A new fully integrated ultrasound based in-line fluid characterization system, Flow-VizTM, has been developed especially for opaque, non-Newtonian industrial fluids. The new embedded and commercially available system is designed to meet industrial requirements. Flow-VizTM enables true non-invasive, real-time Doppler measurements and is able to visualize the flow and to rheologically characterize industrial fluids continuously while providing continuous feedback to an existing process control system for enhanced efficiency. The Flow-VizTM system consists of an operator’s panel, a multitouch monitor and an industrial PC unit and pulser-receiver electronics. The electronics has been improved and extended by adding a second ultrasound channel, augmenting the on-board data processing for obtaining the optimal performances in high attenuating suspensions. A new Motherboard provides an additional 8-channel digital and analog input and output capabilities for simultaneous data acquisition and connection to a process control system. The new electronics is combined with a non-invasive ultrasound sensor unit, which allows measuring the flow velocity profile even through industrial high grade stainless steel pipes. This unique solution makes possible to adapt the high resolution UVP+PD technique for industrial processes performed at high temperatures and/or pressures using a wide range of different industrial fluids. The Flow-VizTM system is already installed in industry, e.g. for chocolate and grouting applications and an international patent has been filed.
Flow-VizTM – A fully integrated and commercial in-line fluid characterization system for industrial applications / Johan Wiklund; Reinhardt Kotzé; Beat Birkhofer; Stefano Ricci; Valentino Meacci; Rainer Haldenwang; Mats Stading. - ELETTRONICO. - (2014), pp. 165-168. (Intervento presentato al convegno 9th International Symposium on Ultrasonic Doppler Methods for Fluid Mechanics and Fluid Engineering (ISUD) tenutosi a Strasbourg, Francia nel august 2014).
Flow-VizTM – A fully integrated and commercial in-line fluid characterization system for industrial applications
RICCI, STEFANO;MEACCI, VALENTINO;
2014
Abstract
A new fully integrated ultrasound based in-line fluid characterization system, Flow-VizTM, has been developed especially for opaque, non-Newtonian industrial fluids. The new embedded and commercially available system is designed to meet industrial requirements. Flow-VizTM enables true non-invasive, real-time Doppler measurements and is able to visualize the flow and to rheologically characterize industrial fluids continuously while providing continuous feedback to an existing process control system for enhanced efficiency. The Flow-VizTM system consists of an operator’s panel, a multitouch monitor and an industrial PC unit and pulser-receiver electronics. The electronics has been improved and extended by adding a second ultrasound channel, augmenting the on-board data processing for obtaining the optimal performances in high attenuating suspensions. A new Motherboard provides an additional 8-channel digital and analog input and output capabilities for simultaneous data acquisition and connection to a process control system. The new electronics is combined with a non-invasive ultrasound sensor unit, which allows measuring the flow velocity profile even through industrial high grade stainless steel pipes. This unique solution makes possible to adapt the high resolution UVP+PD technique for industrial processes performed at high temperatures and/or pressures using a wide range of different industrial fluids. The Flow-VizTM system is already installed in industry, e.g. for chocolate and grouting applications and an international patent has been filed.File | Dimensione | Formato | |
---|---|---|---|
2014_ISUD_PostPrint.pdf
Accesso chiuso
Tipologia:
Versione finale referata (Postprint, Accepted manuscript)
Licenza:
Tutti i diritti riservati
Dimensione
342.86 kB
Formato
Adobe PDF
|
342.86 kB | Adobe PDF | Richiedi una copia |
I documenti in FLORE sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.