We report on a quantitative investigation of the spin-dependent quasiparticle lifetimes and electron correlation effects in ferromagnetic hcp Co(0001) by means of spin- and angle-resolved photoemission spectroscopies. The experimental spectra are compared in detail to state-of-the-art many-body calculations within the dynamical mean-field theory and the three-body scattering approximation, including a full calculation of the one-step photoemission process. From this comparison we conclude that although strong local many-body Coulomb interactions are of major importance for the qualitative description of correlation effects in Co, more sophisticated many-body calculations are needed in order to improve the quantitative agreement between theo...
We report a theoretical study of the quasiparticle lifetime and the quasiparticle mean free path cau...
Many-body effects influence the energy-versus-momentum relation that is measured in angle resolvedph...
The electronic structure of Nickel and the many-body correlation in different 3d-ferromagnets are in...
We report on a quantitative investigation of the spin-dependent quasiparticle lifetimes and electron...
We have investigated the spin-dependent quasiparticle lifetimes and the strength of electron correla...
We have investigated the spin dependent quasiparticle lifetimes and the strength of electron correla...
Many-body effects influence the energy versus momentum relation that is measured in angle-resolved p...
The low-energy electronic excitations in cobalt are studied by a theoretical method that includes ma...
The strength of electronic correlation effects in the spin-dependent electronic structure of ferroma...
Many body effects influence the energy-versus-momentum relation that is measured in angle resolved p...
Using high resolution angle resolved photoemission, we observe a strong spin dependent renormalizati...
Our understanding of the properties of ferromagnetic materials, widely used in spintronic devices, i...
Contains fulltext : 103323.pdf (publisher's version ) (Open Access
AbstractElectronic Coulomb correlations lead to characteristic signatures in the spectroscopy of tra...
The role of on-site correlation in the low-energy excitations of nickel is studied by comparing the ...
We report a theoretical study of the quasiparticle lifetime and the quasiparticle mean free path cau...
Many-body effects influence the energy-versus-momentum relation that is measured in angle resolvedph...
The electronic structure of Nickel and the many-body correlation in different 3d-ferromagnets are in...
We report on a quantitative investigation of the spin-dependent quasiparticle lifetimes and electron...
We have investigated the spin-dependent quasiparticle lifetimes and the strength of electron correla...
We have investigated the spin dependent quasiparticle lifetimes and the strength of electron correla...
Many-body effects influence the energy versus momentum relation that is measured in angle-resolved p...
The low-energy electronic excitations in cobalt are studied by a theoretical method that includes ma...
The strength of electronic correlation effects in the spin-dependent electronic structure of ferroma...
Many body effects influence the energy-versus-momentum relation that is measured in angle resolved p...
Using high resolution angle resolved photoemission, we observe a strong spin dependent renormalizati...
Our understanding of the properties of ferromagnetic materials, widely used in spintronic devices, i...
Contains fulltext : 103323.pdf (publisher's version ) (Open Access
AbstractElectronic Coulomb correlations lead to characteristic signatures in the spectroscopy of tra...
The role of on-site correlation in the low-energy excitations of nickel is studied by comparing the ...
We report a theoretical study of the quasiparticle lifetime and the quasiparticle mean free path cau...
Many-body effects influence the energy-versus-momentum relation that is measured in angle resolvedph...
The electronic structure of Nickel and the many-body correlation in different 3d-ferromagnets are in...