2010
DOI: 10.1016/j.physletb.2010.05.044
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Dual approaches for defects condensation

Abstract: We review two methods used to approach the condensation of defects phenomenon. Analyzing in details their structure, we show that in the limit where the defects proliferate until occupy the whole space these two methods are dual equivalent prescriptions to obtain an effective theory for the phase where the defects (like monopoles or vortices) are completely condensed, starting from the fundamental theory defined in the normal phase where the defects are diluted.Comment: 7 pages, major modifications. Version ac… Show more

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Cited by 21 publications
(93 citation statements)
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“…Therefore, the general Ansatz for F that satisfies the in-falling wave condition at the horizon is 33) with P (u, ω) being regular at the horizon. By substituting (2.30) and (2.33) into (2.27), one finds the boundary condition for Π at the horizon…”
Section: Jhep07(2015)070mentioning
confidence: 99%
See 1 more Smart Citation
“…Therefore, the general Ansatz for F that satisfies the in-falling wave condition at the horizon is 33) with P (u, ω) being regular at the horizon. By substituting (2.30) and (2.33) into (2.27), one finds the boundary condition for Π at the horizon…”
Section: Jhep07(2015)070mentioning
confidence: 99%
“…Thus, the condensation of topological defects constitutes a mass gap generation mechanism whose general signature is the so-called "rank jump phenomenon": a massless Abelian p-form describing the system in the phase with diluted defects gives place to a new effective massive (p + 1)-form describing the system in the condensed phase. Quevedo and Trugenberger refer to this as the "Julia-Toulouse mechanism" (JTM) and, more recently, some of us generalized the JTM in various aspects and applied it to many different physical systems [31][32][33][34][35][36][37][38][39][40][41].…”
Section: Jhep07(2015)070mentioning
confidence: 99%
“…It is important to mention that the same physics just discussed could be equivalently approached in the dual picture, in terms of the massless gauge potential a µ appearing in (5), instead of its electromagnetic dual, the massless scalar field ϕ featured in (4) [3,9]. The magnetic instantons would couple non-minimally to the a µ field and their condensation would imply in the rank-jump phenomenon, with the confinement of electric charges being described in terms of a massive Kalb-Ramond field, the electromagnetic dual in (2 + 1)-dimensions of the massive scalar field featured in (12) and (13).…”
Section: Dual Josephson Junction In the Absence Of Fermions And Wmentioning
confidence: 99%
“…The magnetic instantons would couple non-minimally to the a µ field and their condensation would imply in the rank-jump phenomenon, with the confinement of electric charges being described in terms of a massive Kalb-Ramond field, the electromagnetic dual in (2 + 1)-dimensions of the massive scalar field featured in (12) and (13). For the interested reader, we refer the section IV of reference [9], where these issues are discussed in details.…”
Section: Dual Josephson Junction In the Absence Of Fermions And Wmentioning
confidence: 99%
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