Title :
Acoustic gas sensor for extreme process conditions
Author_Institution :
Hochschule fur Tech. & Wirtschaft, Dresden, Germany
Abstract :
The paper describes the development and design of fluidic-acoustic gas sensors, which can used in industry for in situ analysis of qualitatively known binary gas mixtures. The sensors are distinguished by high reliability, by immunity to extreme temperatures, contaminations or aggressive media and by high speed of response
Keywords :
acoustic resonators; acoustic wave velocity measurement; air pollution measurement; chemical industry; compensation; drying; fluidic devices; gas sensors; humidity sensors; nonelectric sensing devices; textile industry; wood processing; calibration; cellulose industry; chemicals industry; exhaust air; extreme process conditions; fluidic-acoustic gas sensors; high reliability; high speed of response; humidity measurement; in situ analysis; industrial dryers; piezoelectric transducers; planar fluidic-acoustic oscillator; qualitatively known binary gas mixtures; robust sensor; signal processing; speed of sound; temperature compensation; textile industry; toxic gas monitoring; wood industry; zero point control; Acoustic applications; Acoustic measurements; Acoustic sensors; Electromagnetic analysis; Gas detectors; Gas industry; Gases; Oscillators; Temperature sensors; Velocity measurement;
Conference_Titel :
Ultrasonics Symposium, 1997. Proceedings., 1997 IEEE
Conference_Location :
Toronto, Ont.
Print_ISBN :
0-7803-4153-8
DOI :
10.1109/ULTSYM.1997.663059