In this paper we demonstrate atomic-scale lithography on hydrogen terminated Ge(001). The lithographic patterns were obtained by selectively desorbing hydrogen atoms from a H resist layer adsorbed on a clean, atomically flat Ge(001) surface with a scanning tunneling microscope tip operating in ultra-high vacuum. The influence of the tip-to-sample bias on the lithographic process have been investigated. Lithographic patterns with feature-sizes from 200 to 1.8 nm have been achieved by varying the tip-to-sample bias. These results open up the possibility of a scanning-probe lithography approach to the fabrication of future atomic-scale devices in germanium
Despite the rapidly growing interest in Ge for ultrascaled classical transistors and innovative quan...
10.1007/s003390051056Applied Physics A: Materials Science and Processing704403-406APAM
We have patterned sub-1 nm dangling-bond (DB) lines on a H-terminated Si(100)-2 × 1 surface aligned ...
In this paper we demonstrate atomic-scale lithography on hydrogen terminated Ge(001). The lithograph...
In this paper we demonstrate atomic-scale lithography on hydrogenterminated Ge(001). The lithographi...
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
We describe a complete protocol for atomically precise dangling bond (DB) logic gate construction on...
Nanofabrication on silicon surfaces has been achieved in a manner similar to e-beam/resist technolog...
In this thesis we demonstrate phosphorus (P)-atomic layer doping of germanium (Ge)-basedmaterials in...
Nanometer scale patterning of the monohydride surface has been achieved by using an ultrahigh-vacuum...
Nanoscale patterning of the Si(100)-2x1:H monohydride surface has been achieved using an ultrahigh v...
Nanoscale patterning of the Si(100)‐2×1 monohydride surface has been achieved by using an ultrahigh ...
Nanoscale patterning of the hydrogen terminated Si(100)‐2×1 surface has been achieved with an ultrah...
Despite the rapidly growing interest in Ge for ultrascaled classical transistors and innovative quan...
Despite the rapidly growing interest in Ge for ultrascaled classical transistors and innovative quan...
10.1007/s003390051056Applied Physics A: Materials Science and Processing704403-406APAM
We have patterned sub-1 nm dangling-bond (DB) lines on a H-terminated Si(100)-2 × 1 surface aligned ...
In this paper we demonstrate atomic-scale lithography on hydrogen terminated Ge(001). The lithograph...
In this paper we demonstrate atomic-scale lithography on hydrogenterminated Ge(001). The lithographi...
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
We describe a complete protocol for atomically precise dangling bond (DB) logic gate construction on...
Nanofabrication on silicon surfaces has been achieved in a manner similar to e-beam/resist technolog...
In this thesis we demonstrate phosphorus (P)-atomic layer doping of germanium (Ge)-basedmaterials in...
Nanometer scale patterning of the monohydride surface has been achieved by using an ultrahigh-vacuum...
Nanoscale patterning of the Si(100)-2x1:H monohydride surface has been achieved using an ultrahigh v...
Nanoscale patterning of the Si(100)‐2×1 monohydride surface has been achieved by using an ultrahigh ...
Nanoscale patterning of the hydrogen terminated Si(100)‐2×1 surface has been achieved with an ultrah...
Despite the rapidly growing interest in Ge for ultrascaled classical transistors and innovative quan...
Despite the rapidly growing interest in Ge for ultrascaled classical transistors and innovative quan...
10.1007/s003390051056Applied Physics A: Materials Science and Processing704403-406APAM
We have patterned sub-1 nm dangling-bond (DB) lines on a H-terminated Si(100)-2 × 1 surface aligned ...