Manufacturing method of optical fiber and optical fiber
A manufacturing method and fiber optic technology, which can be applied to glass fibers, manufacturing tools, clad fibers, etc., and can solve problems such as winding collapse
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Embodiment 1
[0089] Using a large optical fiber preform M with Δβ of 9300 rad / m, an optical fiber with a total length of 2000 km was produced at a drawing speed of 2000 m / min, and wound on the winding bobbin 7 . That is, the "winding length (see Table 1)" wound around the winding bobbin 7 was 2000 km. For the Young's modulus of the cover material used at this time, the main layer is E p =1.0MPa, sublayer is E s = 1000 MPa. The outer diameter of the bare optical fiber is The outer diameter r of the main layer p for The outer diameter of the sublayer r s for The winding conditions were as follows: the winding tension F was 100 gf, and the winding thickness h was 50 mm. Use a diameter D of winding bobbin. The material of the winding bobbin 7 is aluminum, and the bobbin surface coefficient in this case is μ=3. The "winding time (see Table 1)" from the start of spinning to the end of spinning was 33.3 hours. In addition, the "storage time (see Table 1)" from the completion of spi...
Embodiment 2
[0093] Using a large optical fiber preform M with Δβ of 9300 rad / m, an optical fiber with a total length of 2000 km was produced at a drawing speed of 2000 m / min, and wound on the winding bobbin 7 . For the Young's modulus of the cover material used at this time, the main layer is E p =1.0MPa, sublayer is E s = 1000MPa. The outer diameter of the bare optical fiber is The outer diameter r of the main layer p for The outer diameter of the sublayer r s for The winding conditions were as follows: the winding tension F was 100 gf, and the winding thickness h was 50 mm. Use a diameter D of winding bobbin. The material of the winding bobbin 7 is aluminum, and the bobbin surface coefficient in this case is μ=3. Holding time T from the start of spinning until the completion of unwinding in the next process w for 120 hours.
[0094] The result is: Covering Coefficient K coat is 1196, the strain sensitivity factor T ε / KL for 936. And, the monolayer strain ε n At the bo...
Embodiment 3
[0101] Using a large optical fiber preform M with Δβ of 9300 rad / m, an optical fiber with a total length of 2000 km was produced at a drawing speed of 2000 m / min, and wound on the winding bobbin 7 . For the Young's modulus of the cover material used at this time, the main layer is E p =1.0MPa, sublayer is E s = 1000 MPa. The outer diameter of the bare optical fiber is The outer diameter r of the main layer p for The outer diameter of the sublayer r s for The winding conditions were as follows: the winding tension F was 120 gf, and the winding thickness h was 50 mm. Use a diameter D of winding bobbin. The material of the winding bobbin 7 is aluminum, and the bobbin surface coefficient in this case is μ=3. Holding time T from the start of spinning until the completion of unwinding in the next process w for 100 hours.
[0102] The result is: Covering Coefficient K coat is 1196, the strain sensitivity coefficient T ε / KL for 936. And, the monolayer strain ε n At ...
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