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Main Authors: Ogievetsky, Oleg, Shlosman, Senya
Format: Preprint
Published: 2025
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Online Access:https://arxiv.org/abs/2502.02262
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author Ogievetsky, Oleg
Shlosman, Senya
author_facet Ogievetsky, Oleg
Shlosman, Senya
contents We construct the independent particle representation for the Semistandard Young Tableaux (SsYT) of skew shape $λ/μ.$ The partition function of this particle system gives the generating function of the SsYT of skew shape $λ/μ.$ Thus we obtain a bijective proof of the Stanley formula for the SsYT generating function. To do this we define for every SsYT $T$ its plinth, $\mathsf{p}\left( T\right) ,$ which is a SsYT of the same shape $λ/μ.$ The set of plinths is finite. Our bijection associates to every SsYT $T$ a pair $\left( \mathsf{p}\left( T\right) ,Y\left( T-\mathsf{p}\left( T\right) \right) \right) ,$ where $Y\left( T-\mathsf{p}\left( T\right) \right) $ is the reading Young diagram of the SsYT $\left( T-\mathsf{p}\left( T\right) \right) $. \newline In particular, every Standard Young Tableau (SYT) $P$ has its plinth, $\mathsf{p}\left( P\right) $. The two statistics of SYT-s -- the volume $\left\vert \mathsf{p}\left( P\right) \right\vert $ and $\mathsf{maj}\left( P\right) $ -- are related via the Schützenberger involution $Sch:$% \[ \left\vert \mathsf{p}\left( P\right) \right\vert =\mathsf{maj}\left( Sch\left( P\right) \right) . \]
format Preprint
id arxiv_https___arxiv_org_abs_2502_02262
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle The major index (maj) and its Schützenberger dual
Ogievetsky, Oleg
Shlosman, Senya
Combinatorics
05A19 (Primary) 05A15 (Secondary)
We construct the independent particle representation for the Semistandard Young Tableaux (SsYT) of skew shape $λ/μ.$ The partition function of this particle system gives the generating function of the SsYT of skew shape $λ/μ.$ Thus we obtain a bijective proof of the Stanley formula for the SsYT generating function. To do this we define for every SsYT $T$ its plinth, $\mathsf{p}\left( T\right) ,$ which is a SsYT of the same shape $λ/μ.$ The set of plinths is finite. Our bijection associates to every SsYT $T$ a pair $\left( \mathsf{p}\left( T\right) ,Y\left( T-\mathsf{p}\left( T\right) \right) \right) ,$ where $Y\left( T-\mathsf{p}\left( T\right) \right) $ is the reading Young diagram of the SsYT $\left( T-\mathsf{p}\left( T\right) \right) $. \newline In particular, every Standard Young Tableau (SYT) $P$ has its plinth, $\mathsf{p}\left( P\right) $. The two statistics of SYT-s -- the volume $\left\vert \mathsf{p}\left( P\right) \right\vert $ and $\mathsf{maj}\left( P\right) $ -- are related via the Schützenberger involution $Sch:$% \[ \left\vert \mathsf{p}\left( P\right) \right\vert =\mathsf{maj}\left( Sch\left( P\right) \right) . \]
title The major index (maj) and its Schützenberger dual
topic Combinatorics
05A19 (Primary) 05A15 (Secondary)
url https://arxiv.org/abs/2502.02262