Long-range dipolar interactions on a breathed Kagome lattice stabilize a chiral spin liquid, identified via DMRG and proposed for adiabatic preparation and edge-mode detection.
Quantum Spin Liquids
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abstract
Quantum spin liquids may be considered "quantum disordered" ground states of spin systems, in which zero point fluctuations are so strong that they prevent conventional magnetic long range order. More interestingly, quantum spin liquids are prototypical examples of ground states with massive many-body entanglement, of a degree sufficient to render these states distinct phases of matter. Their highly entangled nature imbues quantum spin liquids with unique physical aspects, such as non-local excitations, topological properties, and more. In this review, we discuss the nature of such phases and their properties based on paradigmatic models and general arguments, and introduce theoretical technology such as gauge theory and partons that are conveniently used in the study of quantum spin liquids. An overview is given of the different types of quantum spin liquids and the models and theories used to describe them. We also provide a guide to the current status of experiments to study quantum spin liquids, and to the diverse probes used therein.
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Dynamical moment fragmentation is observed within the all-in-all-out state of Nd2Sn2O7 via neutron spectroscopy and quantitatively modeled by a minimal dipolar-octupolar spin Hamiltonian.
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A Dipolar Chiral Spin Liquid on the Breathed Kagome Lattice
Long-range dipolar interactions on a breathed Kagome lattice stabilize a chiral spin liquid, identified via DMRG and proposed for adiabatic preparation and edge-mode detection.
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Dynamical moment fragmentation in the all-in all-out pyrochlore Nd2Sn2O7
Dynamical moment fragmentation is observed within the all-in-all-out state of Nd2Sn2O7 via neutron spectroscopy and quantitatively modeled by a minimal dipolar-octupolar spin Hamiltonian.