Study the performance parameters of novel scale FINFET Device in nm Region

S. M. Jagtap, Vittal J. Gond
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引用次数: 4

Abstract

One of the major challenge with CMOS circuits with 22nm technology & beyond is to buried the issues of increasing in power dissipation of the circuits due to higher order effects & leakage current. The traditional transistor or MOSFET require significant amount of power so the circuit present on the chip will require a large amount of power due to presence of many transistors in the circuit on the chip. CMOS transistors are used for many analog & digital applications. According to Moore's law, the number of transistors in area should double every 18 months. To replace nano scale CMOS, dual gate MOSFET, trigate device called FINFET Used. FINFET permits to lengthening gate scaling beyond the traditional limits sustaining a subthreshold slope, better performance with bias voltage scaling, low loping concertation in the channel. This paper contains the details description of FINFET, its features, its overview, advantages, performance parameters, & prospects of improvements to make it universal for CMOS IC applications towards size, power & speed. This paper presents studies of fundamental physics of Fin Field Effect Transistor, & detail description about the MOSFET structure. This paper presents study Nano scale FINFET with improvement on short channel effect, sources of leakage currents, GIBL, Gate Induced Barrier Lowering, sub-threshold swing is explained.
研究新型纳米尺度FINFET器件的性能参数
采用22nm及以上技术的CMOS电路面临的主要挑战之一是解决由于高阶效应和漏电流而导致电路功耗增加的问题。传统的晶体管或MOSFET需要大量的功率,因此芯片上的电路将需要大量的功率,因为芯片上的电路中存在许多晶体管。CMOS晶体管用于许多模拟和数字应用。根据摩尔定律,晶体管的数量应该每18个月翻一番。为了取代纳米级CMOS,采用双栅MOSFET、三极管器件FINFET。FINFET允许延长栅极缩放超出传统限制,维持亚阈值斜率,更好的性能与偏置电压缩放,在通道中的低电平集中。本文包含FINFET的详细描述,其特点,概述,优势,性能参数,以及改进的前景,使其在尺寸,功率和速度方面适用于CMOS IC应用。本文介绍了翅片场效应晶体管的基本物理原理,并对MOSFET的结构进行了详细的描述。本文介绍了纳米级FINFET在短通道效应、漏电流源、栅极感应势垒降低、亚阈值摆幅等方面的改进。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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