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New bounds for the distance Ramsey number
In this paper we study the distance Ramsey number \(R_{{\it D}}(s,t,d)\). The \textit{distance Ramsey number} \(R_{{\it D}}(s,t,d) \) is the minimum number \(n\) such that for any graph \( G \) on \( n \) vertices, either \(G\) contains an induced \( s \)-vertex subgraph isomorphic to a distance gra...
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Published in: | arXiv.org 2013-07 |
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Main Authors: | , , |
Format: | Article |
Language: | English |
Subjects: | |
Online Access: | Get full text |
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Summary: | In this paper we study the distance Ramsey number \(R_{{\it D}}(s,t,d)\). The \textit{distance Ramsey number} \(R_{{\it D}}(s,t,d) \) is the minimum number \(n\) such that for any graph \( G \) on \( n \) vertices, either \(G\) contains an induced \( s \)-vertex subgraph isomorphic to a distance graph in \( \Real^d \) or \( \bar {G} \) contains an induced \( t \)-vertex subgraph isomorphic to the distance graph in \( \Real^d \). We obtain the upper and lower bounds on \(R_{{\it D}}(s,s,d),\) which are similar to the bounds for the classical Ramsey number \(R(\lceil \frac{s}{[d/2]} \rceil, \lceil \frac{s}{[d/2]} \rceil)\). |
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ISSN: | 2331-8422 |