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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.

光缆组件及光纤连接解决方案

发布时间：

2022-12-08 18:11

光缆组件及光纤连接解决方案

拥有光纤制造、加工行业11年经验，我们的产品从单芯、多芯跳线至连接器、衰耗器、适配器及熔接保护套管等组件。我们还拥有更具特色、应用于FTTH的现场快速接头和皮线光缆产品。柏业是您最好的选择！

· 跳线及多芯光缆组件

单芯跳线　双芯跳线　多芯配线室内缆组件 (4-48)(16-144)　多芯分支室内缆组件(4-12)(16-72)　带状光缆组件　防水尾缆组件

以较快的响应时间、有竞争力的价格，柏业始终致力于为客户提供行业领先的产品性能、及客制化的应用要求。经100%的光学测试，我们的尾纤及光缆各组件具有优异的性能指标;连接器几何端面通过先进的抛光技术、端面清洁系统进行控制适用于多种型号的连接器及光缆使用高质量的材料，康宁单模光缆及YOFC多模光缆每一跳线的外包装上清晰地注明了产品序列号，并包含了具体测试而得的插入损耗和回波损耗值，产品可追溯其具体的生产日期、使用的材料和加工工艺

性能指标:

单模UPC	FC/SC/ST/E2000	LC	MU
插入损耗 (最大值) (1310& 1550nm) (dB)	0.3	0.3	50
回波损耗(最小值) (1310&1550nm) (dB)	50	50	50
下凹量 (nm)	-100~+50	-100~+50	-100~+50
球面偏心量 (最大值) (μm)	50	50	50
曲率半径 (mm)	10~25	10~25	10~25
单模APC	FC/SC/E2000	LC	MUMU
插入损耗 (最大值) (1310&1550nm) (dB)	0.3	0.3	0.3
回波损耗(最小值) (1310&1550nm) (dB)	60	60	60
回波损耗(最小值) (1310&1550nm) (dB)	5~15	5~15	5~15
下凹量(nm)	-100 ~ +50	-100 ~ +50	-100 ~ +50
偏心量 (最大值) (μm)	50	50	50
斜角度 (°)	8±0.2	8±0.2	8±0.2
多模 PC	FC/SC/ST	LC	MTRJ
插入损耗 (最大值) (1310nm) (dB)	0.3	0.3	0.5

注意:
1. 对于所有连接器，其插入损耗和回波损耗均经过100%测试。
2. 对于下凹量和曲率半径,属于过程控制，进行抽检。

· 适配器

柏业可提供多种独立适配器面板和适配器，适用于壁挂和机架安装，也可提供整套空面板。(图)
柏业可提供各种标准适配器用于单模SC、FC、LC、MU和ST、MTRJ型连接器，用于多模ST、MTRJ、FC、SC和LC型连接器，还可提供FC-SC、ST-SC、FC-ST、LC-SC等混合型适配器。 (图)
SM标准适配器采用ZrO2套筒，MM采用磷青铜套筒。
100% 严格测试以保证其使用性能。

· 衰耗器

法兰盘式衰耗器　一公一母式衰耗器　在线式衰耗器

· 用于光无源信号的衰减
· 保护设备避免多余的光信号
· 有法兰盘式、一公一母式、在线式三种结构
· 严格测试以满足光网络需求

· 现场快速接头和皮线光缆

铠装皮线光缆　现场快速接头

· 各类附件

连接器/适配器清洁套件　熔接保护套管　熔接片、熔接盘

柏业可提供应用于光学设备中的连接器/适配器清洁套件、熔接保护套管、熔接片、熔接盘等附件。

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