Magnetic doping of topological insulators (TIs) is a prerequisite for their application as spin-based devices. Using x-ray magnetic circular dichroism (XMCD) we investigate the influence of an ultralow coverage (∼0.5% of a monolayer) of magnetic atoms on a TI substrate. For Fe and Co adatoms on Bi 2Te 3 at ∼1.5 K we find an orbital-to-spin magnetic moment ratio of ∼0.45. The magnetization curve of the Fe atoms recorded by XMCD is in quantitative agreement with a paramagnetic behavior with no indication of long-range magnetic order. The spectral shape of the XMCD indicates that the adatoms are weakly hybridized with the substrate and form narrowband states. The results show that the adatoms are not capable of breaking time-reversal symmetry....
The effect of atomic impurities including N, O, Na, Ti and Co on the surface states of the topologic...
Topological insulators (TIs) are recently predicted, and much studied, new quantum materials. These ...
Breaking time-reversal symmetry through magnetic doping of topological insulators has been identifie...
Magnetic doping of topological insulators (TIs) is crucial for unlocking novel quantum phenomena, pa...
AbstractMagnetic doping of topological insulators (TIs) is crucial for unlocking novel quantum pheno...
The electronic and magnetic properties of individual Fe atoms adsorbed on the surface of the topolog...
Topological insulators are characterized by an insulating bulk, and an odd number of Dirac cones in ...
Magnetically doped topological insulators may produce novel states of electronic matter, where for i...
Magnetic doping with transition metal ions is the most widely used approach to break time-reversal s...
The influence of magnetic dopants on the electronic and chemical environments in topological insulat...
Magnetic topological insulators (TIs) are an ideal playground for the study of novel quantum phenome...
The robustness of the gapless topological surface state hosted by a 3D topological insulator against...
The influence of magnetic dopants on the electronic and chemical environments in topological insulat...
Topological insulators, a type of quantum material, are of intense interest to researchers due to th...
Breaking time-reversal symmetry through magnetic doping of topological insulators has been identifie...
The effect of atomic impurities including N, O, Na, Ti and Co on the surface states of the topologic...
Topological insulators (TIs) are recently predicted, and much studied, new quantum materials. These ...
Breaking time-reversal symmetry through magnetic doping of topological insulators has been identifie...
Magnetic doping of topological insulators (TIs) is crucial for unlocking novel quantum phenomena, pa...
AbstractMagnetic doping of topological insulators (TIs) is crucial for unlocking novel quantum pheno...
The electronic and magnetic properties of individual Fe atoms adsorbed on the surface of the topolog...
Topological insulators are characterized by an insulating bulk, and an odd number of Dirac cones in ...
Magnetically doped topological insulators may produce novel states of electronic matter, where for i...
Magnetic doping with transition metal ions is the most widely used approach to break time-reversal s...
The influence of magnetic dopants on the electronic and chemical environments in topological insulat...
Magnetic topological insulators (TIs) are an ideal playground for the study of novel quantum phenome...
The robustness of the gapless topological surface state hosted by a 3D topological insulator against...
The influence of magnetic dopants on the electronic and chemical environments in topological insulat...
Topological insulators, a type of quantum material, are of intense interest to researchers due to th...
Breaking time-reversal symmetry through magnetic doping of topological insulators has been identifie...
The effect of atomic impurities including N, O, Na, Ti and Co on the surface states of the topologic...
Topological insulators (TIs) are recently predicted, and much studied, new quantum materials. These ...
Breaking time-reversal symmetry through magnetic doping of topological insulators has been identifie...