The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The impact of a high-k gate dielectric on the device short channel performance and scalability of nanoscale double gate Fin Field Effect Transistors (FinFET) CMOS is examined by 2-D device simulations. DG FinFETs are designed with high-k at the high performance node of the 2008 Semiconductor Industry Association International Technology Roadmap for Semiconductors (ITRS). DG FinFET CMOS can be optimally designed to yield outstanding performance with good trade-offs between speed and power consumption as the gate length is scaled to < 10 nm. Using technology computer aided design (TCAD) tools a 2-D FinFET device is created and the simulations ar...
This paper analyses the electrical characteristics of 10 nm tri-gate (TG) N- and P-channel silicon-o...
In this paper we propose double gate transistor i.e. FINFETS circuits. It is the substitute of bulk ...
Abstract — A FinFET, a novel double-gate device structure is capable of scaling well into the nanoel...
The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The ...
The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The ...
The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The ...
The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The ...
The impact of high-k gate dielectrics on device short-channel and circuit performance of fin field-e...
The impact of high-k gate dielectrics on device short-channel and circuit performance of fin field-e...
The impact of high-k gate dielectrics on device short-channel and circuit performance of fin field-e...
The impact of a high-k dielectrics and the effect of downscaling on the device performance of nanosc...
Abstract—FinFET technology has been proposed as a promising alternative for deep sub-micron CMOS tec...
This paper investigates the impact of the high-K material gate spacer on short channel effects (SCEs...
The implementation of high-k gate dielectrics is one of several strategies developed to allow furthe...
Scaling of the MOSFET face greater challenge by extreme power density due to leakage current in ultr...
This paper analyses the electrical characteristics of 10 nm tri-gate (TG) N- and P-channel silicon-o...
In this paper we propose double gate transistor i.e. FINFETS circuits. It is the substitute of bulk ...
Abstract — A FinFET, a novel double-gate device structure is capable of scaling well into the nanoel...
The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The ...
The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The ...
The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The ...
The high-k is needed to replace SiO2 as the gate dielectric to reduce the gate leakage current. The ...
The impact of high-k gate dielectrics on device short-channel and circuit performance of fin field-e...
The impact of high-k gate dielectrics on device short-channel and circuit performance of fin field-e...
The impact of high-k gate dielectrics on device short-channel and circuit performance of fin field-e...
The impact of a high-k dielectrics and the effect of downscaling on the device performance of nanosc...
Abstract—FinFET technology has been proposed as a promising alternative for deep sub-micron CMOS tec...
This paper investigates the impact of the high-K material gate spacer on short channel effects (SCEs...
The implementation of high-k gate dielectrics is one of several strategies developed to allow furthe...
Scaling of the MOSFET face greater challenge by extreme power density due to leakage current in ultr...
This paper analyses the electrical characteristics of 10 nm tri-gate (TG) N- and P-channel silicon-o...
In this paper we propose double gate transistor i.e. FINFETS circuits. It is the substitute of bulk ...
Abstract — A FinFET, a novel double-gate device structure is capable of scaling well into the nanoel...