Low cost 500Gbps transmission for datacenter applications

W. Mao, U. Koren, S. Rochus, E. Flynn, R. Hartman, D. Feng, D. Lee, W. Qian, C. Kung, H. Liang, J. Fong, B. Luff, M. Asghari
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Abstract

This paper describes the development of a transmitter and receiver leveraging a combination of monolithic and hybrid integration for Datacenter applications to deliver 500Gbps over 2km on a single mode fiber. The transmitter encompasses 12 electro-absorptive modulated lasers (EMLs) with wavelength channels from 1270nm to 1380nm on a 10nm channel grid. The lasers are grouped in three (3) arrays with each array monolithically integrating four (4) EMLs operating at 43Gbps each. The three EML arrays are flip-chip bonded to a planar light-guide circuit (PLC), which serves as the mounting platform and provides the optical multiplexer function. The receiver couples the signal through an optical PLC-based de-multiplexer to twelve (12) high-speed PIN detectors with a 3dB bandwidth of more than 50GHz. The transmission tests were performed over 2km of SMF with each channel tested at 40Gbps. For the demonstration, a commercial semiconductor optical amplifier was used in front of the receiver to boost the signal. Each channel was tested to be error free to <10−11 BER with most <10−12 BER. The total cross-talk was measured to be between 1 and 2dB. The channel spacing of 10nm was chosen to enable a low cost transmitter operation without using Thermo-Electric-Coolers (TEC) in order to reduce the overall power dissipation. Instead of a TEC, resistive heating can be used to limit the temperature excursions and to enable an operating range of the TOSA from −5 to +75 deg C. This technology demonstration is a step towards the final goal of 1 Terabit/s transmission for Datacenter applications.
数据中心应用的低成本500Gbps传输
本文描述了一种利用单片和混合集成相结合的发射器和接收器的开发,用于数据中心应用,在单模光纤上提供超过2km的500Gbps。发射器包含12个电吸收调制激光器(eml),波长通道从1270纳米到1380纳米,在10nm通道网格上。激光器分为三(3)个阵列,每个阵列单片集成4(4)个eml,每个eml运行速度为43Gbps。三个EML阵列倒装到平面光导电路(PLC)上,作为安装平台并提供光多路复用功能。接收器通过基于plc的光解复用器将信号耦合到12个高速PIN检测器,带宽超过50GHz,带宽为3dB。传输测试在2公里的SMF上进行,每个通道以40Gbps的速度进行测试。为了演示,在接收器前面使用了一个商用半导体光放大器来增强信号。每个通道被测试为无误差,小于10−11误码率,大多数小于10−12误码率。总的串扰测量在1到2dB之间。选择10nm的通道间距是为了在不使用热电冷却器(TEC)的情况下实现低成本的发射机操作,从而降低总体功耗。代替TEC,电阻加热可以用来限制温度偏差,并使TOSA的工作范围从- 5到+75摄氏度。这项技术演示是朝着数据中心应用1太比特/秒传输的最终目标迈出的一步。
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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