Cluster dynamical mean field study of intra-unit-cell charge nematicity in hole-doped cuprates
arXiv:2409.15619 · doi:10.1073/pnas.2419534122
Abstract
Recent scanning-tunneling microscopy on hole-doped BiSrCaCuO, one of the materials of the cuprate family, finds a long-range ordered spontaneous splitting of the energy levels of oxygen orbitals inside the CuO unit cells [S. Wang et al., Nat. Mat. 23, 492-498 (2024)]. This spontaneous intra-unit-cell orbital ordering, also known as electronic nematicity, breaks symmetry and is thought to arise from the Coulomb interaction (denoted by ) between oxygen and electrons. In this work, we study the spontaneous emergence of electronic nematicity within the three-band Hubbard (aka the Emery-VSA model), using cluster dynamical mean field theory. This method incorporates short-range electronic correlations and gives us access to the density of states, a quantity that is directly probed in experiments. We argue that there is a delicate competition between and (the latter being the Coulomb interaction between copper and oxygen electrons) that must be taken into account in order to find a Zhang-Rice singlet band well-resolved from the upper Hubbard band, and a splitting of the charge-transfer band (one of the signatures of charge nematicity) by roughly 50 meV, as observed recently.
arXiv comment12 pages, 8 figures
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