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Boris Kadets, E. Karolinsky, I. Pop, A. Stolin (2016)
Quantum Groups: From the Kulish–Reshetikhin Discovery to ClassificationJournal of Mathematical Sciences, 213
Cohomologie Galoisienne (cinquième édition révisée et complétée)
(1971)
Revêtements étales et groupe fondamental, dirigé par A. Grothendieck
Boris Kadets, E. Karolinsky, I. Pop, A. Stolin (2013)
Classification of Quantum Groups and Belavin–Drinfeld CohomologiesCommunications in Mathematical Physics, 344
B. Enriquez, G. Halbout (2008)
Quantization of Γ-Lie bialgebrasJournal of Algebra, 319
V. Drinfeld (1992)
On some unsolved problems in quantum group theory
(1970)
Groupes algébriques
B Kadets, E Karolinsky, A Stolin, I Pop (2015)
Quantum groups: from Kulish-Reshetikhin discovery to classificationZapiski Nauchnyh Seminarov POMI, 433
A Stolin, I Pop (2016)
Classification of quantum groups and Lie bialgebra structures on $$sl(n,{\mathbb{F}})$$ s l ( n , F ) . Relations with Brauer groupAdv. Math., 296
David Schwein (2018)
Étale CohomologyTranslations of Mathematical Monographs
P Etingof, O Schiffman (2002)
Lecture on Quantum Groups. Lectures in Mathematical Physics
P. Etingof, D. Kazhdan (1996)
Quantization of Lie bialgebras, IISelecta Mathematica, 4
V Drinfeld (1985)
Hopf algebras and the quantum Yang–Baxter equationDokl. Akad. Nauk SSSR, 283
N. Andruskiewitsch (2004)
On the automorphisms of Uq+(ℊ)
A. Belavin, V. Drinfel'd (1998)
Triangle Equations and Simple Lie Algebras
A. Stolin, I. Pop (2016)
Classification of quantum groups and Lie bialgebra structures on sl(n,F). Relations with Brauer groupAdvances in Mathematics, 293
N. Reshetikhin, Theo Johnson-Freyd (1993)
Quantum Groups
V. Drinfeld (1985)
Hopf algebras and the quantum Yang-Baxter equationProceedings of the USSR Academy of Sciences, 32
We relate the Belavin–Drinfeld cohomologies (twisted and untwisted) that have been introduced in the literature to study certain families of quantum groups and Lie bialgebras over a non algebraically closed field $$\mathbb {K}$$ K of characteristic 0 to the standard non-abelian Galois cohomology $$H^1(\mathbb {K}, \mathbf{H})$$ H 1 ( K , H ) for a suitable algebraic $$\mathbb {K}$$ K -group $$\mathbf{H}.$$ H . The approach presented allows us to establish in full generality certain conjectures that were known to hold for the classical types of the split simple Lie algebras.
Bulletin of Mathematical Sciences – Springer Journals
Published: Dec 9, 2016
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