Simulation of laser ultrasonic surface wave dispersion in a multilayered skin model

Adèle L'Etang, Zhihong Huang, Di Yang

    Research output: Contribution to conferencePaper

    Abstract

    The need for a sensitive method of the non-destructive evaluation of skin layer properties is highly desirable in a number of medical applications. The use of laser-generated surface acoustic waves (SAW) for the characterisation of multi-layered materials is widely used in industrial applications. In this paper we present research expanding this principle for the use of generated SAW for the characterisation of skin layer properties. The SAW dispersion relations are calculated for Finite Element simulated SAW displacement waveforms over a range of source-detector separations in a three-layered model of human skin. The simulations show that SAWs are extremely sensitive to changes in layer properties and will be able to be utilised to quantitively characterise the layer properties of human skin by the development of an inverse algorithm.
    Original languageEnglish
    Publication statusPublished - 2006
    Event28th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, EMBS'06 - New York, United States
    Duration: 30 Aug 20093 Sep 2009

    Conference

    Conference28th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, EMBS'06
    CountryUnited States
    CityNew York
    Period30/08/093/09/09

    Fingerprint

    wave dispersion
    surface waves
    ultrasonics
    acoustics
    lasers
    simulation
    waveforms
    evaluation
    detectors

    Cite this

    L'Etang, A., Huang, Z., & Yang, D. (2006). Simulation of laser ultrasonic surface wave dispersion in a multilayered skin model. Paper presented at 28th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, EMBS'06, New York, United States.
    L'Etang, Adèle ; Huang, Zhihong ; Yang, Di. / Simulation of laser ultrasonic surface wave dispersion in a multilayered skin model. Paper presented at 28th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, EMBS'06, New York, United States.
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    abstract = "The need for a sensitive method of the non-destructive evaluation of skin layer properties is highly desirable in a number of medical applications. The use of laser-generated surface acoustic waves (SAW) for the characterisation of multi-layered materials is widely used in industrial applications. In this paper we present research expanding this principle for the use of generated SAW for the characterisation of skin layer properties. The SAW dispersion relations are calculated for Finite Element simulated SAW displacement waveforms over a range of source-detector separations in a three-layered model of human skin. The simulations show that SAWs are extremely sensitive to changes in layer properties and will be able to be utilised to quantitively characterise the layer properties of human skin by the development of an inverse algorithm.",
    author = "Ad{\`e}le L'Etang and Zhihong Huang and Di Yang",
    year = "2006",
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    note = "28th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, EMBS'06 ; Conference date: 30-08-2009 Through 03-09-2009",

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    L'Etang, A, Huang, Z & Yang, D 2006, 'Simulation of laser ultrasonic surface wave dispersion in a multilayered skin model' Paper presented at 28th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, EMBS'06, New York, United States, 30/08/09 - 3/09/09, .

    Simulation of laser ultrasonic surface wave dispersion in a multilayered skin model. / L'Etang, Adèle; Huang, Zhihong; Yang, Di.

    2006. Paper presented at 28th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, EMBS'06, New York, United States.

    Research output: Contribution to conferencePaper

    TY - CONF

    T1 - Simulation of laser ultrasonic surface wave dispersion in a multilayered skin model

    AU - L'Etang, Adèle

    AU - Huang, Zhihong

    AU - Yang, Di

    PY - 2006

    Y1 - 2006

    N2 - The need for a sensitive method of the non-destructive evaluation of skin layer properties is highly desirable in a number of medical applications. The use of laser-generated surface acoustic waves (SAW) for the characterisation of multi-layered materials is widely used in industrial applications. In this paper we present research expanding this principle for the use of generated SAW for the characterisation of skin layer properties. The SAW dispersion relations are calculated for Finite Element simulated SAW displacement waveforms over a range of source-detector separations in a three-layered model of human skin. The simulations show that SAWs are extremely sensitive to changes in layer properties and will be able to be utilised to quantitively characterise the layer properties of human skin by the development of an inverse algorithm.

    AB - The need for a sensitive method of the non-destructive evaluation of skin layer properties is highly desirable in a number of medical applications. The use of laser-generated surface acoustic waves (SAW) for the characterisation of multi-layered materials is widely used in industrial applications. In this paper we present research expanding this principle for the use of generated SAW for the characterisation of skin layer properties. The SAW dispersion relations are calculated for Finite Element simulated SAW displacement waveforms over a range of source-detector separations in a three-layered model of human skin. The simulations show that SAWs are extremely sensitive to changes in layer properties and will be able to be utilised to quantitively characterise the layer properties of human skin by the development of an inverse algorithm.

    M3 - Paper

    ER -

    L'Etang A, Huang Z, Yang D. Simulation of laser ultrasonic surface wave dispersion in a multilayered skin model. 2006. Paper presented at 28th Annual International Conference of the IEEE Engineering in Medicine and Biology Society, EMBS'06, New York, United States.