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Characterization of acoustic beam propagation through high-grade stainless steel pipes for improved pulsed ultrasound velocimetry measurements in complex industrial fluids
RISE, SP – Sveriges Tekniska Forskningsinstitut, SP Food and Bioscience.
2016 (English)In: IEEE Sensors Journal, ISSN 1530-437X, E-ISSN 1558-1748, Vol. 16, no 14, 5636-5647 p., 7470576Article in journal (Refereed) Published
Abstract [en]

The newly developed Flow-Viz rheometric system is capable of performing detailed non-invasive velocimetry measurements through industrial stainless steel pipes. However, in order to improve the current design for non-invasive measurements in industrial fluids, pulsed ultrasound sensors need to be acoustically characterized. In this paper, acoustic characterization tests were carried out, with the aim of measuring the ultrasound beam propagation through stainless steel (SS316L) pipes and into water. For these tests, a high-precision robotic XYZ-scanner and needle hydrophone setup was used. Several ultrasound sensor configurations were mounted onto stainless steel pipes, while using different coupling media between the transducer-to-wedge and sensor wedge-to-pipe boundaries. The ultrasound beam propagation after the wall interface was measured by using a planar measuring technique along the beam's focal axis. By using this technique, the output for each test was a 2-D acoustic color map detailing the acoustic intensity of the ultrasound beam. Measured beam properties depicted critical parameters, such as the start distance of the focal zone, focal zone length, Doppler angle, and peak energy within the focal zone. Variations in the measured beam properties were highly dependent on the acoustic couplants used at the different interfaces within the sensor unit. Complete non-invasive Doppler ultrasound sensor technology was for the first time acoustically characterized through industrial grade stainless steel. This information will now be used to further optimize the non-invasive technology for advanced industrial applications. © 2001-2012 IEEE.

Place, publisher, year, edition, pages
2016. Vol. 16, no 14, 5636-5647 p., 7470576
Keyword [en]
acoustic measurements, Non-invasive ultrasound sensor, pulsed ultrasound, ultrasonic transducer, velocimetry, Acoustics, Steel pipe, Transducers, Ultrasonic applications, Ultrasonic transducers, Velocimeters, Velocity measurement, Acoustic characterization, High precision robotics, Non- invasive measurements, Non-invasive technology, Pulsed ultrasounds, Ultrasound beam propagation, Ultrasound sensors, Stainless steel
National Category
Natural Sciences
Identifiers
URN: urn:nbn:se:ri:diva-27638DOI: 10.1109/JSEN.2016.2569491Scopus ID: 2-s2.0-84976490955OAI: oai:DiVA.org:ri-27638DiVA: diva2:1059523
Note

References: Takeda, Y., Velocity profile measurement by ultrasound Doppler shift method (1986) Int. J. Heat Fluid Flow, 7 (4), pp. 313-318; Brunn, P.O., Vorwerk, J., Steger, R., Optical and acoustic rheometers: Three examples (1993) Appl. Rheol., 3 (1), p. 20; Windhab, E.J., Ouriev, B., Rheological study of concentrated suspensions in pressure-driven shear flow using a novel in-line ultrasound Doppler method (2002) Exp. Fluids, 32 (2), pp. 204-211. , Feb; Birkhofer, B., Jeelani, S.A.K., Ouriev, B., Windhab, E.J., In-line characterization and rheometry of concentrated suspensions using ultrasound (2004) Proc. 4th ISUD, pp. 65-68. , Sapporo, Japan; Wiklund, J., Stading, M., Application of in-line ultrasound Dopplerbased UVP-PD rheometry method to concentrated model and industrial suspensions (2008) Flow Meas. Instrum., 19 (3-4), pp. 171-179. , Jun; Kotze, R., Wiklund, J., Haldenwang, R., Optimization of the UVP PD rheometric method for flow behavior monitoring of industrial fluid suspensions (2012) Appl. Rheol., 22 (4), pp. 427601-4276011; Wiklund, J., Flow-Viz-A fully integrated and commercial in-line fluid characterization system for industrial applications (2014) Proc. 9th ISUD Conf. (Ubertone), , Strasbourg, France; Kotzé, R., Ricci, S., Birkhofer, B., Wiklund, J., Performance tests of a new non-invasive sensor unit and ultrasound electronics (2016) Flow Meas. Instrum., 48, pp. 104-111. , Apr; Kotzé, R., Wiklund, J., Haldenwang, R., Optimisation of pulsed ultrasonic velocimetry system and transducer technology for industrial applications (2013) Ultrasonics, 53 (2), pp. 459-469. , Feb; Takeda, Y., (2012) Ultrasonic Doppler Velocity Profiler for Fluid Flow, 101. , Tokyo, Japan: Springer; Ricci, S., Liard, M., Birkhofer, B., Lootens, D., Bruìhwiler, A., Tortoli, P., Embedded Doppler system for industrial in-line rheometry (2012) IEEE Trans. Ultrason., Ferroelectr., Freq. Control, 59 (7), pp. 1395-1401. , Jul; Wiklund, J., Stading, M., Application of in-line ultrasound Doppler based UVP-PD method to concentrated model and industrial suspensions (2006) Proc. 5th ISUD Conf., pp. 145-149. , Zürich, Switzerland; Kotzé, R., Haldenwang, R., Slatter, P., Rheological characterisation of highly concentrated mineral suspensions using an ultrasonic velocity profiler (2008) Proc. 6th Int. Symp. Ultrason. Doppler Methods Fluid Mech. Fluid Eng., pp. 99-104. , Prague, Czech Republic; Theobald, P., Zeqiri, B., Avison, J., Couplants and their influence on AE sensor sensitivity (2008) J. Acoust. Emission, 26, pp. 91-97. , Sep; Birkhofer, B., Doppler ultrasound-based rheology (2011) Practical Food Rheology: An Interpretive Approach, , I. T. Norton, F. Spyropoulos, and P. Cox, Eds. Chichester, U.K.: Wiley; Wiklund, J., Shahram, I., Stading, M., Methodology for in-line rheology by ultrasound Doppler velocity profiling and pressure difference techniques (2007) Chem. Eng. Sci., 62 (16), pp. 4277-4293. , Aug; Choi, Y.J., McCarthy, K.L., McCarthy, M.J., Tomographic techniques for measuring fluid flow properties (2002) J. Food Sci., 67 (7), pp. 2717-2724; Szebeszczyk, J.M., Application of clamp-on ultrasonic flowmeter for industrial flow measurements (1994) Flow Meas. Instrum., 5 (2), pp. 127-131; Sanderson, M.L., Yeung, H., Guidelines for the use of ultrasonic non-invasive metering techniques (2002) Flow Meas. Instrum., 13 (4), pp. 125-142; Krautkrämer, J., Krautkrämer, H., (1990) Ultrasonic Testing of Materials, , 4th ed. Heidelberg Germany: Springer- Verlag; Kotzé, R., Wiklund, J., Haldenwang, R., Fester, V., Measurement and analysis of flow behaviour in complex geometries using the ultrasonic velocity profiling (UVP) technique (2011) Flow Meas. Instrum., 22 (2), pp. 110-119. , Apr; Yamamoto, M., Carrillo, J., Insunza, A., Mari, G., Ville, Y., Error introduced into velocity measurements by inappropriate Doppler angle assignment (2006) Ultrasound Obstetrics Gynecol., 28 (6), pp. 853-854; Umchid, S., Measurement of the field characteristics from high intensity focused ultrasound transducer (2014) Proc. 7th Biomed. Eng. Int. Conf. (BMEiCON, pp. 1-5

Available from: 2016-12-22 Created: 2016-12-21 Last updated: 2016-12-22Bibliographically approved

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