周三主题演讲1:SoC发展中的FDSOI和FINFET

G. Teepe
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引用次数: 0

摘要

FDSOI和FINFet的晶体管结构采用相同的静电原理:未掺杂半导体材料薄层的传导特性受到隔离栅极的影响。对于相同的层厚,FINFET具有更大的驱动电流和更高的封装密度,而FDSOI由于具有埋置式后门,因此具有更大的设计灵活性,可以处理极低的电源电压,并且由于其平面结构而具有更高的成本效益。FINFet在计算和网络交换等性能应用中延续了摩尔定律,而FDSOI在物联网领域的应用中表现出色。GLOBALFOUNDRIES提出了基于FINFet和FDSOI的双重路线图。在finfet方面,14nm技术正在生产,7nm技术正在开发中。此外,GLOBALFOUNDRIES已在生产基于fdsoi的22FDX™技术,并在开发12FDX™。讲座将概述FINFet和FDSOI的应用领域,并举例说明如何使用后门偏置以获得最大的设计灵活性。
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Wednesday keynote I: FDSOI and FINFET for SoC developments
FDSOI and FINFet use the same electrostatic principles for their transistor architectures: the conduction properties of a thin layer of undoped semiconductor material are influenced by an isolated gate. For the same layer thickness, FINFET has more drive current and higher packing densities and FDSOI, due to a buried back-gate, shows more design flexibility, can handle extremely low supply voltages and is more cost effective due to its planar structure. While FINFet enables a continuation of Moore's Law for performance applications like Computing and Network-Switching, FDSOI shows excellent results for applications in the Internet-of-Things-domain. GLOBALFOUNDRIES has presented a dual roadmap based on FINFet and on FDSOI. On the FINFet-side it has a 14nm-technology in production and a 7nm-technology in development. Also, GLOBALFOUNDRIES has the FDSOI-based 22FDX™-Technology in production, and 12FDX™ in development. The talk will outline the application areas for FINFet and FDSOI and give examples on how to use the back-gate bias for maximum design flexibility.
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