采用混合控制方案的全数字桌面缓冲器

Ting-Li Chu, W. Chu, Yasuyoshi Fujii, Chorng-Sii Hwang
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引用次数: 2

摘要

本文提出了一种采用混合控制方案的桌面缓冲,以减少锁定时间。并提供了占空比校正功能,以满足数字系统时钟的一般要求。在时间-数字转换器和逐次逼近寄存器的帮助下,该电路可以加快锁定过程。采用台积电0.18 μm CMOS工艺设计并实现,验证了其低功耗的可行性。核心电路的面积为0.13 mm2。仿真结果表明,输入时钟频率在115~385 MHz范围内,占空比为15~85%。它还可以对PVT的变化以闭环的方式执行倾斜函数。
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All-digital deskew buffer using a hybrid control scheme
This paper presents a deskew buffer using a hybrid control scheme to reduce the locking time. The function of duty cycle correction is provided as well to meet the common requirement of the digital system clock. With the aid of time-to-digital converter and successive approximation register schemes, the proposed circuit can speed up the locking process. It is designed and implemented in TSMC 0.18-μm CMOS process to validate its feasibility with low power consumption. The core circuitry occupies an area of 0.13 mm2. The simulated results shows that the input clock rate is within 115~385 MHz with the duty cycle range of 15~85%. It can also perform the deskewing function in a closed-loop manner against the PVT variation.
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