功率延迟产品
静态随机存取存储器
CMOS芯片
计算机科学
晶体管
阈下传导
低功耗电子学
神经形态工程学
冯·诺依曼建筑
电子线路
计算
嵌入式系统
电气工程
功率消耗
功率(物理)
加法器
计算机硬件
工程类
电压
物理
人工神经网络
算法
量子力学
机器学习
操作系统
作者
Aman Gupta,Kapish Pandey,Ashwani Kumar,Sheetal Kulkarni
标识
DOI:10.1109/icdcot61034.2024.10516006
摘要
Modern computing has rapidly progressed with ultra-compact devices using the von Neumann architecture, which separates memory from processing. Yet, Computation in Memory (CIM) is rectifying these separations for efficiency's sake. Leading the forefront, Tunnel Field-Effect Transistors (TFETs) are set to transform computer memory, boasting faster speeds with lower power consumption. Due to impressive IONIIOFF ratios, swift transitions, and negligible leakage - credited to exceptional subthreshold swings ( 40m V /decade) - TFETs are ideal for economical power usage. This analysis utilizes Cadence for SRAM libraries with n-type and p-type TFETs, comparing them to FinFETs under 22nm technology and a 1.2V supply. Results indicate TFETs outperform in lowering dynamic power and leakage against conventional CMOS technology. Notably, transitioning from CNTFET to TFET, here achieved a 30 to 50 percent reduction in both Power Delay Product and Energy Delay Product, highlighting TFET's ascendant role in In-Memory Computing.
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