
TL;DR
This paper provides a comprehensive solution to the generalized Reeder's puzzle on Dynkin and affine Dynkin diagrams, determining the number of equivalence classes and extending results to certain trees containing E_6.
Contribution
It offers a detailed classification and solution for the puzzle on complex graph structures, including new results on simply-laced trees with E_6 subgraphs.
Findings
Number of equivalence classes for Dynkin diagrams
Number of equivalence classes for affine Dynkin diagrams
Main theorem on simply-laced trees containing E_6
Abstract
In this paper we consider the generalized Reeder's puzzle, introduced by Reeder in 2005 and generalized by Borovoi and Evenor in 2016. We give a detailed solution of the puzzle for the graphs of Dynkin diagrams and affine Dynkin diagrams. We find the number of equivalence classes in each case. We also discuss more general graphs, and prove the main theorem about graphs (simply-laced trees) that contain E_6 as a subgraph.
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Taxonomy
TopicsGeometric and Algebraic Topology · Advanced Combinatorial Mathematics · Advanced Algebra and Geometry
