Abstract
This chapter provides a brief overview of working principles, physical properties, constitutive models and the practical applications of a few select active materials as the building blocks of many smart structures. More specifically, the following active materials are discussed in this chapter: piezoelectric and pyroelectric materials, electrorheological and magnetorheological fluids, electrostrictive and magnetostrictive materials, and finally shape memory alloys (SMA). In order not to disturb the focus of the book, only selective but essential materials are reviewed in this chapter. We refer interested readers to cited references and other dedicated books on smart materials and structures (e.g., Srinviasan and MacFarland 2001; Culshaw 1996; Gandhi and Thompson 1992; Banks et al. 1996; Clark et al. 1998; Suleman 2001; Leo 2007; Preumont 2002; Janocha 1999; Tzou and Anderson 1992; Gabert and Tzou 2001), vibration control (Moheimani and Fleming 2006; Gawronski 2004; Tao and Kokotovic 1996), sensors and actuators (Busch-Vishniac 1999) and piezoelectric (Yang 2005; Moheimani and Fleming 2006; Ballas 2007).
While studying these and other active materials, piezoelectric materials stand out as the most commonly used active materials in many mechatronic and vibration-control systems, the areas that are of great importance to the subject of this book. Consequently, two separate chapters are dedicated to these materials and present, in much more detail, the concept of piezoelectricity and constitutive models of piezoelectric materials along with their practical applications as sensors and actuators (Chap. 6 and 7).
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Notes
- 1.
As mentioned earlier, an extensive discussion about piezoelectricity and piezoelectric materials will be given in the next two chapters, and only a brief overview is presented here.
- 2.
In order to maintain the focus of this chapter, we limit the derivations of the constitutive models to one-dimensional cases for all the active materials considered in this chapter. Otherwise, the required mathematical preliminaries and notations that must be covered for general three-dimensional medium will be very extensive and outside of the scope of this book.
- 3.
Most parts of this section may have come directly from our book chapter on the subject matter (Jalili and Esmailzadeh 2005).
References
Austin SA (1993) The vibration damping effect of an electrorheological fluid. ASME J Vib Acoust 115(1):136–140
Ballas RG (2007) Piezoelectric multilayer beam bending actuators: Static and dynamic behavior and aspects of sensor integration, Springer
Bar-Cohen Y, Sherrit S, Lih SS (2001) Characterization of the electromechanical properties of EAP materials. SPIE’s eighth annual international symposium on smart structures and materials, pp 4329–4343
Bashash S, Vora K, Jalili N, Evans PG, Dapino MJ, Slaughter J (2008c) Modeling major and minor hysteresis loops in Galfenol-driven micro-positioning actuators using a memory-based hysteresis framework. 2008 ASME Dynamic Systems and Control Conference (DSCC’08). Ann Arbor, MI, October 20–22
Batt RJ (1981) Application of pyroelectric devices for power and reflectance measurements. Ferroelectrics 34:11–14, Gordon and Breach, New York
Berlincourt D (1981) Piezoelectric ceramics: Characteristics and applications. J Acoust Soc Am. 70:1586–1595
Busch-Vishniac IJ (1999) Electromechanical sensors and actuators, Springer, New York
Cady WG (1964) Piezoelectricity, Dover, New York
Carlson JD (1994) The promise of controllable fluids. In: Borgmann H, Lenz K (eds) Actuator 94, fourth international conference on new actuators, Axon Technologies Consult GmbH, pp 266–270
Carlson JD, Sprecher AF, Conrad H (eds) (1989) Elecrorheological fluids. Technomic, Lancaster, PA
Chai WK, Tzou HS (2002) Constitutive modeling of controllable electrostrictive thin shell structures. ASME international mechanical engineering congress, Symposium on advances of solids and structures. New Orleans, LA, November 17–22
Chen W, Lupascu DC, Rodel J, Lynch CS (2001) Short crack R-curves in ferroelectric and electrostrictive PLZT. J Am Ceram Soc 84(3):593–597
Choi SB (1999) Vibration control of flexible structures using ER dampers. ASME J Dyn Syst Measur Control 121:134–138
Culshaw (1996) Smart structures and materials, Artech House
Curie J, Curie P (1880) Développement, par pression, de l’électricité polaire dans les cristaux hémièdres à faces inclines. Comptes Rendus de l’Académie des Sciences, Paris 91:294–295
Damjanovic D (1998) Ferroelectric, dielectric and piezoelectric properties of ferroelectric thin films and ceramics. Rep Prog Phys 61:1267–1324
DeSimone A, James RD (2002) A constrained theory of magnetoelasticity. J Mech Phys Solids 50:283–320
Dimarogonas-Andrew D, Kollias A (1993) Smart electrorheological fluid dynamic vibration absorber. Intell Struct Mater Vib ASME Des Div 58:7–15
Duclos TG (1988) Design of devices using electrorheological fluids. Future Transp Techn Conf Exp SAE Paper 881134, San Francisco, CA, pp 8–11
Dyer PE, Srinivasan R (1989) Pyroelectric detection of ultraviolet laser ablation products from polymers. J Appl Phys 66:2608–2611
Galvagni J, Rawal B (1991) A comparison of piezoelectric and electrostrictive actuator stacks. SPIE Adapt Adapt Opt Comp 1543:296–300
Gawronski WK (2004) Advanced structural dynamics and active control of structures, Springer, New York
Ginder JM, Ceccio SL (1995) The effect of electrical transients on the shear stresses in electrorheological fluids. J Rheol 39(1):211–234
Hofmann G, Walther L, Schieferdecker J, Neumann N, Norkus V, Krauss M, Budzier H (1991) Construction, properties and application of pyroelectric single-element detectors and 128-element CCD linear arrays. Sensor Actuator 25–27:413–416
Hu YT, Yang JS, Jiang Q (2000) Wave propagation in electrostrictive materials under biasing fields. IEEE Ultrason Symp 7803:6365
Hu YT, Yang JS, Jiang Q (2004) Wave propagation in electrostrictive materials under biased fields. Acta Mechancia Solida Sinica 17(3) ISSN 0894–9166
Hussain T, Baig AM, Saadawi TN, Ahmed SA (1995) Infrared pyroelectric sensor for detection of vehicle traffic using digital signal processing techniques. IEEE Trans Veh TEchnol 44:683–688
Jalili N (2001a) An infinite dimensional distributed base controller for regulation of flexible robot arms. ASME J Dyn Sys, Measur Cont 123(4):712–719
Jalili N, Wagner J, Dadfarnia M (2003) A piezoelectric driven ratchet actuator mechanism with application to automotive engine valves. Int J Mechatron. 13:933–956.
Jalili N (2003) Nanotube-based actuator and sensor paradigm: conceptual design and challenges. Proceedings of 2003 ASME international mechanical engineering congress and exposition, Washington, DC
Jalili N, Esmailzadeh E (2005) Vibration control, chapter 23 of the vibration and shock handbook, CRC Press LLC, ISBN/ISSN: 0-84931580, 23:1047–1092
Jiang Q, Kuang ZB (2004) Stress analysis in two dimensional electrostrictive material with an elliptic rigid conductor. Eur J Mech A/Solids 23:945–956
Kellogg RA, Russell AM, Lograsso TA, Flatau AB, Clark AE, Wun-Fogle M (2004) Tensile properties of magnetostrictive iron-gallium alloys. Acta Materialia 52:5043–5050
Lang SB (1982) Sourcebook of pyroelectricity. Gordon and Breach, New York
Lee CJ et al (1999) Synthesis of uniformly distributed carbon nanotubes on a large area of Si substrates by thermal chemical vapor deposition. Appl Phys Lett 75:1721
Leo DJ (2007) Smart material systems: analysis, design and control. Wiley, New York
Mele EJ, Kral P (2002) Electric polarization of heteropolar nanotubes as a geometric phase. Phys Rev Lett 88:568031–568034
Mindlin RD (1961) On the equations of motion of piezoelectric crystals. Problems of Continuum Mechanics, NI Muskhelishvili 70th Birthday Vol, SIAM Philadelphia, 70:282–290
Moheimani SOR, Fleming AJ (2006) Piezoelectric transducers for vibration control and damping, Springer, New York
Munch WV, Thiemann U (1991) Pyroelectric detector array with PVDF on silicon integrated circuit. Sensor Actuator 25–27:167–172
Petek NK, Romstadt DL, Lizell MB, Weyenberg TR (1995) Demonstration of an automotive semi-active suspension using electro-rheological fluid. SAE Paper No. 950586
Piquette JC, Forsythe SE (1998) Generalized material model for lead magnesium niobate (PMN) and an associated electromechanical equivalent circuit. J Acoust Soc Am 104
Porter SG (1981) A brief guide to pyroelectricity. Gordon and Breach, New York
Preumont A (2002) Vibration control of active structures: An introduction, 2nd edn. Kluwer Academic Publishers, Dordrecht
Ren W, Masys AJ, Yang G, Mukherjee BK (2002) Nonlinear strain and DC bias induced piezoelectric behavior of electrostrictive lead magnesium niobate-lead titanate ceramics under high electric fields. J Phys D, Appl Phys 35:1550–1554
Salehi-Khojin A, Jalili N (2008a) A comprehensive model for load transfer in nanotube reinforced piezoelectric polymeric composites subjected to electro-thermo-mechanical loadings. J Composites Part B Eng 39(6):986–998
Salehi-Khojin A, Hosseini MR and Jalili N (2009a) Underlying mechanics of active nanocomposites with tunable properties. Composites Sci Technol 69:545–552
Spencer BF, Yang G, Carlson JD, Sain MK (1998) Smart dampers for seismic protection of structures: A full-scale study. Proceedings of 2nd world conference on structure control, Kyoto, Japan, June 28–July 1
Suleman (2001) Smart structures: Applications and related technologies, Edited, Springer, New York
Takagi T (1996) Recent research on intelligent materials. J Intell Mater Syst Struct 7:346–357
Tao G, Kokotovic PV (1996) Adaptive control of systems with actuator and sensor nonlinearities, Wiley, New Jersey
Tzou HS, Anderson GL (eds) (1992) Intelligent structural systems, Kluwer Academic Publishers
Tzou HS, Ye R (1996) Pyroelectric and thermal strain effects in piezoelectric (PVDF and PZT) devices. Mech Syst Signal Pr 10:459–479
Tzou HS, Chai WK, Arnold SM (2003) Micro-structronics and control of hybrid electrostrictive/piezoelectric thin shells. ASME International Mechanical Engineering Congress, Symposium on Adaptive Structures and Material Systems. Washington DC, November 16–21
Tzou HS, Lee HJ, Arnold SM (2004) Smart materials, precision sensors/actuators, smart structures, and structronic systems. Mech of Adv Mat Struc 11:367–393
Wang KW, Kim YS, Shea DB (1994) Structural vibration control via electrorheological-fluid-based actuators with adaptive viscous and frictional damping. J Sound Vib 177(2):227–237
Weiss KD, Carlson JD, Nixon DA (1994) Viscoelastic properties of magneto- and electro-rheological fluids. J Intell Mater Syst Struct 5:772–775
Wun-Fogle M, Restorff JB, Clark AE (2006) Magnetomechanical coupling in stress-annealed Fe–Ga (Galfenol) alloys. IEEE Trans Magn 42(10)
Wun-Fogle M, Restorff JB, Clark AE, Dreyer E, Summers E (2005) Stress annealing of Fe–Ga transduction alloys for operation under tension and compression. J Appl Phys 97:10M301
Yang J (2005) An Introduction to the theory of piezoelectricity, Springer, Berlin, Heidelberg
Author information
Authors and Affiliations
Corresponding author
Rights and permissions
Copyright information
© 2010 Springer Science+Business Media, LLC
About this chapter
Cite this chapter
Jalili, N. (2010). An Overview of Active Materials Utilized in Smart Structures. In: Piezoelectric-Based Vibration Control. Springer, Boston, MA. https://doi.org/10.1007/978-1-4419-0070-8_5
Download citation
DOI: https://doi.org/10.1007/978-1-4419-0070-8_5
Published:
Publisher Name: Springer, Boston, MA
Print ISBN: 978-1-4419-0069-2
Online ISBN: 978-1-4419-0070-8
eBook Packages: EngineeringEngineering (R0)