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Wavefunctionology: The Special Structure of Certain Fractional Quantum Hall Wavefunctions
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Certain fractional quantum Hall wavefunctions -- particularly including the Laughlin, Moore-Read, and Read-Rezayi wavefunctions -- have special structure that makes them amenable to analysis using an exeptionally wide range of techniques including conformal field theory (CFT), thin cylinder or torus limit, study of symmetric polynomials and Jack polynomials, and so-called ``special" parent Hamiltonians. This review discusses these techniques as well as explaining to what degree some other quantum Hall wavefunctions share this special structure. Along the way we will explore the physics of quantum Hall edges, entanglement spectra, quasiparticles, nonabelian braiding statistics, and Hall viscosity, among other topics. As compared to a number of other recent reviews, most of this review is written so as to {\it not} rely on results from conformal field theory -- although a short discussion of a few key relations to CFT are included near the end.
Forward citations
Cited by 2 Pith papers
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Second-quantized approach to the study of Halperin state in fractional quantum Hall effect
A recursion relation constructs second-quantized Halperin (m,m′,n) states that the paper proves are zero modes of the parent Hamiltonian with the correct filling factor.
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Spin fractionalization at the edge of quantum Hall fluids induced by bulk quasiparticles
A straight-edge spin observable is defined for quantum Hall fluids and shown to fractionalize with bulk quasiparticles through a reference-dependent density dipole moment.
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