Abstract

Let G = V G , E G be the connected graph. For any vertex i ∈ V G and a subset B ⊆ V G , the distance between i and B is d i ; B = min d i , j | j ∈ B . The ordered k -partition of V G is Π = B 1 , B 2 , … , B k . The representation of vertex i with respect to Π is the k -vector, that is, r i | Π = d i , B 1 , d i , B 2 , … , d i , B k . The partition Π is called the resolving (distinguishing) partition if r i | Π ≠ r j | Π , for all distinct i , j ∈ V G . The minimum cardinality of the resolving partition is called the partition dimension, denoted as pd G . In this paper, we consider the upper bound for the partition dimension of the generalized Petersen graph in terms of the cardinalities of its partite sets.

Highlights

  • Is known as metric representation of i with respect to R

  • We can affirm that Π is the resolving partition of the graph G if different vertices have unique partition representation, that is, r(i|Π) ≠ r(j|Π), where i, j ∈ VG. e partition dimension of the graph G is than the minimum number of resolving partition set in G

  • The graph with partition dimension |V| − 3 is discussed [6] and the graph obtained by graph operations and its corresponding partition dimension is studied in [7]. e bounds on the partition dimension for convex polytopes are studied in [8,9,10] and bounds of partition on the circulant and multipartite discussed in [11, 12]. e partition dimension of chemical structure fullerenes graphs is studied in [13], and on the bounded partition, dimension of the Cartesian product of graphs are studied in [14]

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Summary

Introduction

Is known as metric representation of i with respect to R. We consider the upper bound for the partition dimension of the generalized Petersen graph in terms of the cardinalities of its partite sets. E study on the resolving set and metric dimension of Petersen and generalized

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