Competing orders in condensed matter give rise to the emergence of fascinating, new phenomena. Here, we investigate the competition between superconductivity and charge density wave in the context of layered-metallic compounds, transition metal dichalcogenides, in which the superconducting state is usually suppressed by the charge density wave. We show, using real-space self-consistent Bogoliubov-de Gennes calculations and momentum-space calculations involving density-functional theory and dynamical mean-field theory, that there is a surprising reappearance of superconductivity in the presence of non-magnetic disorder fluctuations, as observed in recent experiments
Pair density wave (PDW) states are defined by a spatially modulating superconductive order parameter...
Charge density wave (CDW) is a startling quantum phenomenon, distorting a metallic lattice into an i...
We report on muon spin rotation experiments probing the magnetic penetration depth λ(T) in the layer...
Two-dimensional materials constitute a prominent showplace of competing many-body instabilities such...
The transition metal dichalcogenides offer significant promise for the tunable realisation and appli...
Recent studies of the transition metal dichalcogenide niobium diselenide have led to debate in the s...
Recent studies of the transition metal dichalcogenide niobium diselenide have led to debate in the s...
Nous examinons les propriétés électroniques des dichalcogénures en couche des métaux de transition q...
We consider the competition between superconducting, charge ordered, and metallic phases in layered ...
Based on first-principles calculations, we prove that the origin of charge-density wave formation in...
International audienceBesides the mechanism responsible for high critical temperature superconductiv...
Funding: MJT acknowledges financial support from the CM-CDT under EPSRC (UK) grant number EP/L015110...
International audienceBesides the mechanism responsible for high critical temperature superconductiv...
We report on muon spin rotation experiments probing the magnetic penetration depth λ(T) in the layer...
Superconductivity, charge- and spin-density waves are collective electronic phenomena that originate...
Pair density wave (PDW) states are defined by a spatially modulating superconductive order parameter...
Charge density wave (CDW) is a startling quantum phenomenon, distorting a metallic lattice into an i...
We report on muon spin rotation experiments probing the magnetic penetration depth λ(T) in the layer...
Two-dimensional materials constitute a prominent showplace of competing many-body instabilities such...
The transition metal dichalcogenides offer significant promise for the tunable realisation and appli...
Recent studies of the transition metal dichalcogenide niobium diselenide have led to debate in the s...
Recent studies of the transition metal dichalcogenide niobium diselenide have led to debate in the s...
Nous examinons les propriétés électroniques des dichalcogénures en couche des métaux de transition q...
We consider the competition between superconducting, charge ordered, and metallic phases in layered ...
Based on first-principles calculations, we prove that the origin of charge-density wave formation in...
International audienceBesides the mechanism responsible for high critical temperature superconductiv...
Funding: MJT acknowledges financial support from the CM-CDT under EPSRC (UK) grant number EP/L015110...
International audienceBesides the mechanism responsible for high critical temperature superconductiv...
We report on muon spin rotation experiments probing the magnetic penetration depth λ(T) in the layer...
Superconductivity, charge- and spin-density waves are collective electronic phenomena that originate...
Pair density wave (PDW) states are defined by a spatially modulating superconductive order parameter...
Charge density wave (CDW) is a startling quantum phenomenon, distorting a metallic lattice into an i...
We report on muon spin rotation experiments probing the magnetic penetration depth λ(T) in the layer...