroy, R., Marjoram, and K. St, Clair. Giving truck drivers a smooth ride. Machine Design, 71(20):7–11, 1999.Google Scholar

[315] Anon, . Magnetic fluid shocks. In Mechanical Engineering Magazine, 32-3. ASME, 1999.Google Scholar

[316] Y. M., Han, M. H., Nam, S. S., Han, H. G., Lee, and S. B., Choi. Vibration control evaluation of a commercial vehicle featuring MR seat damper. Journal of Intelligent Material Systems and Structures, 13(9):575–579, 2002.Google Scholar

[317] T., Ushijima and S., Kumakawa. Active engine mount with piezo-actuator for vibration control, SAE Paper No. 93–0201, 1993.

[318] J. L., Sproston, M. J., Stanway, M. J., Prendergast, J. R., Case, and C. E., Wilne. A prototype engine mount using electrorheological fluids. Journal of Intelligent Materials and Smart Structures, 4(3):418–419, July 1993.Google Scholar

[319] H., Manz and E., Breitbach. Application of smart materials in automotive structures. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:197–204, 2001.Google Scholar

[320] M., Giovanardi, K., Schmidt, and H., Kunze. Narrow and broad band sound reduction in automotive panels. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332: 205–216, 2001.Google Scholar

[321] V. A., Neelakantan and G. N., Washington. Effect of centrifugal force on magneto-rheological fluid clutches. In Proceedings of the ASME International Mechanical Engineering Congress and Exposition (IMECE 02), New Orleans, LA, November 2002.Google Scholar

[322] A. M., Rov, V. A., Neelakantan, and G. N., Washington, Design and Development of Passive and Active Force Feedback Systems Using Magnetorheological Fluids, Paper No. IMECE2003-43210, Proceedings of ASME 2003 International Mechanical Engineering Congress and Exposition Aerospace, Washington, DC, USA, November 15-21, 2003, pp. 333–339.Google Scholar

[323] V. A., Neelakantan and G. N., Washington. Modeling and reduction of centrifuging in magnetorheological (MR) transmission clutches for automotive applications. Journal of Intelligent Material Systems and Structures, 16(9):703–711, September 2005.Google Scholar

[324] V. A., Neelakantan, G. N., Washington, and N. K., Bucknor. Two-stage actuation system using DC motors and piezoelectric actuators for controllable and automotive brakes and clutches. Proceedings of the SPIE Smart Structures and Materials Symposium, 5762:275–286, 2005.Google Scholar

[325] F., Boecking and B., Sagg. Piezo actuators: A technology prevails with injection valves for combustion engines. Proceedings of the 10th International Conference on New Actuators, pages 171–176, 2006.Google Scholar

[326] M. S., Senousy, F. X., Li, D., Mumford, M., Gadala, and R., Rajapakse. Thermo-electro-mechanical performance of piezoelectric stack actuators for fuel-injector applications. Journal of Intelligent Material Systems and Structures, 20(4):387–399, 2009.Google Scholar

[327] B., Weinberg, J., Nikitczuk, A., Fisch, and C., Mavroidis. Development of electro-rheological fluidic resistive actuators for haptic vehicular instrument controls. Smart Materials and Structures, 14(6):1107–1119, December 2005.Google Scholar

[328] F., Ahmadkhanlou, G. N., Washington, S. E., Bechtel, and Y., Wang. Magnetorheological fluid based automotive steer-by-wire systems. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171:61710I-1–61710I-12, 2006.Google Scholar

[329] K., Kageyama, I., Kimpara, T., Suzuki, I., Ohsawa, H., Murayama, and K., Ito. Smart marine structures: An approach to the monitoring of ship structures with fiber-optic sensors. Smart Materials and Structures, 7(4):472–478, August 1998.Google Scholar

[330] T. R., Quackenbush, A. J., Bilanin, and B. F., Carpenter. Test results for an SMA-actuated vortex wake control system. Proceedings of the SPIE Smart Structures and Materials Symposium, 3674:84–94, 1999.Google Scholar

[331] O. K., Rediniotis, L. N., Wilson, D. C., Lagoudas, and M. M., Khan. Development of a shape-memory-alloy actuated biomimetic hydrofoil. Journal of Intelligent Material Systems and Structures, 13(1):35–49, 2002.Google Scholar

[332] S., Balakrishnan and C., Niezrecki. Investigation of THUNDER actuators as underwater propulsors. Journal of Intelligent Material Systems and Structures, 13(4):193–207, 2002.Google Scholar

[333] J. H., Kim, B. W., Kang, K. M., Park, S. B., Choi, and K. S., Kim. MR inserts for shock wave reduction in warship structures. Journal of Intelligent Material Systems and Structures, 13(10):661–665, October 2002.Google Scholar

[334] Y., Bar-Cohen, T., Xue, M., Shahinpoor, J., Simpson, and J., Smith. Flexible, low-mass robotic arm actuated by electroactive polymers and operated equivalently to human arm and hand. In Proceedings of the 3rd Conference and Exposition, Demonstration on Robotics for Challenging Environments, Albuquerque, NM, pages 15–21, April 1998.Google Scholar

[335] C. P., Chou and B., Hannaford. Measurement and modeling of Mckibben pneumatic artificial muscles. IEEE Transactions on Robotics and Automation, 12(1):90–102,1996.Google Scholar

[336] K., DeLaurentis and C., Mavroidis. Mechanical design of a shape memory alloy actuated prosthetic hand. Technol. Health Care, 10(2):91–106, 2002.Google Scholar

[337] J. D., Carlson, W., Matthis, and J. R., Toscano. Smart prosthetics based on magnetorhe-ological fluids. Proceedings of the SPIE Smart Structures and Materials Symposium, 4332:308–316, 2001.Google Scholar

[338] J. L., Zite, F., Ahmadkhanlou, V. A., Neelakantan, and G. N., Washington. A magne-torheological fluid-based orthopedic active knee brace. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171:61710H-1–61710H-9, 2006.Google Scholar

[339] A., Price, A., Edgerton, C., Cocaud, H., Naguib, and A., Jnifene. A study on the thermo-mechanical properties of shape memory alloy-based actuators used in artificial limbs. Journal of Intelligent Material Systems and Structures, 18(1):11–18, January 2007.Google Scholar

[340] E., Kottke, L. D., Partridge, and M., Shahinpoor. Bio-potential neural activation of artificial muscles. Journal of Intelligent Material Systems and Structures, 18(2):103–109, February 2007.Google Scholar

[341] M. J., Lee, S. H., Jung, G. S., Kim, I., Moon, S., Lee, and M. S., Mun. Actuation of the artificial muscle based on ionic polymer metal composite by electromyography (EMG) signals. Journal of Intelligent Material Systems and Structures, 18(2):165–170, February 2007.Google Scholar

[342] T., Hirai. Electrically active non-ionic artificial muscle. Journal of Intelligent Material Systems and Structures, 18(2):117–122, February 2007.Google Scholar

[343] T., Okamoto, O., Kitani, and T., Totii. Robotic transplanting of orchid in mericlon culture. Journal of the Society of Agricultural Machinery, Japan, 55:103–110, 1993.Google Scholar

[344] S., Chonan, Z. W., Jiang, and M., Koseki. Soft-handling gripper driven by piezoceramic bimorph strips. Smart Materials and Structures, 5(4):407–414, 1996.Google Scholar

[345] A. D., Price, A., Jnifene, and H. E., Naguib. Design and control of a shape memory alloy based dexterous robot hand. Smart Materials and Structures, 16(4):1401–1414, August 2007.Google Scholar

[346] S. J., Lee, M. J., Han, S. J., Kim, J. Y., Jho, H. Y., Lee, and Y. H., Kim. A new fabrication method for IPMC actuators and application to artificial fingers. Smart Materials and Structures, 15(5):1217–1224, 2006.Google Scholar

[347] N., Thayer and S., Priya. Design and implementation of a dextrous anthropomorphic robotic typing (DART) hand. Smart Materials and Structures, 20(3):035010, 2011.Google Scholar

[348] T. B., Wolfe, M. G., Faulkner, and J., Wolfaardt. Development of a shape memory alloy actuator for a robotic eye prosthesis. Smart Materials and Structures, 14(4):759–768, August 2005.Google Scholar

[349] Y., Luo, T., Okuyama, T., Takagi, T., Kamiyama, K., Nishi, and T., Yambe. Thermal control of shape memory alloy artificial anal sphincters for complete implantation. Smart Materials and Structures, 14(1):29–35, February 2005.Google Scholar

[350] S., Chonan, Z. W., Jiang, J., Tani, S., Orikasa, Y., Tanahashi, T., Takagi, M., Tanaka, and J., Tanikawa. Development of an artificial urethral valve using SMA actuators. Smart Materials and Structures, 6(4):410–414, 1997.Google Scholar

[351] M., Tanaka, F., Wang, K., Abe, Y., Arai, H., Nakagawa, and S., Chonan. A closed-loop transcutaneous power transmission system with thermal control for artificial urethral valve driven by SMA actuator. Journal of Intelligent Material Systems and Structures, 17(8-9):779–786, 2006.Google Scholar

[352] N., Saga. Development of tendon-driven system using a pneumatic balloon. Journal of Intelligent Material Systems and Structures, 18(2):171–174, February 2007.Google Scholar

[353] S., Dong, K., Lu, J. Q., Sun, and K., Rudolph. Smart rehabilitation devices: Part I. Force tracking control. Journal of Intelligent Material Systems and Structures, 17(6):543–552, 2006.Google Scholar

[354] H., Bose and H. J., Berkemeier. Haptic device working with an electrorheological fluid. Journal of Intelligent Material Systems and Structures, 10(9):714–717,1999.Google Scholar

[355] B., Edinger, M., Frecker, and J., Gardner. Dynamic modeling of an innovative piezoelectric actuator for minimally invasive surgery. Journal of Intelligent Material Systems and Structures, 11(10):765–770, October 2000.Google Scholar

[356] W. M., Rubio, E. C. N., Silva, E. V., Bordatchev, and M. J. F., Zeman. Topology optimized design, microfabrication and characterization of electro-thermally driven microgripper. Journal of Intelligent Material Systems and Structures, 20(6):669–681, 2009.Google Scholar

[357] G. A., Flores, R., Sheng, and J., Liu. Medical applications of magnetorheological fluids: A possible new cancer therapy. Journal of Intelligent Material Systems and Structures, 10(10):708–713, September 1999.Google Scholar

[358] G. A., Flores and J., Liu. Embolization of blood vessels as a cancer therapy using magnetorheological fluids. Journal of Intelligent Material Systems and Structures, 13(10):641–646, October 2002.Google Scholar

[359] M., Tanaka, M., Furubayashi, Y., Tanahashi, and S., Chonan. Development of an active palpation sensor for detecting prostatic cancer and hypertrophy. Smart Materials and Structures, 9(6):878–884, 2000.Google Scholar

[360] F., Wang, M., Tanaka, and S., Chonan. Development of a PVDF piezopolymer sensor for unconstrained in-sleep cardiorespiratory monitoring. Journal of Intelligent Material Systems and Structures, 14(3):185–190, 2003.Google Scholar

[361] S., Sudo, S., Segawa, and T., Honda. Magnetic swimming mechanism in a viscous liquid. Journal of Intelligent Material Systems and Structures, 17(8):729–736, August 2006.Google Scholar

[362] Y., Haga, M., Mizushima, T., Matsunaga, and M., Esashi. Medical and welfare applications of shape memory alloy microcoil actuators. Smart Materials and Structures, 14(5):S266–S272, 2005.Google Scholar

[363] E., Buselli, P., Valdastri, and M., Quirini. Superelastic leg design optimization for an endoscopic capsule with active locomotion. Smart Materials and Structures, 18(1):015001, 2009.Google Scholar

[364] R. L. D., Miranda, C., Zamponi, and E., Quandt. Fabrication of TiNi thin film stents. Smart Materials and Structures, 18(10):104010, 2009.Google Scholar

[365] Nihon Kinzoku Co., Ltd. Japanese Patent Application No. U50-133425, 1975.

[366] J., Haasters, G. V., Salis-Solio, and G., Bensmann. The use of Ni-Ti as an implant material in orthopedics. In Engineering Aspects of Shape Memory Alloys, ed. T.W., Duerig, K. N., Melton, D., Stockel, and C. M., Wayman, Butterworth-Heinemann, pages 426–444, 1990.Google Scholar

[367] R. C. L., Sachdeva and S., Miyazaki. Superelastic Ni-Ti alloys in orthodontics. In Engineering Aspects of Shape Memory Alloys, ed. T. W., Duerig, K. N., Melton, D., Stockel, and C. M., Wayman, Butterworth-Heinemann, pages 452–469,1990.Google Scholar

[368] D. W., Raboud, M. G., Faulkner, and A. W., Lipsett. Superelastic response of NiTi shape memory alloy wires for orthodontic applications. Smart Materials and Structures, 9(5): 684–692, 2000.Google Scholar

[369] S., Fukuyo, E., Sairenji, Y., Suzuki, and K., Suzuki. Shape memory implants. In Engineering Aspects of Shape Memory Alloys, ed. T. W., Duerig, K. N., Melton, D., Stockel, and C. M., Wayman, Butterworth-Heinemann, 1990, pages 470–476, 1990.Google Scholar

[370] J. P., O'Leary, J. E., Nicholson, and R. F., Gatturna. The use of Ni-Ti in the Homer Mammalok. In Engineering Aspects of Shape Memory Alloys, ed. T. W., Duerig, K. N., Melton, D., Stockel, and C. M., Wayman, Butterworth-Heinemann, 1990, pages 477–482, 1990.Google Scholar

[371] J., Stice. The use of superelasticity in guidewires and arthroscopic instrumentation. In Engineering Aspects of Shape Memory Alloys, ed. T. W., Duerig, K. N., Melton, D., Stockel, and C. M., Wayman, Butterworth-Heinemann, 1990, pages 483–487,1990.Google Scholar

[372] C., Song, P. A., Campbell, T. G., Frank, and A., Cuschieri. Thermal modelling of shape memory alloy fixator for medical application. Smart Materials and Structures, 11(2): 312–316, 2002.Google Scholar

[373] M., Shahinpoor and K. J., Kim. Ionic polymer-metal composites: IV. Industrial and medical applications. Smart Materials and Structures, 14(1):197–214, 2005.Google Scholar

[374] H., Kanazawa, T., Tsukimoto, T., Maeno, and A., Miyake. Tribology of ultrasonic motors. Japanese Journal of Tribology, 38:315–324, 1993.Google Scholar

[375] K., Uchino. Piezoelectric ultrasonic motors: Overview. Smart Materials and Structures, 7(3):273–285, June 1998.Google Scholar

[376] K., Uchino. Piezoelectric Actuators and Ultrasonic Motors. Kluwer Academic Publishers, 1997.Google Scholar

[377] S., Dong, S., Cagatay, K., Uchino, and D., Viehland. A ‘center-wobbling’ ultrasonic rotary motor using a metal tube-piezoelectric plate composite stator. Journal of Intelligent Material Systems and Structures, 13(11):749–755, 2002.Google Scholar

[378] S. L., Sharp, J. S. N., Paine, and J. D., Blotter. Design of a linear ultrasonic piezoelectric motor. Journal of Intelligent Material Systems and Structures, 21(10):961–973, 2010.Google Scholar

[379] Y., Tian, H., Yu, Y., Meng, and S., Wen. A prototype of an exercising bicycle based on electrorheological fluids. Journal of Intelligent Material Systems and Structures, 17 (8-9):807–811, 2006.Google Scholar

[380] R. F., Pires, P. H., Nakasone, C. R., de Lima, and C. N., Silva. A miniature bimorph piezoelectrically actuated flow pump. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171:617109-1–617109-12, 2006.Google Scholar

[381] S. C., Lim, J. S., Park, S. B., Choi, and Y. P., Park. Vibration control of a CD-ROM feeding system using electro-rheological mounts. Journal of Intelligent Material Systems and Structures, 12(9):629–637, 2001.Google Scholar

[382] W., Yang, S. Y., Lee, and B. J., You. A piezoelectric actuator with motion-decoupling amplifier for optical disk drives. Smart Materials and Structures, 19(6):065027, 2010.Google Scholar

[383] Y. T., Huang, C. K., Lee, and W. J., Wu. High-powered backlight inverter for LCD-TVs using piezoelectric transformers. Journal of Intelligent Material Systems and Structures, 18(6):601–609, 2007.Google Scholar

[384] G., Washington. Smart aperture antennas. Smart Materials and Structures, 5(6):801–805, 1996.Google Scholar

[385] D. J., Peel, R., Stanway, and W. A., Bullough. Dynamic modelling of an ER vibration damper for vehicle suspension applications. Smart Materials and Structures, 5(5):591–606, 1996.Google Scholar

[386] S., Chonan, M., Tanaka, T., Naruse, and T., Hayase. Development of an electrorheo-logical active buffer for railway vehicles: Estimation of the capacity from prototype performance. Smart Materials and Structures, 13(5):1195–1202, October 2004.Google Scholar

[387] A., Fotoohi, A., Yousefi-Koma, and N., Yasrebi. Active control of train bogies with MR dampers. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171:61710J-1–61710J-9, 2006.Google Scholar

[388] A., Peiffer, S., Storm, A., Röder, R., Maier, and P. G., Frank. Active vibration control for high-speed train bogies. Smart Materials and Structures, 14(1):1–18, February 2005.Google Scholar

[389] W. H., Liao and D. H., Wang. Semiactive vibration control of train suspension systems via magnetorheological dampers. Journal of Intelligent Material Systems and Structures, 14(3):161–172, 2003.Google Scholar

[390] S., Yan, F., Zhang, Z., Qin, and S., Wen. A 3-DOFs mobile robot driven by a piezoelectric actuator. Smart Materials and Structures, 15(1):N7–N13, February 2006.Google Scholar

[391] H., Ashrafiuon, M., Eshraghi, and M. H., Elahinia. Position control of a three-link shape memory alloy actuated robot. Journal of Intelligent Material Systems and Structures, 17(5):381–392, 2006.Google Scholar

[392] J.S., Rastegar and Y., Lifang. A systematic method for the design of piezostack actuator integrated robots for high-speed and precision operation. Journal of Intelligent Material Systems and Structures, 12(12):835–846, 2001.Google Scholar

[393] S., Yan, X., Liu, F., Xu, and J., Wang. A gripper actuated by a pair of differential SMA springs. Journal of Intelligent Material Systems and Structures, 18(5):459–166, 2007.Google Scholar

[394] H. A., Sodano, D. J., Inman, and G., Park. A review of power harvesting from vibration using piezoelectric materials. The Shock and Vibration Digest, 36(3):197–205, 2004.Google Scholar

[395] H. A., Sodano, D. J., Inman, and G., Park. Generation and storage of electricity from power-harvesting devices. Journal of Intelligent Material Systems and Structures, 16(1): 67–75, 2005.Google Scholar

[396] M., Umeda, K., Nakamura, and S., Ueha. Energy-storage characteristics of a piezo-generator using impact-induced vibration. Japanese Journal of Applied Physics, 36(5B):3146–3151, 1997.Google Scholar

[397] N. G., Elvin, A. A., Elvin, and M., Spector. A self-powered mechanical strain energy sensor. Smart Materials and Structures, 10(2):293–299, 2001.Google Scholar

[398] H. A., Sodano, E. A., Magliula, G., Park, and D. J., Inman. Electric power generation from piezoelectric materials. In Proceedings of the 13th International Conference on Adaptive Structures and Technologies, Potsdam, Germany, 7-9 October 2002.Google Scholar

[399] H. A., Sodano, J., Lloyd, and D. J., Inman. An experimental comparison between several active composite actuators for power generation. Smart Materials and Structures, 15(5):1211–1216, October 2006.Google Scholar

[400] R., Amirtharajah and A. P., Chandrakasan. Self-powered signal processing using vibration-based power generation. IEEE Journal of Solid-State Circuits, 33(5):687–695, 1998.Google Scholar

[401] G. K., Ottman, H. F., Hofmann, A. C., Bhatt, and G. A., Lesieutre. Adaptive piezoelectric energy-harvesting circuit for wireless remote power supply. IEEE Transactions on Power Electronics, 17(5):669–676, 2002.Google Scholar

[402] G. K., Ottman, H. F., Hofmann, and G. A., Lesieutre. Optimized piezoelectric energy-harvesting circuit using step-down converter in discontinuous conduction mode. IEEE Transactions on Power Electronics, 18(2):696–703, 2003.Google Scholar

[403] G. A., Lesieutre, H. F., Hofmann, and G. K., Ottman. Electric power generation from piezoelectric materials. In Proceedings of the 13th International Conference on Adaptive Structures and Technologies, Potsdam, Germany, 7-9 October 2002.Google Scholar

[404] J., Kymissis, C., Kendall, J., Paradiso, and N., Gershenfeld. Parasitic power harvesting in shoes. In Proceedings of the 2nd IEEE International Symposium on Wearable Computers, Pittsburgh, PA, pages 132–139, 19-20 October 1997.Google Scholar

[405] K., Nakano, S. J., Elliott, and E., Rustighi. A unified approach to optimal conditions of power harvesting using electromagnetic and piezoelectric transducers. Smart Materials and Structures, 16(4):948–958, August 2007.Google Scholar

[406] J., Rastegar, C., Pereira, and H.-L., Nguyen. Piezoelectric-based power sources for harvesting energy from platforms with low frequency vibration. Proceedings of the SPIE Smart Structures and Materials Symposium, 6171: 617101-1–617101-7, 2006.Google Scholar

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1 - Historical Developments and Potential Applications: Smart Materials and Structures

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