Finite-size scaling for Mott metal-insulator transition on a half filled nonpartite lattice

J. X. Wang; Sabre Kais

doi:10.1103/PhysRevB.66.081101

Finite-size scaling for Mott metal-insulator transition on a half filled nonpartite lattice

J. X. Wang^*
, Sabre Kais

^*Corresponding author for this work

Purdue University

Research output: Contribution to journal › Article › peer-review

7 Scopus citations

Abstract

We combine the finite-size scaling method with a multistage real-space renormalization-group procedure to examine the Mott metal-insulator transition (MIT) on a nonpartite lattice. Based on the Hubbard model, we have found that there exists a critical point U/t=12.5 for the MIT with the correlation length exponent v = 1. At the critical point, the charge gap scales with the system size as Δ_g∼1/L^0.91.

Original language	English
Article number	081101
Pages (from-to)	811011-811014
Number of pages	4
Journal	Physical Review B - Condensed Matter and Materials Physics
Volume	66
Issue number	8
DOIs	https://doi.org/10.1103/PhysRevB.66.081101
State	Published - 15 Aug 2002
Externally published	Yes

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10.1103/PhysRevB.66.081101

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title = "Finite-size scaling for Mott metal-insulator transition on a half filled nonpartite lattice",

abstract = "We combine the finite-size scaling method with a multistage real-space renormalization-group procedure to examine the Mott metal-insulator transition (MIT) on a nonpartite lattice. Based on the Hubbard model, we have found that there exists a critical point U/t=12.5 for the MIT with the correlation length exponent v = 1. At the critical point, the charge gap scales with the system size as Δg∼1/L0.91.",

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AU - Kais, Sabre

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N2 - We combine the finite-size scaling method with a multistage real-space renormalization-group procedure to examine the Mott metal-insulator transition (MIT) on a nonpartite lattice. Based on the Hubbard model, we have found that there exists a critical point U/t=12.5 for the MIT with the correlation length exponent v = 1. At the critical point, the charge gap scales with the system size as Δg∼1/L0.91.

AB - We combine the finite-size scaling method with a multistage real-space renormalization-group procedure to examine the Mott metal-insulator transition (MIT) on a nonpartite lattice. Based on the Hubbard model, we have found that there exists a critical point U/t=12.5 for the MIT with the correlation length exponent v = 1. At the critical point, the charge gap scales with the system size as Δg∼1/L0.91.

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U2 - 10.1103/PhysRevB.66.081101

DO - 10.1103/PhysRevB.66.081101

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ER -

Finite-size scaling for Mott metal-insulator transition on a half filled nonpartite lattice

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