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Double strained Si channel heterostructure on insulator MOSFET in sub-100nm regime

机译:低于100nm的MOSFET上的双应变Si沟道异质结构

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Incubating strain technology in MOSFET arena with, combination of strained Si, strained SiGe and relaxed SiGe forming a single or dual channel has been developed widely, while developing a novel sub-100nm MOSFET on double strained Si with strained SiGe sandwiched in between, forming a tri-channel MOSFET has been the focus in the present research. Double strained Si with strained SiGe channel MOSFET of 100nm and 50nm channel length has been compared leading to the attainment of eloquent drain current enhancement of ~41.3% associated with slightly higher drain induced barrier lowering for very short channel device of 50nm, which is attributed to the quasi-ballistic transport in the channel region. Simulation result showed improved maximum transconductance (gmmax) for 50nm compared to 100nm channel length MOSFET due to the velocity overshoot occurring in the channel region, indicating ~25% decrease in threshold voltage and band structures lowering due to the strain technology in short channel device has been analyzed.
机译:结合了应变硅,应变硅锗和弛豫硅锗形成单通道或双通道的MOSFET领域中的应变技术孵化技术已经得到了广泛的发展,同时在双应变硅上夹着应变硅锗的双应变硅上开发了一种新型的100nm以下MOSFET,形成了一个三通道MOSFET已成为当前研究的重点。比较了具有100nm和50nm沟道长度的应变SiGe沟道MOSFET的双应变Si,导致有效的漏极电流提高了〜41.3 \%,并且对于50nm的非常短的沟道器件,漏极引起的势垒降低略高,这归因于通道区域的准弹道运输。仿真结果表明,与100nm沟道长度的MOSFET相比,50nm的最大跨导(gmmax)有所提高,这是因为沟道区域中发生了速度过冲,这表明由于短沟道器件中的应变技术,阈值电压降低了约25%,带结构降低了。已经分析过了。

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