Cherlin’s Conjecture for Finite Primitive Binary Permutation Groups
A comprehensive proof and exploration of permutation groups
Nick Gill author Martin W Liebeck author Pablo Spiga author
Format:Paperback
Publisher:Springer Nature Switzerland AG
Published:18th Jun '22
Currently unavailable, and unfortunately no date known when it will be back
This book provides a detailed proof of Cherlin’s conjecture, focusing on finite binary primitive permutation groups and their classification.
The book Cherlin’s Conjecture for Finite Primitive Binary Permutation Groups presents a comprehensive proof of Cherlin’s conjecture, focusing on finite binary primitive permutation groups. This conjecture, rooted in model theory and specifically in Lachlan’s theory of finite homogeneous relational structures, aims to classify finite primitive permutation groups that exhibit relational complexity equal to 2. The initial section of the book introduces the conjecture, detailing key concepts and previous attempts to prove various special cases found in existing literature.
In the second part, the author advances the proof by exploring primitive permutation groups that are almost simple, particularly those with a socle that is a group of Lie type. This section not only addresses the conjecture but also delves into the properties of primitive permutation groups and almost simple groups, presenting innovative ideas and methodologies. The depth of material covered ensures that readers gain a robust understanding of the subject matter.
Cherlin’s Conjecture for Finite Primitive Binary Permutation Groups is a significant contribution to the fields of group theory, model theory, and logic. It is tailored for graduate students and researchers who are working with simple groups of Lie type, making it a valuable resource for those looking to deepen their knowledge in this area of mathematics.
“This monograph proves an attractive conjecture of G. L. Cherlin on finite permutation groups, motivated by model theory.” (H. Dugald Macpherson, Mathematical Reviews, November, 2023)
ISBN: 9783030959555
Dimensions: unknown
Weight: unknown
216 pages
1st ed. 2022