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IMPROVEMENTS IN SPLICING POLARIZARION MAINTAINING FIBER

机译:拼接偏振纤维的改进

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The growing demand for advanced data, voice, and video transmitted through optical fibers has paved the way for a number of technological advances and solutions that increase bandwidth. Some of the more progressive solutions utilize polarization maintaining fibers, which has led to the exponential growth of its use and adoption within the industry. Polarization maintaining (PM) fibers are manufactured with high birefringence, which creates two perpendicular axes (typically referred to as the fast and slow axes) in which light can travel. The birefringence allows the polarization state of light to be controlled and manipulated. In order to take advantage of new advanced technologies, studies should focus on the ability to splice PM fiber to any other fiber to determine optimal splice conditions. This study will explain PM fiber, the applications that are most commonly using this fiber, improvements in heterogeneous and homogeneous splicing through the use of an extinction ratio (ER) feedback system, the benefits of aligning the polarization planes using an optical verification system (ER feedback) versus geometric profile alignment (image processing), ER estimation, and reductions in splicing cycle time. As the production of components that contain PM fiber moves from the lab to the manufacturing floor a number of process flow issues arise. Therefore, this study will also show how the ER feedback system will help reduce the number of steps required in the manufacturing and testing of optical components containing PM fiber. The extinction ratio is a measurement of the optical power traveling in the slow versus the fast axes. In order to splice PM fibers, splicing equipment must be able to align the polarization axes while achieving horizontal and vertical core alignment. Typically, fusion splicing equipment relies solely on image processing to view and align each fiber being spliced. This process aligns the geometric properties of the fiber, however, the optical path may differ resulting in decreases in the extinction ratio. With the variety of possible PM applications that are forthcoming improving the PM splicing process is desirable.
机译:通过光纤传输的高级数据,语音和视频的需求不断增长,为许多技术进步和解决方案提供了增加的带宽。一些更普通的解决方案利用偏振维持纤维,这导致了其在业内使用和采用的指数增长。偏振保持(PM)纤维以高双折射制造,其产生两个垂直轴(通常称为快速和慢速轴),其中光可以行进。双折射允许控制和操纵光的偏振状态。为了利用新的先进技术,研究应专注于将PM光纤接触到任何其他光纤以确定最佳剪接条件的能力。本研究将解释PM光纤,通过使用消光比(ER)反馈系统,通过使用光学验证系统(ER)来对准偏振平面的益处(ER反馈)与几何轮廓对齐(图像处理),ER估计和剪接循环时间的减少。作为生产PM光纤从实验室移动到制造地板的组件的生产,出现了许多过程流动问题。因此,本研究还将显示ER反馈系统如何有助于减少含PM光纤的光学元件的制造和测试所需的步骤数量。消光比是在慢速与快速轴中行进的光功率的测量。为了剪接PM纤维,拼接设备必须能够使偏振轴对准,同时实现水平和垂直核心对准。通常,熔接设备完全依赖于图像处理以查看和对准每个纤维拼接。该过程对准光纤的几何特性,然而,光路可能不同导致消光比率降低。利用即将提高PM拼接过程的各种可能的PM应用是可取的。

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