The success of black phosphorus in fast electronic and photonic devices is hindered by its rapid degradation in the presence of oxygen. Orthorhombic tin selenide is a representative of group IV-VI binary compounds that are robust and isoelectronic and share the same structure with black phosphorus. We measure the band structure of SnSe and find highly anisotropic valence bands that form several valleys having fast dispersion within the layers and negligible dispersion across. This is exactly the band structure desired for efficient thermoelectric generation where SnSe has shown great promise.</p
SnSe as a lead-free IV–VI semiconductor, has attracted intensive attention for its potential thermoe...
The group IV–VI compound tin selenide (SnSe) has recently attracted particular interest due to its u...
As a compound analogue of black phosphorus, a new 2D semiconductor of SnS layers is proposed. Based ...
Physical Review Letters. Volume 120, Issue 15, 10 April 2018, Article number 156403.© 2018 American...
The success of black phosphorus in fast electronic and photonic devices is hindered by its rapid deg...
The success of black phosphorus in fast electronic and photonic devices is hindered by its rapid deg...
SnSe, a group IV-VI monochalcogenide with layered crystal structure similar to black phosphorus, has...
Stannous selenide is a layered semiconductor that is a polar analog of black phosphorus and of great...
From the related article: The reliable calculation of electronic structures and understanding of ele...
Recently, tin selenide SnSe has attracted extensive attention for the reported excellent thermoelect...
While the orthorhombic IV–VI compounds show the typical layered behavior of that crystallography, we...
Motivated by the unprecedented thermoelectric performance of SnSe, we report its band structure calc...
The group IV-VI compound tin selenide (SnSe) has recently attracted particular interest due to its u...
We report time- and angle-resolved photoemission spectroscopy on SnSe which currently attracts great...
SnSe is a layered material that currently holds the record for bulk thermoelectric efficiency. The p...
SnSe as a lead-free IV–VI semiconductor, has attracted intensive attention for its potential thermoe...
The group IV–VI compound tin selenide (SnSe) has recently attracted particular interest due to its u...
As a compound analogue of black phosphorus, a new 2D semiconductor of SnS layers is proposed. Based ...
Physical Review Letters. Volume 120, Issue 15, 10 April 2018, Article number 156403.© 2018 American...
The success of black phosphorus in fast electronic and photonic devices is hindered by its rapid deg...
The success of black phosphorus in fast electronic and photonic devices is hindered by its rapid deg...
SnSe, a group IV-VI monochalcogenide with layered crystal structure similar to black phosphorus, has...
Stannous selenide is a layered semiconductor that is a polar analog of black phosphorus and of great...
From the related article: The reliable calculation of electronic structures and understanding of ele...
Recently, tin selenide SnSe has attracted extensive attention for the reported excellent thermoelect...
While the orthorhombic IV–VI compounds show the typical layered behavior of that crystallography, we...
Motivated by the unprecedented thermoelectric performance of SnSe, we report its band structure calc...
The group IV-VI compound tin selenide (SnSe) has recently attracted particular interest due to its u...
We report time- and angle-resolved photoemission spectroscopy on SnSe which currently attracts great...
SnSe is a layered material that currently holds the record for bulk thermoelectric efficiency. The p...
SnSe as a lead-free IV–VI semiconductor, has attracted intensive attention for its potential thermoe...
The group IV–VI compound tin selenide (SnSe) has recently attracted particular interest due to its u...
As a compound analogue of black phosphorus, a new 2D semiconductor of SnS layers is proposed. Based ...