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El. knyga: Vibration of Piezoelectric Crystal Plates [World Scientific e-book]

(Univ Of Nebraska-lincoln, Usa)
  • Formatas: 432 pages
  • Išleidimo metai: 18-Sep-2013
  • Leidėjas: World Scientific Publishing Co Pte Ltd
  • ISBN-13: 9789814449854
Kitos knygos pagal šią temą:
  • World Scientific e-book
  • Kaina: 148,76 €*
  • * this price gives unlimited concurrent access for unlimited time
  • Formatas: 432 pages
  • Išleidimo metai: 18-Sep-2013
  • Leidėjas: World Scientific Publishing Co Pte Ltd
  • ISBN-13: 9789814449854
Kitos knygos pagal šią temą:
The first contemporary text specializing on the dynamic problems of piezoelectric crystal plates for resonant acoustic wave devices (such as resonators, filters, and sensors) since H F Tiersten's publication in 1969. This book provides an up-to-date, systematic and comprehensive presentation of theoretical results on waves and vibrations in quartz crystal plates. It expounds on the application of the theories of elasticity and piezoelectricity in acoustic wave devices made from crystal plates through a coverage spanning from classical results on acoustic wave resonators, up to present-day applications in acoustic wave sensors.This text begins with the exposition of the simplest thickness modes and various frequency effects in them due to electrodes, mass loading, contact with fluids, air gaps, etc., and continues on to the more complicated shear-horizontal modes, as well as straight-crested modes varying along the digonal axis of rotated Y-cut quartz. Modes varying in both of the in-plane directions of crystal plates are also addressed.The analysis within are based on the three-dimensional theories of piezoelectricity and anisotropic elasticity with various approximations when needed. Both free vibration modes (stationary waves) and propagating waves are studied in this text. Forced vibration is also treated in a few places.This book is intended to serve as an informative reference to personnel who employ piezoelectric crystal plates in the course of their profession.
Preface v
Chapter 1 Theory of Piezoelectricity
1(36)
1.1 Basic Equations
1(5)
1.2 Free Vibration Eigenvalue Problem
6(7)
1.3 Inertial Effect of a Mass Layer: Perturbation Integral
13(5)
1.4 Effect of Mass Layer Stiffness: Perturbation Integral
18(6)
1.5 Frequency Perturbation Due to Contact with a Fluid
24(3)
1.6 Quartz and Langasite
27(4)
1.7 Lithium Niobate and Lithium Tantalate
31(2)
1.8 Polarized Ceramics and Crystals in Class 6mm
33(4)
Chapter 2 Thickness Modes in Plates: Elastic Analysis
37(68)
2.1 Equations of Anisotropic Elasticity
37(3)
2.2 Thickness Modes in a Quartz Plate
40(4)
2.3 Inertial Effect of a Mass Layer: Sauerbrey Equation
44(1)
2.4 Inertial Effect of a Mass Layer: Perturbation
45(1)
2.5 Inertial Effect of a Mass Layer: Differential Equation
45(2)
2.6 Plate with Asymmetric Mass Layers
47(4)
2.7 Plate in Contact with a Fluid: Differential Equation
51(3)
2.8 Plate in Contact with a Fluid: Perturbation
54(1)
2.9 Plate with Particles
55(8)
2.10 Plate with an Array of Rods in Extension
63(9)
2.11 Plate with an Array of Beams in Bending
72(8)
2.12 Plate with Beams: Effect of Couple Stress
80(16)
2.13 Plate with an Inhomogeneous Layer of Finite Thickness
96(9)
Chapter 3 Thickness Modes in Plates: Piezoelectric Analysis
105(68)
3.1 Unelectroded Plate
105(3)
3.2 Thickness Field Excitation
108(5)
3.3 Lateral Field Excitation
113(1)
3.4 Plate with Separated Electrodes
114(6)
3.5 Effect of Electrode Inertia
120(3)
3.6 Imperfectly Bonded Electrodes
123(8)
3.7 Effect of Electrode Shear Stiffness
131(7)
3.8 Plate in Contact with a Fluid under a Separated Electrode
138(9)
3.9 Plate in Contact with a Fluid: Lateral Field Excitation
147(9)
3.10 Plate with Surface Load Described by Acoustic Impedance
156(3)
3.11 Transient Thickness-shear Vibration
159(14)
Chapter 4 Shear-horizontal Waves in Unbounded Plates
173(60)
4.1 Governing Equations
173(1)
4.2 Face-shear Wave
174(1)
4.3 Thickness-twist Wave
175(4)
4.4 Symmetric Mass Layers
179(4)
4.5 Partial Mass Layers and Bechmann's Number
183(2)
4.6 Asymmetric Mass Layers
185(5)
4.7 Imperfectly Bonded Mass Layer
190(6)
4.8 Mass Layer Stiffness
196(4)
4.9 Thick Mass Layer
200(8)
4.10 Plate on a Substrate
208(7)
4.11 Plate in Contact with a Fluid
215(9)
4.12 Effect of Piezoelectric Coupling
224(9)
Chapter 5 Shear-horizontal Vibrations of Finite Plates
233(86)
5.1 Plate with Tilted Edges
233(4)
5.2 Unelectroded Plate
237(2)
5.3 Fully Electroded Plate
239(4)
5.4 Partially Electroded Plate
243(7)
5.5 Plate with a Partial Mass Layer
250(4)
5.6 Plate with Misaligned Electrodes
254(4)
5.7 Plate with a Mass Layer Array
258(7)
5.8 Mesa Resonator
265(7)
5.9 Filter
272(10)
5.10 Contoured Resonator
282(16)
5.11 Plate with a Nonuniform Mass Layer
298(5)
5.12 Plate with an Imperfectly Bonded Mass Layer
303(11)
5.13 Frequency Spectra
314(5)
Chapter 6 Waves Propagating along Digonal Axis
319(10)
6.1 Governing Equations
319(1)
6.2 Wave Solution
320(2)
6.3 Dispersion Curves
322(1)
6.4 Long Wavelength Limit
323(2)
6.5 Other Results
325(1)
6.6 Approximate Equations for u1 and u2
325(1)
6.7 Straight-crested Waves of u1 and u2
326(3)
Chapter 7 Vibration of Rectangular Plates
329(18)
7.1 Approximate Equation for u1
329(1)
7.2 Unelectroded Plate
330(2)
7.3 Fully Electroded Plate
332(2)
7.4 Partially Electroded Plate
334(7)
7.5 Contoured Plate
341(6)
Chapter 8 Scalar Equation for Thickness Modes
347(48)
8.1 Scalar Equation for AT-cut Quartz Plates
347(3)
8.2 Rectangular Plate
350(2)
8.3 Elliptical Plate
352(2)
8.4 Circular Plate
354(9)
8.5 Unbounded Plate with Parabolic Contour
363(5)
8.6 Unbounded Plate with Hyperbolic Contour
368(8)
8.7 Elliptical Plate with Parabolic Contour
376(11)
8.8 Scalar Equation for SC-cut Quartz Plates
387(5)
8.9 Optimal Electrode Shape and Size
392(3)
Appendix 1 Notation 395(2)
Appendix 2 Material Constants 397(10)
References 407(10)
Index 417