The drive toward miniaturization of electronic devices motivates investigations of atomic structures at semiconductor surfaces. In this chapter, we describe a full protocol of formation of atomic wires on Ge(001):H-(2×1) surface. The wires are composed of bare germanium dimers possessing dangling bonds, which introduce electronic states within the Ge(001):H surface band gap. With a view to the possible applications, we present detailed analysis of the electronic properties of short DB dimer lines and discuss strong electron–phonon coupling observed in STM experiments on single DB dimers. For longer DB dimer wires, this coupling is attenuated making their usage in future nanoelectronic devices feasible
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
The experimental study of the bonding geometry of a (100)Ge surface exposed to H₂S in the gas phase ...
We study formation of the nanowires formed after deposition of Pt on a Ge(001) surface. The nanowire...
Atomically precise dangling-bond (DB) lines are constructed dimer-by-dimer on a hydrogen-passivated ...
The properties of an isolated dangling bond formed by the chemisorption of a single hydrogen atom on...
The adsorption of isolated H atoms on the Ge(001) surface is studied using density functional theory...
10.1103/PhysRevB.86.125307Physical Review B - Condensed Matter and Materials Physics8612-PRBM
The aim of this thesis: “Ab Initio Study of Pt Induced Nanowires on Ge(001)”, is to model the experi...
We describe a complete protocol for atomically precise dangling bond (DB) logic gate construction on...
arXiv:1609.03842v1We have theoretically investigated the electronic properties of neutral and n-dope...
Pt deposited onto a Ge(001) surface gives rise to the spontaneous formation of atomic nanowires on a...
Pt deposited onto a Ge(001) surface gives rise to the spontaneous formation of atomic nanowires on a...
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
Pt deposited onto a Ge(001) surface gives rise to the spontaneous formation of atomic nanowires on a...
Pt deposited onto a Ge(001) surface gives rise to the spontaneous formation of atomic nanowires on a...
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
The experimental study of the bonding geometry of a (100)Ge surface exposed to H₂S in the gas phase ...
We study formation of the nanowires formed after deposition of Pt on a Ge(001) surface. The nanowire...
Atomically precise dangling-bond (DB) lines are constructed dimer-by-dimer on a hydrogen-passivated ...
The properties of an isolated dangling bond formed by the chemisorption of a single hydrogen atom on...
The adsorption of isolated H atoms on the Ge(001) surface is studied using density functional theory...
10.1103/PhysRevB.86.125307Physical Review B - Condensed Matter and Materials Physics8612-PRBM
The aim of this thesis: “Ab Initio Study of Pt Induced Nanowires on Ge(001)”, is to model the experi...
We describe a complete protocol for atomically precise dangling bond (DB) logic gate construction on...
arXiv:1609.03842v1We have theoretically investigated the electronic properties of neutral and n-dope...
Pt deposited onto a Ge(001) surface gives rise to the spontaneous formation of atomic nanowires on a...
Pt deposited onto a Ge(001) surface gives rise to the spontaneous formation of atomic nanowires on a...
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
Pt deposited onto a Ge(001) surface gives rise to the spontaneous formation of atomic nanowires on a...
Pt deposited onto a Ge(001) surface gives rise to the spontaneous formation of atomic nanowires on a...
We demonstrate the preparation of a clean Ge(001) surface with minimal roughness (RMS similar to 0.6...
The experimental study of the bonding geometry of a (100)Ge surface exposed to H₂S in the gas phase ...
We study formation of the nanowires formed after deposition of Pt on a Ge(001) surface. The nanowire...