Pseudopsin description of the coherent charge fluctuation spectroscopy experiment. Pseudopsin description of the coherent charge fluctuation spectroscopy.

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Presentation transcript:

Pseudopsin description of the coherent charge fluctuation spectroscopy experiment. Pseudopsin description of the coherent charge fluctuation spectroscopy experiment. (A) Angle ϕ along the Fermi surface (FS). A–C define the pseudospin operators in momentum space: A pseudopsin down corresponds to the pair of states (k↑, −k↓) being fully occupied (A), a pseudospin up to the pair (k↑, −k↓) being empty (B), and a sideways pseudopsin to a quantum superposition of the previous two (C). (D and E) Pseudospin pattern in the normal state and in the case of an s-wave superconductor, respectively. Rather than plotting the pseudospins as a function of momentum k we make a change of coordinates and plot as a function of the Fermi surface angle ϕ and the energy distance ξ of the state k from the chemical potential μ. (F) Schematic view of an NMR/ESR experiment in which the spins precess, inducing a magnetization oscillation. (G) Corresponding view for a CCFS experiment, in which the pseudospins precess upon ultrafast excitation and coherent charge fluctuation generation. Barbara Mansart et al. PNAS 2013;110:12:4539-4544 ©2013 by National Academy of Sciences