Photonic-enabled millimeter-wave F-band wireless link using photonic integrated circuits

G. Carpintero, R. Guzman, C. Gordón, K. Lawniczuk, X. Leijtens
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Abstract

Millimeter-waves (30-300 GHz) have interest due to the wide bandwidths available for carrying information, enabling broadband wireless communications. Photonics is a key technology for millimeter wave signal generation, recently demonstrating the use of photonic integration to reduce size and cost. In this paper, we present two dual-wavelength Photonic Integrated Circuit structures designed for signal generation using the optical heterodyne technique. We demonstrate a 1 Gbps data rate wireless link that does not require any stabilization scheme to lock the two wavelengths. Both integrated dual-wavelength sources are based on an Arrayed Waveguide Grating element. A novel building block-Multimode Interference Reflectors - is used to integrate on-chip one of these structures, without need of cleaved facets to define the laser cavity. This fact enables us to locate any of these structures at any location within the photonic chip.
使用光子集成电路的光能毫米波f波段无线链路
毫米波(30-300千兆赫)由于可用于携带信息的宽带带宽而受到关注,从而实现宽带无线通信。光子学是毫米波信号产生的关键技术,最近证明了使用光子集成来减小尺寸和成本。在本文中,我们设计了两种双波长光子集成电路结构,用于利用光外差技术产生信号。我们演示了一个1 Gbps数据速率的无线链路,不需要任何稳定方案来锁定两个波长。两种集成的双波长光源都基于阵列波导光栅元件。一种新的构建模块-多模干涉反射器-被用于集成芯片上的这些结构之一,而不需要切割面来定义激光腔。这一事实使我们能够在光子芯片的任何位置定位这些结构中的任何一个。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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