[著者版]Sub-monolayer films of layered semiconductor InSe were grown on MoS2 substrates by molecular beam epitaxy, and the change in their growth features with Se/In flux ratio was investigated using scanning tunneling microscope in vacuum. It was found that InSe domains grown at 340 degrees C have a hexagonal shape when the Se/In ratio is about 17. Detailed images of the hexagonal InSe domains have revealed that adjacent sides of the hexagon have different structures; one is a straight edge and the other is a disordered edge. When the Se/In ratio was decreased, the disordered edges became predominant, the straight edges disappeared, and the InSe domain became triangular. On the contrary, when the Se/In ratio was increased, InSe domains became...
Scanning tunneling microscopy has been used to study the deposition by molecular-beam epitaxy of thi...
Molecular layer epitaxy is a crystal growth method using chemical reactions of adsorbates on semicon...
The microstructural and electrical properties of InAs layers grown by molecular beam epitaxy on 11% ...
Sub-monolayer films of layered semiconductor InSe were grown on MoS2 substrates by molecular beam ep...
Single-phase two-dimensional (2D) indium monoselenide (γ-InSe) film is successfully grown via solid ...
Submonolayer to several monolayer thick films of the layered semiconductor InSe were deposited on hi...
III–IV layered materials such as indium selenide have excellent photoelectronic properties. However,...
At an InSe/Si(111) heterostructure, the transition between the cubic Si substrate and the layered c...
To advance fundamental understanding and ultimate application of transition-metal dichalcogenide (TM...
Two dimensional III–VI metal monochalcogenide materials, such as GaSe and InSe, are attracting consi...
© 2019 American Chemical Society. Two dimensional III-VI metal monochalcogenide materials, such as G...
Two dimensional III-VI metal monochalcogenide materials, such as GaSe and InSe, are attracting consi...
A mechanistic understanding of interactions be-tween atomically thin two-dimensional (2D) transition...
Epitaxial growth of the strongly lattice mismatched (6.5%) layered chalcogenides InSe and GaSe on ea...
Atomically thin transition metal dichalcogenides (TMD) have attracted intensive research interests d...
Scanning tunneling microscopy has been used to study the deposition by molecular-beam epitaxy of thi...
Molecular layer epitaxy is a crystal growth method using chemical reactions of adsorbates on semicon...
The microstructural and electrical properties of InAs layers grown by molecular beam epitaxy on 11% ...
Sub-monolayer films of layered semiconductor InSe were grown on MoS2 substrates by molecular beam ep...
Single-phase two-dimensional (2D) indium monoselenide (γ-InSe) film is successfully grown via solid ...
Submonolayer to several monolayer thick films of the layered semiconductor InSe were deposited on hi...
III–IV layered materials such as indium selenide have excellent photoelectronic properties. However,...
At an InSe/Si(111) heterostructure, the transition between the cubic Si substrate and the layered c...
To advance fundamental understanding and ultimate application of transition-metal dichalcogenide (TM...
Two dimensional III–VI metal monochalcogenide materials, such as GaSe and InSe, are attracting consi...
© 2019 American Chemical Society. Two dimensional III-VI metal monochalcogenide materials, such as G...
Two dimensional III-VI metal monochalcogenide materials, such as GaSe and InSe, are attracting consi...
A mechanistic understanding of interactions be-tween atomically thin two-dimensional (2D) transition...
Epitaxial growth of the strongly lattice mismatched (6.5%) layered chalcogenides InSe and GaSe on ea...
Atomically thin transition metal dichalcogenides (TMD) have attracted intensive research interests d...
Scanning tunneling microscopy has been used to study the deposition by molecular-beam epitaxy of thi...
Molecular layer epitaxy is a crystal growth method using chemical reactions of adsorbates on semicon...
The microstructural and electrical properties of InAs layers grown by molecular beam epitaxy on 11% ...