1956
DOI: 10.2307/2032757
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A Class of Simple Moufang Loops

Abstract: 471with powers of pm+3, • ■ ■ , and "finally to Nx(s)/JJ^ZÎ'1 p%+} with powers of pn. The number we seek is Nx(s)/Y\j-T Pm+hFor the case of a k of the form (2) with n = m, an infinite set of primitive fe-nondeficients is easy to find-for example, the set of all numbers Nx = qx-H"=i P"' where the qx are sufficiently large to insure primitiveness and the pi, a< stem from k.

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Cited by 17 publications
(23 citation statements)
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“…L. Paige discovered an infinite family of nonassociative finite simple Moufang loops [22], and M. Liebeck proved that no other nonassociative finite simple Moufang loops exist [14]. Although examples of finite simple non-Moufang Bol loops were not easy to find, they abound [18] even in the more restrictive case of Bruck loops [2,17].…”
Section: Introductionmentioning
confidence: 99%
“…L. Paige discovered an infinite family of nonassociative finite simple Moufang loops [22], and M. Liebeck proved that no other nonassociative finite simple Moufang loops exist [14]. Although examples of finite simple non-Moufang Bol loops were not easy to find, they abound [18] even in the more restrictive case of Bruck loops [2,17].…”
Section: Introductionmentioning
confidence: 99%
“…See Doro [7] for recent results on simple Moufang loops. Recently, Liebeck [12] has shown, by using the classification of finite simple groups, that there is no finite simple non-associative (non-group) Moufang loop other than the following loops M*(q), defined by Paige [13] for any prime power q. Define = 1) a ,beGF(q), a, Pe (GFfe)) 3 where ° and x denote the scalar and vector products in (GF(q)) 3 In § 2, we will determine the character tables of M(q) and M*(q).…”
Section: Introductionmentioning
confidence: 99%
“…[10], [50,Ch.2], [25]). Over the field R there are two nonisomorphic octonion algebras: the classical division Cayley octonions Ø and the split matrix Cayley-Dickson algebra ZornpRq [10], also known as the Zorn vector-matrix algebra [38]. The last one may be defined over an arbitrary commutative ring.…”
Section: Loop Of Unitary Elementsmentioning
confidence: 99%