An unbiased large-N expansion for vestigial orders in density-wave and superconducting systems resolves decoupling ambiguities from symmetry redundancies and reveals generic parameter regions without stable vestigial phases.
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Neutron scattering under ~0.6% tensile strain reveals C2 symmetry in spin excitations of FePSe3 that persists above TN, indicating three-state Potts nematicity from vestigial zigzag AFM order.
A formalism for nemato-elasticity enforces Saint Venant compatibility via a helical basis, yielding direction-selective criticality and defect-induced random fields as universal features of crystalline systems.
Elastic compatibility constraints bifurcate nematic fluctuations into critical compatible and gapped incompatible sectors, yielding universal direction-selective nematic criticality protected from microscopic defect strains.
citing papers explorer
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Unbiased large-$N$ approach to competing vestigial orders of density-wave and superconducting instabilities
An unbiased large-N expansion for vestigial orders in density-wave and superconducting systems resolves decoupling ambiguities from symmetry redundancies and reveals generic parameter regions without stable vestigial phases.
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Signatures of three-state Potts nematicity in spin excitations of the van der Waals antiferromagnet FePSe$_3$
Neutron scattering under ~0.6% tensile strain reveals C2 symmetry in spin excitations of FePSe3 that persists above TN, indicating three-state Potts nematicity from vestigial zigzag AFM order.
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Theory of Electronic Nematic Criticality Constrained by Elastic Compatibility
A formalism for nemato-elasticity enforces Saint Venant compatibility via a helical basis, yielding direction-selective criticality and defect-induced random fields as universal features of crystalline systems.
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Compatible Instability: Gauge Constraints of Elasticity Inherited by Electronic Nematic Criticality
Elastic compatibility constraints bifurcate nematic fluctuations into critical compatible and gapped incompatible sectors, yielding universal direction-selective nematic criticality protected from microscopic defect strains.