基于相位插值器的时钟和数据恢复与抖动优化

IF 2.4 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE open journal of circuits and systems Pub Date : 2023-01-01 DOI:10.1109/OJCAS.2023.3295649
George Souliotis;Andreas Tsimpos;Spyridon Vlassis
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引用次数: 1

摘要

本文提出了一种抖动分析方法,旨在优化基于相位插值器(PI)的时钟和数据恢复电路(CDR)。将该方法应用于以CMOS TSMC 65nm工艺节点设计的8位双环CDR的优化设计。CDR基于相位分辨率方面的扩展版本,并在本工作中提出了一种新的PI拓扑。所提出的CDR环路在5.83Gbps下具有等于500ppm的最小频率偏移跟踪能力,因此适合用于中时或准时高速串行接口(HSSI)接收器。它在1 V电源电压下消耗14.2 mW,并且能够实现优于10−10误码率(BER)的性能。CDR环路性能验证已通过Cadence模拟设计环境的AMS模拟器,通过与基于Verilog AMS的抖动发生器共同模拟晶体管级CDR电路来实现。
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Phase Interpolator-Based Clock and Data Recovery With Jitter Optimization
In this paper, it is proposed a jitter analysis methodology, targeting on the optimization of a phase interpolator (PI) based clock and data recovery circuit (CDR). The methodology is applied for the optimized design of an 8-bit dual-loop CDR, designed with the CMOS TSMC 65 nm process node. The CDR is based on an extended, in terms of phase resolution, version, with a novel PI topology proposed in this work. The proposed CDR loop has a minimum frequency offset tracking ability equal to 500ppm at 5.83 Gbps, and so is suitable for adoption either in mesochronous or plesiochronous High Speed Serial Interface (HSSI) receivers. It consumes 14.2 mW with 1 V supply voltage and is able to achieve better than 10−10 Bit Error Rate (BER) performance. The CDR loop performance verification has been realized through the AMS simulator of Analog Design Environment of Cadence, by co-simulations of the transistor level CDR circuit with the Verilog-AMS based jitter generator.
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