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光纖分路器箱（Optical Fiber Splitter Box）是用於光纖通信系統中的光纖分配和連接的重要設備。它常用於以下幾個應用領域：光纖接入網絡（FTTx）：光纖分路器箱在光纖到戶（FTTH）和光纖到樓（FTTB）等光纖接入網絡中扮演關鍵角色。它用於將光纖訊號分配給不同的用戶或樓宇，並提供光纖連接點，使得用戶可以接入高速寬頻網路。

3-D Printing Optical Fiber

Molly Moser X Researchers used 3-D printing to make preforms for a step-index fiber (a) and a structured preform (b). These preforms were then placed in a draw tower (right) to make the final optical fiber. [Image: John Canning, University of Technology Sydney] The entire global telecommunications network, not to mention the ever-expanding Internet-of-Things (IOT), is tied together with string—silica optical fiber. Manufacturing this crucial connector is a laborious process, one that a research team in Australia believes it may have re-invented. Researchers at the University of Technology Sydney and the University of New South Wales have demonstrated a way to 3-D print a glass preform for fabricating glass optical fiber (Opt. Lett., doi: 10.1364/OL.44.005358). This method, according to the team, simplifies fiber production as well as enabling both novel fiber designs and applications. The art of drawing fiber Silica optical fiber has a multitude of applications, but it’s expensive and labor-intensive to make. It comprises two parts: the fiber core that carries light, and the cladding that traps the light in the core as it travels through the fiber. In order to minimize loss and keep the light trapped in the core, the fiber core must have a higher refractive index than the fiber cladding. Conventional methods of constructing the preform through which optical fiber can be drawn require spinning a hollow tube of glass with a carefully controlled refractive index profile on a lathe over a heat source. It’s essential that the fiber geometry is precisely centered during this process. 3-D printing the preform instead is thus a very attractive alternative—one that several members of the Australian team have been working toward for a while. Several years ago, the team successfully demonstrated the first fiber drawn from a 3-D-printed polymer preform. Applying this additive-manufacturing technique to glass, however, presents a tricky manufacturing challenge, as 3-D printing glass requires temperatures of more than 1900 °C. Researchers shone green light through the final optical fiber and measured loss. The orange inset shows a fiber cross-section. [Image: John Canning, University of Technology Sydney] Printing glass To apply the approach to glass, the team behind the latest study added silica nanoparticles into the photo-curable resin. The researchers then used direct-light projection (DLP) to 3-D print the cladding preform with UV light at 385 nm, and poured a clever mixture of polymer and silica nanoparticles—this time doped with germanosilicate—into the hollow, cylindrical preform. The addition of the germanosilicate to the core resin upped the refractive index. To overcome the heat quandary, the researchers applied a thermal debinding process. The debinding sloughs off the polymer and other impurities, leaving the silica nanoparticles behind, which are held together by intermolecular forces. Kicking up the heat even more, the researchers then fused the nanoparticles into a solid structure that could be inserted into a draw tower to be molded into the optical fiber. According to the team, the end result was the first silica fibers drawn from 3-D-printed preforms. Scattering and next steps To test the quality of the first-of-its-kind fiber, the researchers shone 532-nm green light through 2 meters of both single-mode and multimode fiber—and measured significant loss. But while the team concedes that there is “considerable scope to improve the transmission properties of this fiber,” the researchers also believe that the relative ease with which the fiber was created could make the technique a game changer for future fiber fabrication. In particular, the team suspects that this new method could enable the production of incredibly complex multicore and multi-shaped fiber designs for previously unrealizable applications. According to a press release accompanying the work, the researchers are interested in partnering with a fiber manufacturer to improve and eventually commercialize the technology.

以太网/数据连接

发布时间：

2022-12-08 18:11

以太网/数据连接

· 通信网络柜

G/MPX-P05-KB　110跳线架　 G/MPX-P05-G　G/MPX-WM64**

· 19″标准安装；采用优质电解钢板，表面静电喷涂，整体刚性好，色彩协调，美观大方.
· 有多种规格组合：高度：6U-56U；宽度: 600mm, 800mm 系列; 深度: 450mm, 600mm,800mm,900mm,1000mm series
· 有各种配置供选择：110跳线架、六类配线架、交直流配电模块、电源插座等，散热风扇承重托板、理线架、光纤单元等

· 以太网配线产品

· 超五类
· 110跳线架(Cat.5e & Cat.6)

· ETSI标准配线盘

FTR-P04B(C)　FTR-P05(A) and STR-P05　FTR-P06　FTR-P10　MFTR-P03　MFTR-P04　MFTR-P06A　FSR-P04　FSR-P05(A)　FSR-P06　FSR-P09

· 模块化设计满足了目前要求及未来扩容需求
· 有效的曲率半径控制
· 熔接/配线/储纤，同时提供光分路器实现光功率的分配
· 应用于19’ (48.26 cm) 机架或箱体安装方式，通过调整侧耳位置应用于23’ 机架安装
· 适用于多种型号不同容量的单元箱

· 19''75Ω 数字配线单元

19SMDY-P04　19FSDY-P01H　19FSDY-P01L

· 19″齐平安装，适用于19″网络机柜
· 可选择的L9、C6 系列镀金的75Ω同轴连接器，接触电阻低，插拔可靠
· 机架内有充足的布线和走线空间，每个数字单元体均有过线装置，使走线清晰，整齐，维护方便
· 单元体可向下翻转90°或者180°，易于电缆成端

· 交/直流电源配电模块

PD04 ,PD05 Type Power Distribution Unit

· 柏业交/直流电源配电模块为网络中各类电源设备提供稳定的配电和保护功能，产品经测试符合UL标准。空气开关可按客户要求设置以满足各网络设备的需求。在每个配电模块内，空气开关流量可自由组合。流量及分路数量按用户要求配置，单路最大流量≤125A；分路数量≤18路。
· 适用于19’ (48.3 cm)或23’ (58.4 cm) WECO和EIA 机架安装

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