Proposal for all Optical Memory Unit and Phase Key Recovery using Fabry-Perot Narrowband Filters

V. Gopakumar, K. Neetha, Prasanth P Menon, Remya Ramesh
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Abstract

The current technologically vibrant world is demanding more data transfer, data communications and optical computing. Main focus areas are high-definition internet video streaming, image processing, sensing applications, distance learning and in cloud computing. Since last decade we use optical communication technologies for above mentioned bandwidth hungry applications. The biggest advantage of processing the information in the all-optical domain is the availability of huge bandwidth and of course it's ultrahigh processing speeds even for future technologies including 5G. Fiber Bragg grating is widely used for filtering and sensing applications. In order to meet with the high bandwidth requirements for the applications mentioned above, the fiber Bragg gratings are replaced with ultra-narrowband filters like Fabry-Perot filters using fiber Bragg gratings. This article reports a Fabry-Perot narrow band filter using fiber Bragg grating (FP-FBGs) can be designed for all optical memory unit and for detecting the phase keys encrypted in the optical intensity waveforms. All optical integrators are used for both these applications. We also report here the phase key decryption by inputting Double Gaussian to an optical integrating circuit. The optical encryption methods are getting very much attraction in the present days. In order to overcome the fabrication difficulty for optical data encoding in both amplitude and phase regimes, here we propose the decrypting phase keys method where the data is entirely in phase only domain.
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采用Fabry-Perot窄带滤波器的全光存储单元和相位密钥恢复方案
当今技术蓬勃发展的世界需要更多的数据传输、数据通信和光计算。主要关注的领域是高清互联网视频流、图像处理、传感应用、远程学习和云计算。自过去十年以来,我们使用光通信技术用于上述带宽饥渴的应用。在全光领域处理信息的最大优势是巨大带宽的可用性,当然,即使对于包括5G在内的未来技术来说,它的处理速度也是超高的。光纤光栅广泛应用于滤波和传感领域。为了满足上述应用的高带宽要求,光纤Bragg光栅被使用光纤Bragg光栅的超窄带滤波器(如Fabry-Perot滤波器)所取代。本文报道了一种采用光纤布拉格光栅(fp - fbg)的法布里-珀罗窄带滤波器,可用于所有光存储单元和检测光强波形中加密的相位密钥。所有的光学积分器都用于这两种应用。本文还报道了通过向光学集成电路输入双高斯信号来解密相位密钥的方法。目前,光学加密技术正受到越来越多的关注。为了克服光数据在振幅和相位两种情况下编码的制作困难,我们提出了一种完全处于相位域的解密相位密钥的方法。
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