Abstract

Using an algebra of second-quantized operators, we develop local two-body parent Hamiltonians for all unprojected Jain states at filling factor n/(2np+1), with integer n and (half-)integer p. We rigorously establish that these states are uniquely stabilized and that zero mode counting reproduces mode counting in the associated edge conformal field theory. We further establish the organizing "entangled Pauli principle" behind the resulting zero mode paradigm and unveil an emergent SU(n) symmetry characteristic of the fixed point physics of the Jain quantum Hall fluid.

Highlights

  • Published by the American Physical SocietyIt will turn out that the algebra Z generates all possible ZMs when acting on the incompressible ground state

  • Introduction.—The fractional quantum Hall (FQH) effect enjoys a unique position in strongly correlated electron physics both as a fascinating physical effect [1] as well as a central juncture for the percolation of ideas between correlated electron physics and other areas of theoretical and mathematical physics

  • This is the case when the construction of a parent Hamiltonian [4,5,10,11] is possible that falls into what we term the “zero mode (ZM) paradigm”: The zero mode space of a positive semidefinite Hamiltonian is composed of an incompressible state as well as edge or quasihole excitations, where the counting of ZMs in each angular momentum sector precisely matches [6,12,13] the mode counting in the conformal edge theory

Read more

Summary

Published by the American Physical Society

It will turn out that the algebra Z generates all possible ZMs when acting on the incompressible ground state In that sense they are related to the first-quantized pfoorsmsiablliesmthedriescbuescsaeudsebyPSnat−1⁄4o10nepak[;5a5[]wfhoirchth,efoLranug1⁄4hl1inLsLta,teis, really all Eq (4) boils down to] has a simple first-quantized interpretation: It multiplies many-body power-sum symmetric polynomials pz waPve 1⁄4. N 1⁄4 2 state in the class of states jΨn;p;Ni has the wave function ðz1 − z2Þ2pðz1 − z2Þ, or, in second quantization, jΨn;p;2i This state has angular momentum 2J 1⁄4 2p − 1, and the only Tr operators that could possibly not annihilate it are of the form r 0;1;J

Acting with these operators produces
Consider now the expansion of any ZM jψi into ΛL
Full Text
Paper version not known

Talk to us

Join us for a 30 min session where you can share your feedback and ask us any queries you have

Schedule a call

Disclaimer: All third-party content on this website/platform is and will remain the property of their respective owners and is provided on "as is" basis without any warranties, express or implied. Use of third-party content does not indicate any affiliation, sponsorship with or endorsement by them. Any references to third-party content is to identify the corresponding services and shall be considered fair use under The CopyrightLaw.