Design of small-area transimpedance optical receiver module for optical interconnects

J. Sangirov, I. Ukaegbu, N. Nguyen, Tae-Woo Lee, M. Cho, Hyo-Hoon Park
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引用次数: 1

Abstract

The development and miniaturization of electronic devices and components is pushing the system devices and their interconnecting interfaces to become even smaller. Thus, reducing the size of receiver (Rx) and transmitter (Tx) chips plays an plays an important role in designing a small-size optical modules utilized in o/e and e/o converters. Therefore, designing a small-area optical Rx may require intuitive solutions, such as building single-ended Rx and utilizing some of the advantages of differential Rx. Optical Rx should convert optical input signal to voltage output signal and provide sufficient gain and frequency operation for feeding to subsequent blocks including clock and data recovery circuit (CDR) and/or Serializer and Deserializer (SerDes). Therefore, we have designed a small-area transimpedance optical receiver (TIORx) using regulated-cascode (RGC) as an input stage which converts input photocurrent to voltage signal. The RGC block is connected to post amplifying stages to increase the overall transimpedance gain of the TIORx. The post amplifying gain stages utilizes two intersecting active feedback in order to increase the frequency operation in addition to increasing the gain of the proposed TIORx chip. The TIORx module is designed in a 0.13μm CMOS technology and works up to 10 Gbps data rate. The TIORx chip core occupies an area of 0.051mm2 with power consumption of 16.9 mW at 1.3 V. A measured 3-dB bandwidth of 6.9 GHz was obtained for the TIORx module with a transimpedance gain of 60 dBQ.
光互连用小面积透阻光接收模块的设计
电子设备和元件的发展和小型化正在推动系统设备及其互连接口变得更小。因此,减小接收(Rx)和发送(Tx)芯片的尺寸对于设计用于o/e和e/o转换器的小尺寸光模块具有重要作用。因此,设计一个小面积的光学Rx可能需要直观的解决方案,例如构建单端Rx和利用差分Rx的一些优点。光学Rx应将光输入信号转换为电压输出信号,并提供足够的增益和频率操作,以馈送到后续模块,包括时钟和数据恢复电路(CDR)和/或串行和反串行器(SerDes)。因此,我们设计了一个小面积透阻光接收器(TIORx),使用调节级联码(RGC)作为输入级,将输入光电流转换为电压信号。RGC模块连接到后放大级,以增加TIORx的整体跨阻增益。后放大增益级利用两个相交的有源反馈,除了增加所提出的TIORx芯片的增益外,还增加了频率操作。TIORx模块采用0.13μm CMOS技术设计,数据速率高达10gbps。TIORx芯片核心面积为0.051mm2, 1.3 V时功耗为16.9 mW。TIORx模块测量到的3db带宽为6.9 GHz,跨阻增益为60 dBQ。
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