# Building maximal green sequences via component preserving mutations

**Authors:** Eric Bucher, John Machacek, Evan Runburg, Abe Yeck, Ethan Zewde

arXiv: 1902.02262 · 2020-11-19

## TL;DR

This paper introduces component preserving mutations, a new method for generating maximal green and reddening sequences of quivers, which helps recover and discover sequences relevant to periodicity and quantum identities.

## Contribution

The paper presents a novel mutation technique that generalizes quiver direct sums, enabling the recovery and discovery of new maximal green sequences and their applications.

## Key findings

- Successfully produces and recovers maximal green sequences for bipartite recurrent quivers.
- Establishes a connection between the method and the dominance phenomenon, extending sequences to other quivers.
- Facilitates computation of quantum dilogarithm identities and minimal length sequences.

## Abstract

We introduce a new method for producing both maximal green and reddening sequences of quivers. The method, called component preserving mutations, generalizes the notion of direct sums of quivers and can be used as a tool to both recover known reddening sequences as well as find reddening sequences that were previously unknown. We use the method to produce and recover maximal green sequences for many bipartite recurrent quivers that show up in the study of periodicity of $T$-systems and $Y$-systems. Additionally, we show how our method relates to the dominance phenomenon recently considered by Reading. Given a maximal green sequence produced by our method, this relation to dominance gives a maximal green sequence for infinitely many other quivers. Other applications of this new methodology are explored including computing of quantum dilogarithm identities and determining minimal length maximal green sequences.

## Full text

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## Figures

16 figures with captions in the complete paper: https://tomesphere.com/paper/1902.02262/full.md

## References

42 references — full list in the complete paper: https://tomesphere.com/paper/1902.02262/full.md

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Source: https://tomesphere.com/paper/1902.02262