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Confinement transition to density wave order in metallic doped spin liquids

Cornell Affiliated Author(s)

Author

A.A. Patel
Debanjan Chowdhury
A. Allais
S. Sachdev

Abstract

Insulating quantum spin liquids can undergo a confinement transition to a valence bond solid via the condensation of topological excitations of the associated gauge theory. We extend the theory of such transitions to fractionalized Fermi liquids (FL∗): These are metallic doped spin liquids in which the Fermi surfaces only have gauge neutral quasiparticles. Using insights from a duality transform on a doped quantum dimer model for the U(1)-FL∗ state, we show that projective symmetry group of the theory of the topological excitations remains unmodified, but the Fermi surfaces can lead to additional frustrating interactions. We propose a theory for the confinement transition of Z2-FL∗ states via the condensation of visons. A variety of confining, incommensurate density wave states are possible, including some that are similar to the incommensurate d-form factor density wave order observed in several recent experiments on the cuprate superconductors. © 2016 American Physical Society.

Date Published

Journal

Physical Review B

Volume

93

Issue

16

URL

https://www.scopus.com/inward/record.uri?eid=2-s2.0-84964683527&doi=10.1103%2fPhysRevB.93.165139&partnerID=40&md5=9da2a4eb99a9f225c2b4bfd1924171e6

DOI

10.1103/PhysRevB.93.165139

Group (Lab)

Debanjan Chowdhury Group

Funding Source

DMR-1360789
1360789

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