N $$ \mathcalN} $$ =1 Lagrangians for generalized Argyres-Douglas theories

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Location: Deutsche Nationalbibliothek Frankfurt am Main

ISSN: 1029-8479

Extent: Online-Ressource

Language: Englisch

Notes: online resource.

Bibliographic citation: N $$ \mathcalN} $$ =1 Lagrangians for generalized Argyres-Douglas theories ; volume:2017 ; number:10 ; day:31 ; month:10 ; year:2017 ; pages:1-25 ; date:10.2017
Journal of high energy physics ; 2017, Heft 10 (31.10.2017), 1-25, 10.2017

Classification: Physik

Creator: Agarwal, Prarit

Contributor: Sciarappa, Antonio
Song, Jaewon
SpringerLink (Online service)

DOI: 10.1007/JHEP10(2017)211

URN: urn:nbn:de:101:1-2018082516140184013946

Rights: Der Zugriff auf das Objekt ist unbeschränkt möglich.

Last update: 15.08.2025, 7:29 AM CEST

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Agarwal, Prarit
Sciarappa, Antonio
Song, Jaewon
SpringerLink (Online service)

Other Objects (12)

$N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality$

N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality

$Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality$

Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality

$N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$$

N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$

$Exceptional N = 3 $$ \mathcalN}=3 $$ theories$

Exceptional N = 3 $$ \mathcalN}=3 $$ theories

$$ \mathcalN} $ = 2 vacua in generalized geometry$

$ \mathcalN} $ = 2 vacua in generalized geometry

$Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories$

Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories

$N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism$

N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism

$Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories$

Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories

$Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories$

Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories

$N = 3 $$ \mathcalN}=3 $$ four dimensional field theories$

N = 3 $$ \mathcalN}=3 $$ four dimensional field theories

$Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories$

Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories

$Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD$

Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD

$N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality$

N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality

$Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality$

Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality

$N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$$

N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$

$Exceptional N = 3 $$ \mathcalN}=3 $$ theories$

Exceptional N = 3 $$ \mathcalN}=3 $$ theories

$$ \mathcalN} $ = 2 vacua in generalized geometry$

$ \mathcalN} $ = 2 vacua in generalized geometry

$Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories$

Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories

$N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism$

N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism

$Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories$

Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories

$Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories$

Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories

$N = 3 $$ \mathcalN}=3 $$ four dimensional field theories$

N = 3 $$ \mathcalN}=3 $$ four dimensional field theories

$Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories$

Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories

$Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD$

Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD

$N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality$

N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality

$Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality$

Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality

$N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$$

N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$

$Exceptional N = 3 $$ \mathcalN}=3 $$ theories$

Exceptional N = 3 $$ \mathcalN}=3 $$ theories

$$ \mathcalN} $ = 2 vacua in generalized geometry$

$ \mathcalN} $ = 2 vacua in generalized geometry

$Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories$

Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories

$N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism$

N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism

$Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories$

Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories

$Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories$

Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories

$N = 3 $$ \mathcalN}=3 $$ four dimensional field theories$

N = 3 $$ \mathcalN}=3 $$ four dimensional field theories

$Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories$

Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories

$Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD$

Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD

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N $$ \mathcalN} $$ =1 Lagrangians for generalized Argyres-Douglas theories

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Other Objects (12)

N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality

Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality

N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$

Exceptional N = 3 $$ \mathcalN}=3 $$ theories

$ \mathcalN} $ = 2 vacua in generalized geometry

Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories

N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism

Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories

Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories

N = 3 $$ \mathcalN}=3 $$ four dimensional field theories

Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories

Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD

N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality

Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality

N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$

Exceptional N = 3 $$ \mathcalN}=3 $$ theories

$ \mathcalN} $ = 2 vacua in generalized geometry

Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories

N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism

Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories

Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories

N = 3 $$ \mathcalN}=3 $$ four dimensional field theories

Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories

Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD

N=2 $$ \mathcalN}=2 $$ Argyres-Douglas theories, N=1 $$ \mathcalN}=1 $$ SQCD and Seiberg duality

Deformed $ \mathcalN}=2 $ theories, generalized recursion relations and S-duality

N $$ \mathcalN} $$ = 2 Conformal SYM theories at large N $$ \mathcalN} $$

Exceptional N = 3 $$ \mathcalN}=3 $$ theories

$ \mathcalN} $ = 2 vacua in generalized geometry

Bootstrapping N = 3 $$ \mathcalN}=3 $$ superconformal theories

N $$ \mathcalN} $$ = 4 SYM, Argyres-Douglas theories, and an exact graded vector space isomorphism

Spin(7)-manifolds as generalized connected sums and 3d N=1 $$ \mathcalN}=1 $$ theories

Bootstrapping line defects in N $$ \mathcalN} $$ : = 2 theories

N = 3 $$ \mathcalN}=3 $$ four dimensional field theories

Reviving 3D N $$ \mathcalN} $$ = 8 superconformal field theories

Mirror theories of 3d N $$ \mathcalN} $$ = 2 SQCD

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