Robert M. Guralnick
University of Southern California
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Featured researches published by Robert M. Guralnick.
Proceedings of The London Mathematical Society | 1999
Robert M. Guralnick; Tim Penttila; Cheryl E. Praeger; Jan Saxl
In this paper we obtain a classification of those subgroups of the finite general linear group GLd (q) with orders divisible by a primitive prime divisor of qe − 1 for some . In the course of the analysis, we obtain new results on modular representations of finite almost simple groups. In particular, in the last section, we obtain substantial extensions of the results of Landazuri and Seitz on small cross-characteristic representations of some of the finite classical groups. 1991 Mathematics Subject Classification: primary 20G40; secondary 20C20, 20C33, 20C34, 20E99.
Israel Journal of Mathematics | 1993
Michael D. Fried; Robert M. Guralnick; Jan Saxl
AbstractWe use the classification of finite simple groups and covering theory in positive characteristic to solve Carlitz’s conjecture (1966). An exceptional polynomialf over a finite field
Communications in Algebra | 1994
Robert M. Guralnick; William M. Kantor; Jan Saxl
Linear & Multilinear Algebra | 1992
Robert M. Guralnick
{\mathbb{F}}_q
Transactions of the American Mathematical Society | 2012
Jason Fulman; Robert M. Guralnick
Journal of The London Mathematical Society-second Series | 2012
Robert M. Guralnick; Gunter Malle
is a polynomial that is a permutation polynomial on infinitely many finite extensions of
Journal of Algebra | 2003
Robert M. Guralnick; Jan Saxl
Proceedings of The London Mathematical Society | 1999
Robert M. Guralnick; Pham Huu Tiep
{\mathbb{F}}_q
Memoirs of the American Mathematical Society | 2003
Robert M. Guralnick; Peter Müller; Jan Saxl
Journal of the American Mathematical Society | 2012
Robert M. Guralnick; Gunter Malle
. Carlitz’s conjecture saysf must be of odd degree (ifq is odd). Indeed, excluding characteristic 2 and 3, arithmetic monodromy groups of exceptional polynomials must be affine groups.We don’t, however, know which affine groups appear as the geometric metric monodromy group of exceptional polynomials. Thus, there remain unsolved problems. Riemann’s existence theorem in positive characteristic will surely play a role in their solution. We have, however, completely classified the exceptional polynomials of degree equal to the characteristic. This solves a problem from Dickson’s thesis (1896). Further, we generalize Dickson’s problem to include a description of all known exceptional polynomials.Finally: The methods allow us to consider coversX→