In this paper, a novel nitrogen plasma immersion treatment (NNPIT) with accelerating power for Ge surface passivation is presented and compared with conventional nitrogen plasma immersion treatment (NPIT). Results show that the Ge-N bond formed at a surface by NPIT can suppress the growth of Ge suboxide during high-K dielectric deposition. As for NNPIT, more nitrogen plasma drifts to the Ge surface, which is induced by the accelerating electric field, to enhance the dangling bond passivation, and thus the NNPIT method can further suppress Ge suboxide growth during high-K dielectric deposition. As a result, the C-V characteristics in terms of a flat-band voltage, hysteresis and interface state density can be significantly improved, which is ...
International audienceThis paper describes the development of a GeOxNy surface passivation of german...
[[abstract]]High-k gate dielectric process is the key technology for nano-scale MOS device. A nitrid...
High mobility semiconductors such as Ge with high-k gates may be required to enhance performance of ...
In this paper, an enhanced Ge surface passivation method by nitrogen plasma immersion with adding RI...
In this paper, an enhanced Ge surface passivation method by nitrogen plasma immersion with adding RI...
In this paper, passivation of Ge substrates by N2O plasma is proposed and compared with a N2 plasma ...
In this paper, passivation of Ge substrates by N2O plasma is proposed and compared with a N2 plasma ...
Nitrogen plasma passivation (NPP) on (111) germanium (Ge) was studied in terms of the interface trap...
Ge p-MOSFETs with two kinds of passivation methods, RTO-GeO2 interfacial layer and nitrogen-plasma-p...
A novel surface passivation method was developed for HfO<sub>2</sub> Ge MOSFETs using in situ SiH<su...
Due to its high intrinsic mobility, germanium (Ge) is a promising candidate as a channel material (o...
In this paper, oxidation of Ge surface by N2O plasma is presented and experimentally demonstrated. R...
In this paper, a novel nitrogen plasma pretreatment (NPP) has been experimentally demonstrated to im...
[[abstract]]High-k gate dielectric process is the key technology for nano-scale MOS device. A nitrid...
Abstract — We demonstrate Fermi-level unpinning and contact resistance reduction by surface passivat...
International audienceThis paper describes the development of a GeOxNy surface passivation of german...
[[abstract]]High-k gate dielectric process is the key technology for nano-scale MOS device. A nitrid...
High mobility semiconductors such as Ge with high-k gates may be required to enhance performance of ...
In this paper, an enhanced Ge surface passivation method by nitrogen plasma immersion with adding RI...
In this paper, an enhanced Ge surface passivation method by nitrogen plasma immersion with adding RI...
In this paper, passivation of Ge substrates by N2O plasma is proposed and compared with a N2 plasma ...
In this paper, passivation of Ge substrates by N2O plasma is proposed and compared with a N2 plasma ...
Nitrogen plasma passivation (NPP) on (111) germanium (Ge) was studied in terms of the interface trap...
Ge p-MOSFETs with two kinds of passivation methods, RTO-GeO2 interfacial layer and nitrogen-plasma-p...
A novel surface passivation method was developed for HfO<sub>2</sub> Ge MOSFETs using in situ SiH<su...
Due to its high intrinsic mobility, germanium (Ge) is a promising candidate as a channel material (o...
In this paper, oxidation of Ge surface by N2O plasma is presented and experimentally demonstrated. R...
In this paper, a novel nitrogen plasma pretreatment (NPP) has been experimentally demonstrated to im...
[[abstract]]High-k gate dielectric process is the key technology for nano-scale MOS device. A nitrid...
Abstract — We demonstrate Fermi-level unpinning and contact resistance reduction by surface passivat...
International audienceThis paper describes the development of a GeOxNy surface passivation of german...
[[abstract]]High-k gate dielectric process is the key technology for nano-scale MOS device. A nitrid...
High mobility semiconductors such as Ge with high-k gates may be required to enhance performance of ...