• Chinese Optics Letters
  • Vol. 16, Issue 11, 110601 (2018)
Xiaotong Zhang1, Tingting Yuan1, Xinghua Yang1, Chunying Guan1, Jun Yang1, Zhihai Liu1, Hongchang Deng2, and Libo Yuan2、*
Author Affiliations
  • 1Key Laboratory of In-Fiber Integrated Optics, Ministry of Education, College of Science, Harbin Engineering University, Harbin 150001, China
  • 2Photonics Research Center, School of Electric Engineering and Automation, Guilin University of Electronics Technology, Guilin 541004, China
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    DOI: 10.3788/COL201816.110601 Cite this Article Set citation alerts
    Xiaotong Zhang, Tingting Yuan, Xinghua Yang, Chunying Guan, Jun Yang, Zhihai Liu, Hongchang Deng, Libo Yuan. In-fiber integrated optics: an emerging photonics integration technology [Invited][J]. Chinese Optics Letters, 2018, 16(11): 110601 Copy Citation Text show less
    Optical path separated multi-core fibers. (a) Twin-core and three-core fibers. (b) Four-core and seven-core fibers. (c) Central holey multi-elliptic-core fibers.
    Fig. 1. Optical path separated multi-core fibers. (a) Twin-core and three-core fibers. (b) Four-core and seven-core fibers. (c) Central holey multi-elliptic-core fibers.
    Phase array controlled multi-core fibers.
    Fig. 2. Phase array controlled multi-core fibers.
    Optical paths and microfluidic materials channel hybrid integrated fiber.
    Fig. 3. Optical paths and microfluidic materials channel hybrid integrated fiber.
    Photonic crystal fibers.
    Fig. 4. Photonic crystal fibers.
    In-fiber integrated optical components based on several fabrication techniques. (a) Fused splicing and tapering of fiber components. (b) Optical fiber end components by polishing. (c) Fused sphere, holey fiber bubble by CO2 laser and groove by 157 nm laser.
    Fig. 5. In-fiber integrated optical components based on several fabrication techniques. (a) Fused splicing and tapering of fiber components. (b) Optical fiber end components by polishing. (c) Fused sphere, holey fiber bubble by CO2 laser and groove by 157 nm laser.
    In-fiber integrated coupler technologies.
    Fig. 6. In-fiber integrated coupler technologies.
    Configuration of multi-core fiber fan-out component.
    Fig. 7. Configuration of multi-core fiber fan-out component.
    Eccentric core fiber and three-core fiber Bragg gratings written by a phase mask.
    Fig. 8. Eccentric core fiber and three-core fiber Bragg gratings written by a phase mask.
    In-fiber integrated electro-optic intensity modulator.
    Fig. 9. In-fiber integrated electro-optic intensity modulator.
    Seven-core fiber multi-laser and experimental setup. (a) Lateral UV beams on seven-core fiber. (b) Ray trajectory of UV writing beam exposing all cores without obstruction. (c) Transmission spectrum of each core measured by a scanned laser. (d) Experimental setup for measuring the MC-DFB.
    Fig. 10. Seven-core fiber multi-laser and experimental setup. (a) Lateral UV beams on seven-core fiber. (b) Ray trajectory of UV writing beam exposing all cores without obstruction. (c) Transmission spectrum of each core measured by a scanned laser. (d) Experimental setup for measuring the MC-DFB.
    Optoelectronic photonic crystal fiber with a coaxial semiconductor junction. The junction is composed of several layers of silicon and germanium and is located in a hole adjacent to the fiber core.
    Fig. 11. Optoelectronic photonic crystal fiber with a coaxial semiconductor junction. The junction is composed of several layers of silicon and germanium and is located in a hole adjacent to the fiber core.
    Optofluidic micro system for chemiluminescence reaction monitoring.
    Fig. 12. Optofluidic micro system for chemiluminescence reaction monitoring.
    In-fiber integrated accelerometer.
    Fig. 13. In-fiber integrated accelerometer.
    Integrated micro-optic system for particle trapping and manipulating.
    Fig. 14. Integrated micro-optic system for particle trapping and manipulating.
    Hollow-core photonic bandgap fiber photothermal gas sensing system.
    Fig. 15. Hollow-core photonic bandgap fiber photothermal gas sensing system.
    Xiaotong Zhang, Tingting Yuan, Xinghua Yang, Chunying Guan, Jun Yang, Zhihai Liu, Hongchang Deng, Libo Yuan. In-fiber integrated optics: an emerging photonics integration technology [Invited][J]. Chinese Optics Letters, 2018, 16(11): 110601
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