Acoustic Wave Sensors: Theory, Design and Physico-Chemical Applications / Edition 1

Acoustic Wave Sensors: Theory, Design and Physico-Chemical Applications / Edition 1

ISBN-10:
0120774607
ISBN-13:
9780120774609
Pub. Date:
10/10/1996
Publisher:
Elsevier Science
ISBN-10:
0120774607
ISBN-13:
9780120774609
Pub. Date:
10/10/1996
Publisher:
Elsevier Science
Acoustic Wave Sensors: Theory, Design and Physico-Chemical Applications / Edition 1

Acoustic Wave Sensors: Theory, Design and Physico-Chemical Applications / Edition 1

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Overview

Written by an interdisciplinary group of experts from both industry and academia, Acoustic Wave Sensors provides an in-depth look at the current state of acoustic wave devices and the scope of their use in chemical, biochemical, and physical measurements, as well as in engineering applications. Because of the inherent interdisciplinary applications of these devices, this book will be useful for the chemist and biochemist interested in the use and development ofthese sensors for specific applications; the electrical engineer involved in the design and improvement of these devices; the chemical engineer and the biotechnologist interested in using these devices for process monitoring and control; and the sensor community at large.

Product Details

ISBN-13: 9780120774609
Publisher: Elsevier Science
Publication date: 10/10/1996
Series: Applications of Modern Acoustics
Pages: 436
Product dimensions: 5.94(w) x 9.00(h) x (d)

About the Author

Antonio J. Ricco received BS and PhD degrees in chemistry from UC Berkeley and the Massachusetts Institute of Technology, respectively. He’s held positions at Sandia National Laboratories, the University of Heidelberg (visiting professor), ACLARA BioSciences, the Biomedical Diagnostics Institute (Dublin City University; adjunct professor), Stanford University, and NASA Ames Research Center. His R&D experience includes chemical microsensors and microsystems; polymer microfluidic systems for biotech research and pathogen detection; point-of-care medical diagnostic devices; autonomous bioanalytical systems for space biology and astrobiology studies aboard small satellites; and search-for-life analytical payloads for missions to the icy worlds of the solar system.

At NASA/Ames, where he is presently on secondment from Stanford, he has served as project technologist for the GeneSat, PharmaSat, O/OREOS, EcAMSat and SporeSat spaceflight nanosatellite missions; instrument scientist and mission manager for the O/OREOS mission; and payload technologist for the BioSentinel deep space mission. He is PI of the NASA projects SPLIce: Sample Processor for Life on Icy Worlds and MICA: Microfluidic Icy-world Chemical Analyzer, and a member of the ESA Topical Team on Future Astrobiology Experiments in Earth Orbit and Beyond.

Dr. Ricco is co-author of over 275 publications, 400 presentations, and 23 issued patents. He was an E.T.S. Walton Fellow (Science Foundation Ireland), is a Fellow of The Electrochemical Society and the American Institute for Medical and Biological Engineering, and serves as Vice President of the Transducer Research Foundation.

Table of Contents

Why Acoustic Sensors. Fundamentals of Acoustic Wave Devices. Acoustic Wave Sensors and Responses. Materials Characterization. Chemical and Biological Sensors. Practical Aspects of Acoustic-Wave Sensors. Subject Index.
Reduced Index Notation. Mechanical Properties of Selected Materials. Piezoelectric Stress Constants. Properties of Several SAW Substrate Materials. Acoustoelectric Properties of Several SAW Substrate Materials. Moduli Associated with the Strain Modes Generated by a SAW in an Acoustically Thin Film. SAW-Film Coupling Parameter and Phase Angles for SAW Propagation in the X-Direction of ST-Cut Quartz. FPW Density Determinations for Low-Viscosity Liquids. Gravimetric Sensitivities of Acoustic Sensors. Qualitative Comparison of Acoustic Sensors. Typical Mass Sensitivities of Acoustic Wave Devices. Classification of Coating-Analyte Interactions and Approximate Energies. Adsorbent Materials and Typical Adsorbates. Adsorption Capacities of Organic Vapors on Activated Charcoal. Examples of Adsorption-Based Acoustic Wave Sensors. Sorption Capacity of Natural Rubber for Several Organic Solvents. Typical Examples of Polymer-Coated Acoustic Wave Sensors. Examples of Biochemical Acoustic Wave Sensors. Cluster Classification of Coatings for Use in a TSM Sensor Array. Center Frequency and Dimensions of Commercial TSM AT-Quartz Resonators. IDT Design Parameters for ST-Quartz-Based SAW Sensor Devices."
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