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Fractionalization Signatures in the Dynamics of Quantum Spin Liquids
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abstract
We investigate the signatures of fractionalization in quantum spin liquids by studying different phases of the Kitaev honeycomb model in the presence of an out-of-plane magnetic field through which the model becomes non-integrable. Using the infinite projected entangled pair states (iPEPS) ansatz, along with analytical calculations and exact diagonalization, we calculate dynamical signatures of fractionalized particles through spin-spin and dimer-dimer correlations. Our analysis demonstrates the ability of these correlations to discern distinct fractionalized quantum sectors, namely Majorana fermions and the emergent $Z_2$ fluxes, in both the chiral spin liquid (CSL) phase under weak field and the emergent intermediate gapless phase (IGP) under moderate field. Importantly, our calculation reveals the nature of IGP observed at moderate fields, a region of ongoing debate, indicating that this phase is a Majorana metal induced by strong flux fluctuations.
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Cited by 2 Pith papers
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Anyon polarons as a window into competing phases of the Kitaev honeycomb model under a Zeeman field
In the antiferromagnetic Kitaev model, visons, fermions, and a bosonic quasiparticle all become gapless at nearly the same Zeeman field, and the boson carries an in-plane Néel order parameter, suggesting the intermedi...
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Interplay of Kitaev Interaction and Off-diagonal Exchanges: Exotic Phases and Quantum Phase Diagrams
A self-review consolidating numerical phase diagrams for Kitaev-Γ and Γ-Γ′ models, reporting a gapless Γ spin liquid, chiral spin states, nematic ferromagnets, and spin-flop phases.
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