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Engineering » Mechanical Engineering
Acoustic Waves - From Microdevices to Helioseismology
Edited by Marco G. Beghi, ISBN 978-953-307-572-3, Hard cover, 652 pages, Publisher: InTech, Chapters published November 14, 2011 under CC BY 3.0 license
DOI: 10.5772/1032
The concept of acoustic wave is a pervasive one, which emerges in any type of medium, from solids to plasmas, at length and time scales ranging from sub-micrometric layers in microdevices to seismic waves in the Sun's interior. This book presents several aspects of the active research ongoing in this field. Theoretical efforts are leading to a deeper understanding of phenomena, also in complicated environments like the solar surface boundary. Acoustic waves are a flexible probe to investigate the properties of very different systems, from thin inorganic layers to ripening cheese to biological systems. Acoustic waves are also a tool to manipulate matter, from the delicate evaporation of biomolecules to be analysed, to the phase transitions induced by intense shock waves. And a whole class of widespread microdevices, including filters and sensors, is based on the behaviour of acoustic waves propagating in thin layers. The search for better performances is driving to new materials for these devices, and to more refined tools for their analysis.
- Chapter 1
Analysis of Acoustic Wave in Homogeneous and Inhomogeneous Media Using Finite Element Method - Chapter 2
Topological Singularities in Acoustic Fields due to Absorption of a Crystal - Chapter 3
An Operational Approach to the Acoustic Analogy Equations - Chapter 4
Exact Solutions Expressible in Hyperbolic and Jacobi Elliptic Functions of Some Important Equations of Ion-Acoustic Waves - Chapter 5
Acoustic Wave - Chapter 6
Acoustic Waves: A Probe for the Elastic Properties of Films - Chapter 7
Evaluation Method for Anisotropic Drilling Characteristics of the Formation by Using Acoustic Wave Information - Chapter 8
Machinery Faults Detection Using Acoustic Emission Signal - Chapter 9
Compensation of Ultrasound Attenuation in Photoacoustic Imaging - Chapter 10
Low Frequency Acoustic Devices for Viscoelastic Complex Media Characterization - Chapter 11
Modeling of Biological Interfacial Processes Using Thickness–Shear Mode Sensors - Chapter 12
Analysis of Biological Acoustic Waves by Means of the Phase–Sensitivity Technique - Chapter 13
Photoacoustic Technique Applied to Skin Research: Characterization of Tissue, Topically Applied Products and Transdermal Drug Delivery - Chapter 14
Acoustic–Gravity Waves in the Ionosphere During Solar Eclipse Events - Chapter 15
Use of Acoustic Waves for Pulsating Water Jet Generation - Chapter 16
Molecular Desorption by Laser–Driven Acoustic Waves: Analytical Applications and Physical Mechanisms - Chapter 17
Excitation of Periodical Shock Waves in Solid–State Optical Media (Yb:YAG, Glass) at SBS of Focused Low–Coherent Pump Radiation: Structure Changes, Features of Lasing - Chapter 18
An Optimal Distribution of Actuatorsin Active Beam Vibration – Some Aspects, Theoretical Considerations - Chapter 19
Multilayered Structure as a Novel Material for Surface Acoustic Wave Devices: Physical Insight - Chapter 20
SAW Parameters Analysis and Equivalent Circuit of SAW Device - Chapter 21
Sources of Third–Order Intermodulation Distortion in Bulk Acoustic Wave Devices: A Phenomenological Approach - Chapter 22
Shear Mode Piezoelectric Thin Film Resonators - Chapter 23
Polymer Coated Rayleigh SAW and STW Resonators for Gas Sensor Applications - Chapter 24
Ultrananocrystalline Diamond as Material for Surface Acoustic Wave Devices - Chapter 25
Aluminum Nitride (AlN) Film Based Acoustic Devices: Material Synthesis and Device Fabrication - Chapter 26
Surface Acoustic Wave Devices for Harsh Environment - Chapter 27
Applications of In–Fiber Acousto–Optic Devices - Chapter 28
Surface Acoustic Waves and Nano–Electromechanical Systems
