On the minimum number of monochromatic solutions to the strict Schur inequality in 2-colored integer intervals with negative left endpoint

Fuente: arXiv
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Auteurs principaux: Yang, Gang, Liang, Jinxia, Mao, Yaping, Yang, Chenxu, Zhang, Ayun
Format: Preprint
Publié: 2026
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author Yang, Gang
Liang, Jinxia
Mao, Yaping
Yang, Chenxu
Zhang, Ayun
author_facet Yang, Gang
Liang, Jinxia
Mao, Yaping
Yang, Chenxu
Zhang, Ayun
contents Kosek, Robertson, Sabo, and Schaal studied the minimum number \(M_k(n)\) of monochromatic solutions to the strict Schur inequality system $x_1\le x_2\le x_3$ and $x_1+x_2<x_3$ in \(2\)-colorings of \([k+1,k+n]\). They proved that for every fixed \(k\ge 0\), $M_k(n)= \frac{n^3}{12(1+2\sqrt2)^2}(1+o_k(1)),$ and left open the case \(k\le -2\). In this paper, we resolve that remaining range.
format Preprint
id arxiv_https___arxiv_org_abs_2604_04553
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle On the minimum number of monochromatic solutions to the strict Schur inequality in 2-colored integer intervals with negative left endpoint
Yang, Gang
Liang, Jinxia
Mao, Yaping
Yang, Chenxu
Zhang, Ayun
Combinatorics
Kosek, Robertson, Sabo, and Schaal studied the minimum number \(M_k(n)\) of monochromatic solutions to the strict Schur inequality system $x_1\le x_2\le x_3$ and $x_1+x_2<x_3$ in \(2\)-colorings of \([k+1,k+n]\). They proved that for every fixed \(k\ge 0\), $M_k(n)= \frac{n^3}{12(1+2\sqrt2)^2}(1+o_k(1)),$ and left open the case \(k\le -2\). In this paper, we resolve that remaining range.
title On the minimum number of monochromatic solutions to the strict Schur inequality in 2-colored integer intervals with negative left endpoint
topic Combinatorics
url https://arxiv.org/abs/2604.04553