After the discovery of Dirac fermions in graphene, it has become a natural question to ask whether it is possible to realize Dirac fermions in other two-dimensional (2D) materials as well. In this work, we report the discovery of multiple Dirac-like electronic bands in ultrathin Ge films grown on Au(1 1 1) by angle-resolved photoelectron spectroscopy. By tuning the thickness of the films, we are able to observe the evolution of their electronic structure when passing through the monolayer limit. Our discovery may signify the synthesis of germanene, a 2D honeycomb structure made of Ge, which is a promising platform for exploring exotic topological phenomena and enabling potential applications
Massive Dirac fermions are low-energy electronic excitations characterized by a hyperbolic band disp...
Germanene, as an artificial graphene-like near room temperature topological insulator, compatible wi...
We have grown an atom-thin, ordered, two-dimensional multi-phase film in situ through germanium mole...
After the discovery of Dirac fermions in graphene, it has become a natural question to ask whether i...
After the discovery of Dirac fermions in graphene, it has become a natural question to ask whether i...
Monolayer germanene, a novel graphene-like germanium allotrope akin to silicene has been recently gr...
International audienceMonolayer germanene, a novel graphene-like germanium allotrope akin to silicen...
International audienceMonolayer germanene, a novel graphene-like germanium allotrope akin to silicen...
International audienceMonolayer germanene, a novel graphene-like germanium allotrope akin to silicen...
The structural and electronic properties of germanene coated Ge 2Pt clusters have been determined by...
2D Dirac materials supported by nonmetallic substrates are of particular interest due to their signi...
2D Dirac materials supported by nonmetallic substrates are of particular interest due to their signi...
The structural and electronic properties of germanene coated Ge 2Pt clusters have been determined by...
International audienceGermanene, as an artificial graphene-like near room temperature topological in...
Two-dimensional (2D) Dirac materials have attracted intense research efforts due to their promise fo...
Massive Dirac fermions are low-energy electronic excitations characterized by a hyperbolic band disp...
Germanene, as an artificial graphene-like near room temperature topological insulator, compatible wi...
We have grown an atom-thin, ordered, two-dimensional multi-phase film in situ through germanium mole...
After the discovery of Dirac fermions in graphene, it has become a natural question to ask whether i...
After the discovery of Dirac fermions in graphene, it has become a natural question to ask whether i...
Monolayer germanene, a novel graphene-like germanium allotrope akin to silicene has been recently gr...
International audienceMonolayer germanene, a novel graphene-like germanium allotrope akin to silicen...
International audienceMonolayer germanene, a novel graphene-like germanium allotrope akin to silicen...
International audienceMonolayer germanene, a novel graphene-like germanium allotrope akin to silicen...
The structural and electronic properties of germanene coated Ge 2Pt clusters have been determined by...
2D Dirac materials supported by nonmetallic substrates are of particular interest due to their signi...
2D Dirac materials supported by nonmetallic substrates are of particular interest due to their signi...
The structural and electronic properties of germanene coated Ge 2Pt clusters have been determined by...
International audienceGermanene, as an artificial graphene-like near room temperature topological in...
Two-dimensional (2D) Dirac materials have attracted intense research efforts due to their promise fo...
Massive Dirac fermions are low-energy electronic excitations characterized by a hyperbolic band disp...
Germanene, as an artificial graphene-like near room temperature topological insulator, compatible wi...
We have grown an atom-thin, ordered, two-dimensional multi-phase film in situ through germanium mole...