LAUSR.org creates dashboard-style pages of related content for over 1.5 million academic articles. Sign Up to like articles & get recommendations!

Ultrathin body nanowire hetero-dielectric stacked asymmetric halo doped junctionless accumulation mode MOSFET for enhanced electrical characteristics and negative bias stability

Photo by shotbykino from unsplash

Abstract This paper presents a 2-D analytical model of ultrathin hetero dielectric, asymmetric halo doped graded channel (HDGC) nanowire junctionless accumulation mode (JAM) MOSFETs obtained by incorporating the concepts of… Click to show full abstract

Abstract This paper presents a 2-D analytical model of ultrathin hetero dielectric, asymmetric halo doped graded channel (HDGC) nanowire junctionless accumulation mode (JAM) MOSFETs obtained by incorporating the concepts of gate-oxide engineering (i.e., hetero dielectric) and channel engineering (i.e., graded channel) simultaneously. Superposition technique with appropriate boundary conditions has been used to solve Poisson's equation for determining the potential distribution function. The minimum central potential concept has been used to derive the threshold voltage of the HDGC-JAM MOSFETs including the quantum confinement effects. The performance of the proposed device has been compared with that of the uniformly doped JAM-MOSFETs. The proposed model also investigates the effect of control and screen gate length variations on short channel effects (SCEs) and hot carrier effects (HCEs) of the proposed device. Further, an analytical total drain current model considering the effects of gate induced drain leakage (GIDL) at negative bias has also been formulated.

Keywords: accumulation mode; asymmetric halo; hetero; halo doped; junctionless accumulation; hetero dielectric

Journal Title: Superlattices and Microstructures
Year Published: 2020

Link to full text (if available)


Share on Social Media:                               Sign Up to like & get
recommendations!

Related content

More Information              News              Social Media              Video              Recommended



                Click one of the above tabs to view related content.