5Gb/s收发器,基于adc的前馈CDR和CMA自适应均衡器,采用65nm CMOS

H. Yamaguchi, H. Tamura, Y. Doi, Y. Tomita, T. Hamada, M. Kibune, Shuhei Ohmoto, Keita Tateishi, Oleksiy Tyshchenko, A. Sheikholeslami, Tomokazu Higuchi, J. Ogawa, Tamio Saito, H. Ishida, K. Gotoh
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引用次数: 33

摘要

在消费市场的应用中,对高带宽和稳定的性能有很高的要求。基于adc的收发器可以满足这些需求,并通过工艺实现功率/面积缩放[1,2]。我们开发并测试了65纳米CMOS扩频时钟(SSC)兼容的5gb /s收发器。接收机采用基于adc的前端,无需调整采样时钟与信号之间的相位关系即可对输入信号进行采样,因此无需对采样时钟进行相位控制(图8.7.1)。输入信号的相位跟踪和数据判定完全在数值域中进行,不产生物理采样时钟相位。自适应数字FFE(前馈均衡器)补偿2.5 GHz时高达15dB的信道损耗,使用基于CMA(恒模算法)的片上自适应控制器。当发射器和接收器时钟信号在30 kHz的调制频率下独立ssc调制,频率偏差为0到- 5000ppm时,CDR的误码率小于1E-12。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A 5Gb/s transceiver with an ADC-based feedforward CDR and CMA adaptive equalizer in 65nm CMOS
A high bandwidth and a robust performance are demanded in the consumer market applications. An ADC-based transceiver satisfies these demands and enables power/area scaling with process [1,2]. We developed and tested a spread-spectrum-clocking (SSC) compliant 5-Gb/s transceiver in 65-nm CMOS. The receiver uses an ADC-based front-end that samples the incoming signal without adjusting the phase relation between the sampling clock and the signal, hence eliminating the need for phase control of the sampling clock (Fig. 8.7.1). The phase tracking of the incoming signal and the data decision are performed entirely in the numerical domain without generating physical sampling-clock phases. An adaptive digital FFE (feed-forward equalizer) compensates for a channel loss up to 15dB at 2.5 GHz, using an on-chip adaptation controller based on CMA (constant-modulus algorithm). The CDR operated with BER less than 1E-12 when the transmitter and receiver clock signals were independently SSC-modulated at a modulation frequency of 30 kHz with a frequency deviation of 0 to −5000ppm.
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