Chinese Journal of Lasers, Volume. 49, Issue 12, 1210001(2022)

Technology and Application Progress of Fiber-Optic Ultrasound Transducer

Qizhen Sun1,2,3、*, Liuyang Yang1,2,3, Dongchen Xu1,2, Geng Chen1,2, Anqi Wang1,2, Chenhao Dai1,2, Yanpeng Li1,2, and Zhijun Yan1,2,3
Author Affiliations
  • 1School of Optics and Electronic Information, Huazhong University of Science and Technology, Wuhan 430074, Hubei, China
  • 2National Engineering Research Center of Next Generation Internet Access System, Wuhan 430074, Hubei, China
  • 3HUST-Wuxi Research Institute, Wuxi 214174, Jiangsu, China
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    Figures & Tables(17)
    Research progress and application of ultrasound transducer technology based on optical fiber
    Working mechanism of ultrasound transducer. (a) Schematic of ultrasound emission; (b) schematic of ultrasound detection
    Metallic material fiber optic ultrasound transmitters. (a) Schematic of the objective gold nanopores on the fiber end face[5]; (b) fiber-optic ultrasound transmitter coated with gold nanoparticles/PDMS composite material[9]; (c) schematic of excitation angle control and (d) diagram of the sound field distribution based on fiber optic ultrasound transmitter array[11]
    Nonmetallic material fiber optic ultrasound transmitters. (a)-(c) SEM images of fiber optic ultrasound transmitter coated with carbon nanofiber[19]; (d) SEM image of a optical fiber end coated with MWCNT[18]; (e) SEM image of fiber optic ultrasound transmitter coated with MWCNT/PDMS composite[18]; (f)(g) top view and side view of fiber optic ultrasound transmitter based on CIS-QDs/PDMS composite material[20]; (h) absorption spectrum of the CIS-QDs/PDMS based fiber optic ultrasound transmitter[20]
    Intensity modulated fiber optic ultrasound sensors. (a) Intensity modulated fiber optic ultrasound sensor based on fiber coupler; (b) fiber optic ultrasonic sensor based on reflectivity of fiber end face
    Phase modulated fiber optic ultrasound sensors. (a) Fiber optic ultrasound sensor based on MZI; (b) fiber optic ultrasound sensor based on MI; (c) fiber optic ultrasound sensor based on FPI; (d) fiber optic ultrasound sensor based on SI
    Wavelength modulated fiber optic ultrasound sensors. (a) Fiber optic ultrasound sensor based on fiber grating[68]; (b) fiber optic ultrasound sensor based on fiber laser[70];(c) fiber optic ultrasound sensor based on micro-ring resonator[37]; (d) fiber optic ultrasound sensor based on SPR[71]
    Separated fiber optic ultrasound transducers. (a) Fiber optic ultrasound probe composed of fiber optic ultrasound transmitter and a fiber optic FPI ultrasound sensor[86]; (b) fiber optic ultrasound probe composed of fiber optic ultrasound transmitter and fiber laser type ultrasound sensor[87]
    Integrated fiber optic ultrasound transducers. (a) Schematic of ultrasound detection based on an integrated fiber optic ultrasound transducer[88]; (b) an integrated fiber optic ultrasound transducer based on selective absorption composite film[90]
    Photoacoustic tomography applications of fiber optic ultrasound transducer technology[97]. (a) Photoacoustic tomography system based on an FPI type fiber optic ultrasound sensor; (b) photoacoustic tomography system based on a fiber laser ultrasound sensor
    Photoacoustic microscopy imaging applications of fiber optic ultrasound transducer technology. (a) Fast photoacoustic microscopy imaging system based on a fiber FPI ultrasound sensor[101]; (b) schematic of rapid microscopy imaging system and hemodynamics based on a fiber laser ultrasound sensor and blood flow images[100]
    Endoscopic imaging applications of fiber optic ultrasound transducer technology. (a) Forward endoscopy imaging system based on a fiber optic ultrasound sensor array[106]; (b) lateral endoscopy imaging system based on a fiber optic ultrasound sensor[107]
    Ultrasound imaging applications of fiber optic ultrasound transducer technology. (a) 3D pulse-echo ultrasound image of ex vivo porcine aorta[62]; (b) lateral ultrasound imaging system based on a fiber optic ultrasound transmitter and a fiber laser ultrasound sensor, and cross-section ultrasound image of a pig trachea[87]; (c) freehand ultrasound imaging probe and application of human vascular imaging based on all-fiber ultrasound transducer technology[112]
    Nondestructive testing applications of fiber optic ultrasound detecting technology. (a) Damage detection system of carbon fiber composite laminates using piezoelectric ultrasound transmitter and FBG ultrasound sensors[115]; (b) a flower-shaped FBG ultrasound sensor structure for sound source location[118]; (c) a nondestructive testing method based on the combination of a FBG ultrasound sensor and an MZI ultrasound sensor[123]; (d) schematic of acoustic emission detection of structural damage based on phase-shifted grating ultrasound sensor[121]; (e) Lamb wave signals measured by FBG ultrasound sensor and identification results[121]
    Applications of fiber optic ultrasound detection technology in partial discharge. (a) Schematic of discharge detection based on Sagnac fiber interferometer[127]; (b) discharge detection system based on fiber FPI[128]; (c) discharge detection system based on distributed FBG ultrasound sensors[129]; (d) discharge detection system based on fiber MI[130]; (e) partial discharge detection system based on φ-OTDR and the measured discharge signal position[132]
    • Table 1. Comparison among fiber optic ultrasound transmitters

      View table

      Table 1. Comparison among fiber optic ultrasound transmitters

      Transducer materialFiber diameter /μmMeasured distance /mmMeasured pressure /MPa-6 dB bandwidth /MHzEfficiency /(MPa·mJ-1·cm2)
      Cr[3]60089.5/7/
      AuNP[4-5]62.51.50.0027382.79×10-5
      AuNP+PDMS[8-10]40010.64200.073
      CIS-QDs+PDMS[20]2001.53.7180.024
      Carbon black+PDMS[25]1001.950.15141.96×10-3
      MWCNT+PDMS[18]20031.3629.20.041
    • Table 2. Comparison among fiber-optic ultrasound sensors

      View table

      Table 2. Comparison among fiber-optic ultrasound sensors

      Sensing mechanismSensorSensing materialBandwidth /MHzNEP /Pa·Hz-1/2
      Intensity modulationCoupler[29-30]Silica/1.8×10-3 
      Fresnel reflection[32-34]Coupling medium100(-6 dB)50
      Phase modulationMZI[44-46]Silica/polymer14(-10 dB)7.6×10-3
      MI[49,82-83]Silica/5.9
      SI[55-56]Silica//
      FPI[36,60,62]Parylene C/epoxy /coupling medium34(-3 dB)1.79×10-3
      Wavelength modulationFBG/PS-FBG[68,84]Silica3(-6 dB)0.1
      Fiber laser[70,77,85]Silica15.4(-6 dB)6.17×10-3
      SPR[71,81]Coupling medium76(-6 dB)1.16
      MIR[37]Silica1(-6 dB)/
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    Qizhen Sun, Liuyang Yang, Dongchen Xu, Geng Chen, Anqi Wang, Chenhao Dai, Yanpeng Li, Zhijun Yan. Technology and Application Progress of Fiber-Optic Ultrasound Transducer[J]. Chinese Journal of Lasers, 2022, 49(12): 1210001

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    Paper Information

    Received: Jan. 12, 2022

    Accepted: Apr. 2, 2022

    Published Online: Jun. 13, 2022

    The Author Email: Qizhen Sun (qzsun@hust.edu.cn)

    DOI:10.3788/CJL202249.1210001

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