Discrete symmetries in dimer diagrams

Abstract We apply dimer diagram techniques to uncover discrete global symmetries in the fields theories on D3-branes at singularities given by general orbifolds of general toric Calabi-Yau threefold singularities. The discrete symmetries are discrete Heisenberg groups, with two Z N generators A, B w...

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Main Authors: Eduardo García-Valdecasas, Alessandro Mininno, Angel M. Uranga
Format: Article
Language:English
Published: SpringerOpen 2019-10-01
Series:Journal of High Energy Physics
Subjects:
Online Access:http://link.springer.com/article/10.1007/JHEP10(2019)091
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spelling doaj-8c9e781133b24b508361e841bfcbb8da2020-11-25T03:41:41ZengSpringerOpenJournal of High Energy Physics1029-84792019-10-0120191014110.1007/JHEP10(2019)091Discrete symmetries in dimer diagramsEduardo García-Valdecasas0Alessandro Mininno1Angel M. UrangaInstituto de Física Teórica IFT-UAM/CSICInstituto de Física Teórica IFT-UAM/CSICAbstract We apply dimer diagram techniques to uncover discrete global symmetries in the fields theories on D3-branes at singularities given by general orbifolds of general toric Calabi-Yau threefold singularities. The discrete symmetries are discrete Heisenberg groups, with two Z N generators A, B with commutation AB = C BA, with C a central element. This fully generalizes earlier observations in particular orbifolds of C 3, the conifold and Yp,q . The solution for any orbifold of a given parent theory follows from a universal structure in the infinite dimer in R 2 giving the covering space of the unit cell of the parent theory before orbifolding. The generator A is realized as a shift in the dimer diagram, associated to the orbifold quantum symmetry; the action of B is determined by equations describing a 1-form in the dimer graph in the unit cell of the parent theory with twisted boundary conditions; finally, C is an element of the (mesonic and baryonic) non-anomalous U (1) symmetries, determined by geometric identities involving the elements of the dimer graph of the parent theory. These discrete global symmetries of the quiver gauge theories are holographically dual to discrete gauge symmetries from torsion cycles in the horizon, as we also briefly discuss. Our findings allow to easily construct the discrete symmetries for infinite classes of orbifolds. We provide explicit examples by constructing the discrete symmetries for the infinite classes of general orbifolds of C 3, conifold, and complex cones over the toric del Pezzo surfaces, dP 1, dP 2 and dP 3.http://link.springer.com/article/10.1007/JHEP10(2019)091Brane Dynamics in Gauge TheoriesD-branesDiscrete SymmetriesSuper- symmetric Gauge Theory
collection DOAJ
language English
format Article
sources DOAJ
author Eduardo García-Valdecasas
Alessandro Mininno
Angel M. Uranga
spellingShingle Eduardo García-Valdecasas
Alessandro Mininno
Angel M. Uranga
Discrete symmetries in dimer diagrams
Journal of High Energy Physics
Brane Dynamics in Gauge Theories
D-branes
Discrete Symmetries
Super- symmetric Gauge Theory
author_facet Eduardo García-Valdecasas
Alessandro Mininno
Angel M. Uranga
author_sort Eduardo García-Valdecasas
title Discrete symmetries in dimer diagrams
title_short Discrete symmetries in dimer diagrams
title_full Discrete symmetries in dimer diagrams
title_fullStr Discrete symmetries in dimer diagrams
title_full_unstemmed Discrete symmetries in dimer diagrams
title_sort discrete symmetries in dimer diagrams
publisher SpringerOpen
series Journal of High Energy Physics
issn 1029-8479
publishDate 2019-10-01
description Abstract We apply dimer diagram techniques to uncover discrete global symmetries in the fields theories on D3-branes at singularities given by general orbifolds of general toric Calabi-Yau threefold singularities. The discrete symmetries are discrete Heisenberg groups, with two Z N generators A, B with commutation AB = C BA, with C a central element. This fully generalizes earlier observations in particular orbifolds of C 3, the conifold and Yp,q . The solution for any orbifold of a given parent theory follows from a universal structure in the infinite dimer in R 2 giving the covering space of the unit cell of the parent theory before orbifolding. The generator A is realized as a shift in the dimer diagram, associated to the orbifold quantum symmetry; the action of B is determined by equations describing a 1-form in the dimer graph in the unit cell of the parent theory with twisted boundary conditions; finally, C is an element of the (mesonic and baryonic) non-anomalous U (1) symmetries, determined by geometric identities involving the elements of the dimer graph of the parent theory. These discrete global symmetries of the quiver gauge theories are holographically dual to discrete gauge symmetries from torsion cycles in the horizon, as we also briefly discuss. Our findings allow to easily construct the discrete symmetries for infinite classes of orbifolds. We provide explicit examples by constructing the discrete symmetries for the infinite classes of general orbifolds of C 3, conifold, and complex cones over the toric del Pezzo surfaces, dP 1, dP 2 and dP 3.
topic Brane Dynamics in Gauge Theories
D-branes
Discrete Symmetries
Super- symmetric Gauge Theory
url http://link.springer.com/article/10.1007/JHEP10(2019)091
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