高速I/ o和锁相环数据通信应用

K. Iniewski, S. Mirabbasi
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引用次数: 0

摘要

目前,有线通信业正在开发传输速率超过10gb /s的通信系统。混合信号电路需要通过高速串行接口发送和接收Gb/s的信号,并合成和恢复GHz时钟,通常使用锁相环路电路。本教程将从为高速串行链路应用程序设置系统环境开始。将讨论从OC-48 (2.488 Gb/s)过渡到OC-192 (9.953 Gb/s或10.7 Gb/s,使用前向纠错)的长途和城域网。局域网从1.25 Gb/s以太网I/ o升级到10.3 Gb/s以太网I/ o。介绍磁盘驱动器和san (storage area network)向10.5 Gb/s光纤通道接口的移动。下面是对芯片到芯片数据传输方案的简要概述,重点是串行I/O。然后讨论锁相环设计的基本原理。首先,给出了(基于电荷泵的)锁相环系统的总体系统规格。简要介绍了开环和闭环锁相环传递函数。讨论了回路稳定性和抖动源。讨论了电压控制振荡器(vco)、相频检测器(pfd)和电荷泵等电路模块的设计问题。描述了基于锁相环的关键系统,例如时钟同步器和时钟/数据恢复(CDR)。本教程以讨论和设计串行链路的输出驱动和接收器输入块的问题结束。描述了预强调和均衡的概念。讨论了I/O终止和ESD保护的实现方案。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High-speed I/Os and PLLs for data communication applications
The wireline communication industry is working on the communication systems with data rates of beyond 10 Gb/s. Mixed-signal circuits are required to transmit and receive Gb/s signals over high-speed serial interfaces, and to synthesize and recover GHz clocks, typically using phase-locked loop circuitry. This tutorial will start with setting up a system environment for high-speed serial link applications. Long-haul and metropolitan area networks undergoing transition from OC-48 (2.488 Gb/s) to OC-192 (9.953 Gb/s or 10.7 Gb/s using forward error correction) will be discussed. Upgrades of local area networks (LANs) from 1.25 Gb/s to 10.3 Gb/s Ethernet I/Os are mentioned. Movement of disk drives and storage area networks (SANs) to 10.5 Gb/s Fibre Channel interfaces is described. A brief overview of chip to chip data transfer schemes follows, with an emphasis on the serial I/O. Then fundamentals of phase-locked loop (PLL) design will be discussed. First, the overall system specification for (charge-pump based) PLL systems is presented. Openand closed-loop PLL transfer functions are briefly reviewed. Loop stability and jitter sources are discussed. Design issues for circuit blocks like voltagecontrolled oscillators (VCOs), phase-frequency detectors (PFDs) and charge pumps are discussed. Key PLL based systems, e.g., Clock Synchronizer and Clock/Data Recovery (CDR), are described. The tutorial ends with discussion and design issues of output driver and receiver input blocks of serial links. Pre-emphasis and equalization concepts are described. Implementation schemes for I/O termination and ESD protection are discussed.
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