Ceramic-epoxy composite transducers for noncontacting ultrasonic applications

Gordon Hayward, Anthony Gachagan, R. Hamilton, D.A. Hutchins, WMD Wright

Research output: Chapter in Book/Report/Conference proceedingConference contribution book

Abstract

This work describes the evaluation of various 1 - 3 connectivity transducer configurations, comprising a matrix of ceramic rods embedded in epoxy, for operation into air over the frequency range 100 kHz - 2 MHz. A dual strategy, involving simulation design and supported by experimental verification, is used to determine the main factors which influence through air operation of such structures. Specifically, finite element analysis is employed to determine the influence of ceramic rod shape and distribution, in conjunction with the characteristics of the epoxy filler materials, on transducer performance. A one dimensional linear systems model is then utilized for assessment of transducer behavior when configured as an actual probe assembly and connected to practical electrical and mechanical load environments. Some experimental examples, relevant to non-destructive evaluation, are presented, including through transmission scanning of carbon-fiber composite materials and remote detection of laser generated ultrasound.
LanguageEnglish
Title of host publicationNew Developments in Ultrasonic Transducers and Transducer Systems
EditorsFL Lizzi
Pages49-56
Number of pages8
Volume1733
DOIs
Publication statusPublished - 1992

Publication series

NameProceedings of the Society Photo-Optical Instrumentation Engineers (SPIE)
PublisherSPIE

Fingerprint

Ultrasonic applications
Transducers
Composite materials
Air
Carbon fibers
Linear systems
Fillers
Ultrasonics
Scanning
Finite element method
Lasers

Keywords

  • noncontacting
  • ceramic-epoxy
  • composite
  • transducers
  • ultrasonic applications

Cite this

Hayward, G., Gachagan, A., Hamilton, R., Hutchins, D. A., & Wright, WMD. (1992). Ceramic-epoxy composite transducers for noncontacting ultrasonic applications. In FL. Lizzi (Ed.), New Developments in Ultrasonic Transducers and Transducer Systems (Vol. 1733, pp. 49-56). (Proceedings of the Society Photo-Optical Instrumentation Engineers (SPIE)). https://doi.org/10.1117/12.130588
Hayward, Gordon ; Gachagan, Anthony ; Hamilton, R. ; Hutchins, D.A. ; Wright, WMD. / Ceramic-epoxy composite transducers for noncontacting ultrasonic applications. New Developments in Ultrasonic Transducers and Transducer Systems. editor / FL Lizzi. Vol. 1733 1992. pp. 49-56 (Proceedings of the Society Photo-Optical Instrumentation Engineers (SPIE)).
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abstract = "This work describes the evaluation of various 1 - 3 connectivity transducer configurations, comprising a matrix of ceramic rods embedded in epoxy, for operation into air over the frequency range 100 kHz - 2 MHz. A dual strategy, involving simulation design and supported by experimental verification, is used to determine the main factors which influence through air operation of such structures. Specifically, finite element analysis is employed to determine the influence of ceramic rod shape and distribution, in conjunction with the characteristics of the epoxy filler materials, on transducer performance. A one dimensional linear systems model is then utilized for assessment of transducer behavior when configured as an actual probe assembly and connected to practical electrical and mechanical load environments. Some experimental examples, relevant to non-destructive evaluation, are presented, including through transmission scanning of carbon-fiber composite materials and remote detection of laser generated ultrasound.",
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Hayward, G, Gachagan, A, Hamilton, R, Hutchins, DA & Wright, WMD 1992, Ceramic-epoxy composite transducers for noncontacting ultrasonic applications. in FL Lizzi (ed.), New Developments in Ultrasonic Transducers and Transducer Systems. vol. 1733, Proceedings of the Society Photo-Optical Instrumentation Engineers (SPIE), pp. 49-56. https://doi.org/10.1117/12.130588

Ceramic-epoxy composite transducers for noncontacting ultrasonic applications. / Hayward, Gordon; Gachagan, Anthony; Hamilton, R.; Hutchins, D.A.; Wright, WMD.

New Developments in Ultrasonic Transducers and Transducer Systems. ed. / FL Lizzi. Vol. 1733 1992. p. 49-56 (Proceedings of the Society Photo-Optical Instrumentation Engineers (SPIE)).

Research output: Chapter in Book/Report/Conference proceedingConference contribution book

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AB - This work describes the evaluation of various 1 - 3 connectivity transducer configurations, comprising a matrix of ceramic rods embedded in epoxy, for operation into air over the frequency range 100 kHz - 2 MHz. A dual strategy, involving simulation design and supported by experimental verification, is used to determine the main factors which influence through air operation of such structures. Specifically, finite element analysis is employed to determine the influence of ceramic rod shape and distribution, in conjunction with the characteristics of the epoxy filler materials, on transducer performance. A one dimensional linear systems model is then utilized for assessment of transducer behavior when configured as an actual probe assembly and connected to practical electrical and mechanical load environments. Some experimental examples, relevant to non-destructive evaluation, are presented, including through transmission scanning of carbon-fiber composite materials and remote detection of laser generated ultrasound.

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Hayward G, Gachagan A, Hamilton R, Hutchins DA, Wright WMD. Ceramic-epoxy composite transducers for noncontacting ultrasonic applications. In Lizzi FL, editor, New Developments in Ultrasonic Transducers and Transducer Systems. Vol. 1733. 1992. p. 49-56. (Proceedings of the Society Photo-Optical Instrumentation Engineers (SPIE)). https://doi.org/10.1117/12.130588