2011
Beekman, Aron J.; Zaanen, Jan
Electrodynamics of Abrikosov vortices: the field theoretical formulation Tijdschriftartikel
In: FRONTIERS OF PHYSICS, vol. 6, nr. 4, pp. 357-369, 2011, ISSN: 2095-0462.
Abstract | Links | BibTeX | Tags: Abrikosov vortex; electromagnetism; Maxwell equations; differential geometry; multi-valued fields
@article{WOS:000298807900005,
title = {Electrodynamics of Abrikosov vortices: the field theoretical formulation},
author = {Aron J. Beekman and Jan Zaanen},
doi = {10.1007/s11467-011-0205-0},
issn = {2095-0462},
year = {2011},
date = {2011-12-01},
journal = {FRONTIERS OF PHYSICS},
volume = {6},
number = {4},
pages = {357-369},
publisher = {HIGHER EDUCATION PRESS},
address = {SHATANHOU ST 55, BEIJING 100009, PEOPLES R CHINA},
abstract = {Electrodynamic phenomena related to vortices in superconductors have
been studied since their prediction by Abrikosov, and seem to hold no
fundamental mysteries. However, most of the effects are treated
separately, with no guiding principles.We demonstrate that the
relativistic vortex worldsheet in spacetime is the object that naturally
conveys all electric and magnetic information, for which we obtain
simple and concise equations. Breaking Lorentz invariance leads to
down-to-earth Abrikosov vortices, and special limits of these equations
include for instance dynamic Meissner screening and the AC Josephson
relation. On a deeper level, we explore the electrodynamics of two-form
sources in the absence of electric monopoles, in which the
electromagnetic field strength itself acquires the characteristics of a
gauge field. This novel framework leaves room for unexpected surprises.},
keywords = {Abrikosov vortex; electromagnetism; Maxwell equations; differential geometry; multi-valued fields},
pubstate = {published},
tppubtype = {article}
}
Electrodynamic phenomena related to vortices in superconductors have
been studied since their prediction by Abrikosov, and seem to hold no
fundamental mysteries. However, most of the effects are treated
separately, with no guiding principles.We demonstrate that the
relativistic vortex worldsheet in spacetime is the object that naturally
conveys all electric and magnetic information, for which we obtain
simple and concise equations. Breaking Lorentz invariance leads to
down-to-earth Abrikosov vortices, and special limits of these equations
include for instance dynamic Meissner screening and the AC Josephson
relation. On a deeper level, we explore the electrodynamics of two-form
sources in the absence of electric monopoles, in which the
electromagnetic field strength itself acquires the characteristics of a
gauge field. This novel framework leaves room for unexpected surprises.
been studied since their prediction by Abrikosov, and seem to hold no
fundamental mysteries. However, most of the effects are treated
separately, with no guiding principles.We demonstrate that the
relativistic vortex worldsheet in spacetime is the object that naturally
conveys all electric and magnetic information, for which we obtain
simple and concise equations. Breaking Lorentz invariance leads to
down-to-earth Abrikosov vortices, and special limits of these equations
include for instance dynamic Meissner screening and the AC Josephson
relation. On a deeper level, we explore the electrodynamics of two-form
sources in the absence of electric monopoles, in which the
electromagnetic field strength itself acquires the characteristics of a
gauge field. This novel framework leaves room for unexpected surprises.