计算机科学
与非门
晶体管
吞吐量
电子工程
闪存
抖动
电气工程
计算机硬件
逻辑门
电压
工程类
电信
算法
无线
作者
Moosung Kim,Sung Won Yun,Jungjune Park,Hyunkook Park,Jungyu Lee,Yeong Seon Kim,Daehoon Na,Sara Choi,Youngsun Song,Jonghoon Lee,Hyun-Jun Yoon,Kangbin Lee,Byunghoon Jeong,Sanglok Kim,Junhong Park,Cheon An Lee,Jaeyun Lee,Jisang Lee,Jin Chun,Joonsuc Jang
标识
DOI:10.1109/isscc42614.2022.9731640
摘要
As data sizes increase exponentially, the demand for higher-density NAND with a smaller cell size and a higher interface speed has also increased [1]–[4]. However, the increased number of WL-stack layers results in a smaller sensing circuit size and a smaller WL-to-WL spacing, which increases the intrinsic transistor variation and the inter-cell interference. One way to achieve good density while maintaining system performance is to support more multiple-plane operations with a circuit under cell array architecture, which leads to an increased noise power. Moreover, to achieve a 2.4Gb/s the I/O circuits need to support the faster speed while achieving lower power consumption. This paper presents the offset cancelling sensing latch (OCSL) scheme, the quad-group interference-free read (Q-IFR) scheme, and the common-source line (CSL) noise-tracking scheme to resolve the aforementioned challenges. In terms of the high-speed I/O bandwidth, a receiver circuit and an internal reference voltage generator are also proposed to increase the I/O speed, reduce the standby power consumption, and reduce the settling time when the chip is enabled.
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