• Acta Optica Sinica
  • Vol. 40, Issue 20, 2006002 (2020)
Jianbin Huang1、2、*, Danping Chu2, Dapeng Zhang2, and Xinglong Wang2
Author Affiliations
  • 1School of Precision Instruments and Optoelectronics Engineering, Tianjin University, Tianjin 300072, China
  • 2Advance Fiber Resources (Zhuhai), Ltd., Zhuhai, Guangdong 519080, China
  • show less
    DOI: 10.3788/AOS202040.2006002 Cite this Article Set citation alerts
    Jianbin Huang, Danping Chu, Dapeng Zhang, Xinglong Wang. Tensile-Strength Enhancement of Optical Fibers after Fused Biconical-Taper Processing[J]. Acta Optica Sinica, 2020, 40(20): 2006002 Copy Citation Text show less
    Simulation results for the combustion of hydrogen-oxygen mixture. (a) Simulation model; (b) temperature distribution of flame; (c) temperature distribution at Y=4 mm; (d) temperature distribution at X=0 mm
    Fig. 1. Simulation results for the combustion of hydrogen-oxygen mixture. (a) Simulation model; (b) temperature distribution of flame; (c) temperature distribution at Y=4 mm; (d) temperature distribution at X=0 mm
    Simulation results of intra-stress distribution of optical fiber. (a) Simulation model; (b) temperature distribution used during simulation process; (c) cooling curve of the fiber; (d) intra-stress distribution when the cooling time is 5 s; (e) intra-stress distribution varying with the cooling time; (f) tendency of intra-stress at X=0 mm with cooling time and tendency of intra-stress difference between X=2 mm and X=0 mm
    Fig. 2. Simulation results of intra-stress distribution of optical fiber. (a) Simulation model; (b) temperature distribution used during simulation process; (c) cooling curve of the fiber; (d) intra-stress distribution when the cooling time is 5 s; (e) intra-stress distribution varying with the cooling time; (f) tendency of intra-stress at X=0 mm with cooling time and tendency of intra-stress difference between X=2 mm and X=0 mm
    Experimental setup. (a) Heating setup; (b) bending setup
    Fig. 3. Experimental setup. (a) Heating setup; (b) bending setup
    Results of the bending test when the cooling time is 10 s. (a) Distribution of the bending diameter when the fiber is fractured; (b) distribution of the distance between the fiber fracture point and the flame center
    Fig. 4. Results of the bending test when the cooling time is 10 s. (a) Distribution of the bending diameter when the fiber is fractured; (b) distribution of the distance between the fiber fracture point and the flame center
    Results of the bending test when the cooling time is 600, 1200, 1500 s. (a) Distribution of the bending diameter when the fiber is fractured with the cooling time of 600 s; (b) distribution of the distance between the fiber fracture point and the flame center with the cooling time of 600 s; (c) distribution of the bending diameter when the fiber is fractured with the cooling time of 1200 s; (d) distribution of the bending diameter when the fiber is fractured with the cooling time of 1500 s
    Fig. 5. Results of the bending test when the cooling time is 600, 1200, 1500 s. (a) Distribution of the bending diameter when the fiber is fractured with the cooling time of 600 s; (b) distribution of the distance between the fiber fracture point and the flame center with the cooling time of 600 s; (c) distribution of the bending diameter when the fiber is fractured with the cooling time of 1200 s; (d) distribution of the bending diameter when the fiber is fractured with the cooling time of 1500 s
    Jianbin Huang, Danping Chu, Dapeng Zhang, Xinglong Wang. Tensile-Strength Enhancement of Optical Fibers after Fused Biconical-Taper Processing[J]. Acta Optica Sinica, 2020, 40(20): 2006002
    Download Citation