2012
DOI: 10.1007/s00013-012-0426-7
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Schur multipliers and the Lazard correspondence

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Cited by 14 publications
(5 citation statements)
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“…In order for the correspondence to apply to all the relevant objects, we need to assume that c + 1 < p. In particular, starting with a group of nilpotency class 2, this applies to all primes p > 3. Finally we obtain the natural isomorphism to obtain the same result for the case of finite p-groups, either using Schur's theory of covers (see [14]) or more explicitly via the usual interpretations of low-dimensional cohomology (see [19]).…”
Section: Transporting Homologymentioning
confidence: 86%
“…In order for the correspondence to apply to all the relevant objects, we need to assume that c + 1 < p. In particular, starting with a group of nilpotency class 2, this applies to all primes p > 3. Finally we obtain the natural isomorphism to obtain the same result for the case of finite p-groups, either using Schur's theory of covers (see [14]) or more explicitly via the usual interpretations of low-dimensional cohomology (see [19]).…”
Section: Transporting Homologymentioning
confidence: 86%
“…For a Lie ring L, the Schur multiplier is defined as the second Chevalley-Eilenberg homology group of L. We recall the following properties of Schur multipliers of nilpotent Lie p-rings from [1].…”
Section: Preliminariesmentioning
confidence: 99%
“…The Lazard correspondence, see [5], establishes an equivalence between the categories of nilpotent Lie p-rings of class less than p and of p-groups of class less than p. This associates to any nilpotent Lie p-ring L of class less than p a p-group G(L) of the same class. The morphisms in both categories are isomorphisms and thus a classification up to isomorphism of the nilpotent Lie p-rings of order p n translates to the classification of groups of order p n for all p ≥ n. In [1] it is observed that the Schur multiplier M (L) of a nilpotent Lie p-ring of class less than p satisfies M (L) = M (G(L)). Hence the above table is also a table of the Schur multipliers of the p-groups of order dividing p 6 for all primes p ≥ 5.…”
Section: Introductionmentioning
confidence: 99%
“…First we give a brief summary of the Lazard correspondence (see [17,11]) between the category of nilpotent Lie rings L of nilpotency class c and order p n , p > c, and the category G of finite p-group of nilpotency class c and order p n . For each L ∈ L we denote by Gr(L) ∈ G the group with the same set of elements and with multiplication defined by the Beiker-Campbell-Hausdorff formula (BCH-formula, [17]), which has the form…”
Section: A Construction Of a P-group By A Graphmentioning
confidence: 99%