Heavy-fermion hybridization waves from Dirac spinons near a Kondo-breakdown quantum phase transition
cond-mat.str-el
Submitted: 2026-10-05
Updated: 2026-10-05
Comments: 8+8 pages, 4+4 figures
License: http://creativecommons.org/licenses/by/4.0/
The gist: Motivated by the recent observation of spatially modulated screening in different paramagnetic heavy-fermion materials, we propose a theoretical mechanism for the emergence of such hybridization
Abstract
Motivated by the recent observation of spatially modulated screening in different paramagnetic heavy-fermion materials, we propose a theoretical mechanism for the emergence of such hybridization waves in frustrated Kondo lattices with no magnetic order. By applying a parton mean-field theory and a perturbative calculation to a minimal Kondo-Heisenberg lattice model, we demonstrate that a heavy Fermi liquid can naturally develop hybridization waves when it approaches a quantum phase transition where Kondo screening breaks down and the local magnetic moments form a Dirac spin liquid. We relate the strength of this mechanism to a kinematic condition on the electronic and spinon band structures and show that the spatial periodicity of the hybridization wave is set by a momentum connecting the nodes in the dispersion of the Dirac spinons to low-energy portions of the electronic band structure.
Sources
- Observation of Kondo hybridization wave in UTe2
- Discovery of a hybridization-wave electronic order in a van der Waals Kondo lattice
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