Spin-orbit and anisotropic strain effects on the electronic correlations in Sr2RuO4

We present an implementation of the rotationally invariant slave boson technique as an impurity solver for density functional theory plus dynamical mean field theory (DFT+DMFT). Our approach provides explicit relations between quantities in the local correlated subspace treated with DMFT and the Blo...

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Veröffentlicht in:Physical review. B 2018-08, Vol.98 (8), p.085121
Hauptverfasser: Facio, Jorge I, Mravlje, Jernej, Pourovskii, Leonid, Cornaglia, Pablo S, Vildosola, V
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container_issue 8
container_start_page 085121
container_title Physical review. B
container_volume 98
creator Facio, Jorge I
Mravlje, Jernej
Pourovskii, Leonid
Cornaglia, Pablo S
Vildosola, V
description We present an implementation of the rotationally invariant slave boson technique as an impurity solver for density functional theory plus dynamical mean field theory (DFT+DMFT). Our approach provides explicit relations between quantities in the local correlated subspace treated with DMFT and the Bloch basis used to solve the DFT equations. In particular, we present an expression for the mass enhancement of the quasiparticle states in reciprocal space. We apply the method to the study of the electronic correlations in Sr2RuO4 under anisotropic strain. We find that the spin-orbit coupling plays a crucial role in the mass enhancement differentiation between the quasi-one-dimensional α and β bands, and on its momentum dependence over the Fermi surface. The mass enhancement, however, is only weakly affected by either uniaxial or biaxial strain, even across the Lifshitz transition induced by the strain.
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subjects Anisotropy
Condensed Matter
Correlation analysis
Density functional theory
Dependence
Fermi surfaces
Materials Science
Mean field theory
Physics
Spin-orbit interactions
Strongly Correlated Electrons
Strontium ruthenium oxide
title Spin-orbit and anisotropic strain effects on the electronic correlations in Sr2RuO4
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