• Laser & Optoelectronics Progress
  • Vol. 60, Issue 20, 2000003 (2023)
Jialin Shen, Peiming Zhang*, Jia Ni, Ying Wang, and Xiao Liu
Author Affiliations
  • School of Health Science and Engineering, University of Shanghai for Science and Technology, Shanghai 200093, China
  • show less
    DOI: 10.3788/LOP223166 Cite this Article Set citation alerts
    Jialin Shen, Peiming Zhang, Jia Ni, Ying Wang, Xiao Liu. Applications of Smartphone Imaging Systems in Clinical Auxiliary Diagnosis[J]. Laser & Optoelectronics Progress, 2023, 60(20): 2000003 Copy Citation Text show less
    Smartphone-based optical interface design spectrum[8]
    Fig. 1. Smartphone-based optical interface design spectrum[8]
    Smartphone with a dermatoscope adapter[16]
    Fig. 2. Smartphone with a dermatoscope adapter[16]
    Two dermatoscope implementations[19]. (a) Handheld imaging module; (b) imaging module paired with the smartphone camera; (c) smartphone-based system; (d) system with the imaging annulus; (e) smartphone with dermatoscope
    Fig. 3. Two dermatoscope implementations[19]. (a) Handheld imaging module; (b) imaging module paired with the smartphone camera; (c) smartphone-based system; (d) system with the imaging annulus; (e) smartphone with dermatoscope
    Same junctional nevus imaged by the smartphone and USB dermatoscopes[19]. (a) Junctional nevus imaged by smartphone dermatoscope; (b) junctional nevus imaged by USB dermatoscope
    Fig. 4. Same junctional nevus imaged by the smartphone and USB dermatoscopes[19]. (a) Junctional nevus imaged by smartphone dermatoscope; (b) junctional nevus imaged by USB dermatoscope
    Schematic of scanning[27]. (a) Schematic of point scanning; (b) spectrally-encoded line scanning; (c) smartphone confocal microscope
    Fig. 5. Schematic of scanning[27]. (a) Schematic of point scanning; (b) spectrally-encoded line scanning; (c) smartphone confocal microscope
    Smartphone-based fundus cameras in the market[31]. (a) iExaminer; (b) D-Eye; (c) Peek Retina; (d) iNview
    Fig. 6. Smartphone-based fundus cameras in the market[31]. (a) iExaminer; (b) D-Eye; (c) Peek Retina; (d) iNview
    Retinal images[30]. (a)‒(c) Three representative single-shot images taken at three different angles of a 41-year-old subject without eye disease; (d) montage of three single-shot images; (e) representative fundus image from the same subject collected by a clinical fundus camera; (f) overlap of Fig.7(c) and Fig. 7(e)
    Fig. 7. Retinal images[30]. (a)‒(c) Three representative single-shot images taken at three different angles of a 41-year-old subject without eye disease; (d) montage of three single-shot images; (e) representative fundus image from the same subject collected by a clinical fundus camera; (f) overlap of Fig.7(c) and Fig. 7(e)
    Photo of the smartphone slit lamp and schematic of the optical path of smartphone slit lamp[38]
    Fig. 8. Photo of the smartphone slit lamp and schematic of the optical path of smartphone slit lamp[38]
    Smartphone-based corneal topographer[41]
    Fig. 9. Smartphone-based corneal topographer[41]
    Intraoral probe system view showing the handheld probe[45].(a) Overall system size; (b) (c) two sides of the flexible head; (d) imaging and LED illumination apertures; (e) smartphone running the custom Android application; (f) installed electronic equipment
    Fig. 10. Intraoral probe system view showing the handheld probe[45].(a) Overall system size; (b) (c) two sides of the flexible head; (d) imaging and LED illumination apertures; (e) smartphone running the custom Android application; (f) installed electronic equipment
    Developed add-on gadget and its usage for data acquisition[47]. (a) Add-on gadget designed and manufactured by 3D printing; (b) image acquisition using the iPhone X with the add-on gadget
    Fig. 11. Developed add-on gadget and its usage for data acquisition[47]. (a) Add-on gadget designed and manufactured by 3D printing; (b) image acquisition using the iPhone X with the add-on gadget
    Lens simulation of smartphone-based endoscope system[48]. (a) Ray-tracing of optics for smartphone-based endoscope system; (b) schematic of assembled lens system in smartphone-based endoscope system
    Fig. 12. Lens simulation of smartphone-based endoscope system[48]. (a) Ray-tracing of optics for smartphone-based endoscope system; (b) schematic of assembled lens system in smartphone-based endoscope system
    Enhanced visual assessment system[49]
    Fig. 13. Enhanced visual assessment system[49]
    Tethered capsule endoscopic platform[56]. (a) Picture of the endoscope along with a smartphone; (b) image of the WLI capsule; (c) spectrum of the integrated white light LED; (d) schematic of the NBI module; (e) attachable smartphone capsule unit; (f) schematic of the FI/AFI module; (g) a portable imaging system in a 28 cm×16 cm box
    Fig. 14. Tethered capsule endoscopic platform[56]. (a) Picture of the endoscope along with a smartphone; (b) image of the WLI capsule; (c) spectrum of the integrated white light LED; (d) schematic of the NBI module; (e) attachable smartphone capsule unit; (f) schematic of the FI/AFI module; (g) a portable imaging system in a 28 cm×16 cm box
    Jialin Shen, Peiming Zhang, Jia Ni, Ying Wang, Xiao Liu. Applications of Smartphone Imaging Systems in Clinical Auxiliary Diagnosis[J]. Laser & Optoelectronics Progress, 2023, 60(20): 2000003
    Download Citation