Single-mode Segmented Cladding Chalcogenide Glass Fiber with Ultra-large Mode Area

Small core size in conventional single mode step-indexed chalcogenide fiber could reduce the ability of mid-infrared (mid-IR) laser power delivery due to its limitation of power density. An effective way to solve the problem is to increase mode area with large core size, but this may degrade the bea...

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Veröffentlicht in:Journal of lightwave technology 2023-09, Vol.41 (17), p.1-7
Hauptverfasser: Peng, Qianqian, Sheng, Junkai, Yang, Keyu, Wang, Xiange, Sun, Weilu, Wang, Yuze, Liang, Xiaolin, Jiao, Kai, Bai, Shengchuang, Zhao, Zheming, Liu, Zijun, Zhang, Peiqing, Wang, Rongping, Nie, Qiuhua, Wang, Xunsi
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container_end_page 7
container_issue 17
container_start_page 1
container_title Journal of lightwave technology
container_volume 41
creator Peng, Qianqian
Sheng, Junkai
Yang, Keyu
Wang, Xiange
Sun, Weilu
Wang, Yuze
Liang, Xiaolin
Jiao, Kai
Bai, Shengchuang
Zhao, Zheming
Liu, Zijun
Zhang, Peiqing
Wang, Rongping
Nie, Qiuhua
Wang, Xunsi
description Small core size in conventional single mode step-indexed chalcogenide fiber could reduce the ability of mid-infrared (mid-IR) laser power delivery due to its limitation of power density. An effective way to solve the problem is to increase mode area with large core size, but this may degrade the beam quality. In this work, a novel mid-IR segmented cladding fiber (SCF) with leakage structure based on chalcogenide glasses was proposed to obtain large mode area, as well as single-mode condition. The leakage loss and effective mode area of the SCF was analyzed by optimizing the segment number N , duty cycle γ and core radius r . The results show that, when N =4, γ=75% and r =33 μm, the mode area is more than 2000 μm 2 in the wavelength range of 3-10 μm and the loss ratio of high order modes (LP 11 ) to fundamental mode (LP 01 ) is more than 300, indicating the SCF can achieve single-mode operation with a large core. Then, a mid-IR SCF was fabricated via an extrude-and-stack technique based on chalcogenide glasses for the first time. The minimum fiber loss is 3.1 dB/m at 8.6 μm, the bend loss is 3 dB when bend radius is 6 mm. Compared with that in the traditional step-index single-mode fiber, it was found that, the mode area in SCF can be increased over 15 times. All these results demonstrate the SCF possesses the potential of high-power mid-IR laser transmission.
doi_str_mv 10.1109/JLT.2023.3268211
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An effective way to solve the problem is to increase mode area with large core size, but this may degrade the beam quality. In this work, a novel mid-IR segmented cladding fiber (SCF) with leakage structure based on chalcogenide glasses was proposed to obtain large mode area, as well as single-mode condition. The leakage loss and effective mode area of the SCF was analyzed by optimizing the segment number N , duty cycle γ and core radius r . The results show that, when N =4, γ=75% and r =33 μm, the mode area is more than 2000 μm 2 in the wavelength range of 3-10 μm and the loss ratio of high order modes (LP 11 ) to fundamental mode (LP 01 ) is more than 300, indicating the SCF can achieve single-mode operation with a large core. Then, a mid-IR SCF was fabricated via an extrude-and-stack technique based on chalcogenide glasses for the first time. The minimum fiber loss is 3.1 dB/m at 8.6 μm, the bend loss is 3 dB when bend radius is 6 mm. 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ispartof Journal of lightwave technology, 2023-09, Vol.41 (17), p.1-7
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source IEEE Electronic Library (IEL)
subjects Bend radius
Chalcogenide glass
Chalcogenides
Cladding
Claddings
Germanium
Glass
Glass fibers
Infrared lasers
large mode
Leakage
Optical fiber devices
Optimization
Refractive index
segmented cladding fiber
single mode fiber
Single mode operation
title Single-mode Segmented Cladding Chalcogenide Glass Fiber with Ultra-large Mode Area
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