A novel resolvability parameter: Face metric dimension and its applications

Faces in graphs play a crucial role in understanding the structural properties of planar graphs.They represent the regions or bounded areas formed by the edges of the graph when it is embedded in the plane.The concept of faces provides insights into the connectivity and layout of systems, helping analyze the geometry and topology of networks, communication systems, and various real-world applications.In graph theory, the concept of resolvability plays a significant role in identifying distinct elements within a graph based on distances.In graph theory, the concept of resolvability plays a significant role in identifying distinct elements within a graph based on distances.Let G be a connected planar graph with vertex V(G), edge set E(G), and face set F(G).The distance between a face f and a vertex v is defined as the minimum distance from v to any vertex incident to f .In this work, we introduce a new resolvability parameter for connected planar graphs, referred to as the face metric dimension.A face-resolving set R V(G) is a set of vertices such that for every pair of distinct faces f 1 , f 2 F(G), there exists at least one vertex r R for which the distances d( f 1 , r) and d( f 2 , r) are distinct.The face metric dimension of G, denoted f md(G), is the minimum cardinality of a face-resolving set.This new metric provides insight into the structure of planar graphs and offers a novel perspective on the analysis of graph resolvability.

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Publication Details

Journal
Open Journal of Discrete Applied Mathematics
Published
2025-03-28
DOI
https://doi.org/10.30538/psrp-odam2025.0108
Citations
1
Primary Topic
Mathematics and Applications
Type
article
Field-Weighted Citation Impact
4.09

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article

A novel resolvability parameter: Face metric dimension and its applications

Muhammad Kamran Jamil, Sikander Ali
1 citations
Open Journal of Discrete Applied Mathematics
Mathematics and Applications
4.09
article

A novel resolvability parameter: Face metric dimension and its applications

Muhammad Kamran Jamil, Sikander Ali
article en
1 citations

Abstract

Faces in graphs play a crucial role in understanding the structural properties of planar graphs.They represent the regions or bounded areas formed by the edges of the graph when it is embedded in the plane.The concept of faces provides insights into the connectivity and layout of systems, helping analyze the geometry and topology of networks, communication systems, and various real-world applications.In graph theory, the concept of resolvability plays a significant role in identifying distinct elements within a graph based on distances.In graph theory, the concept of resolvability plays a significant role in identifying distinct elements within a graph based on distances.Let G be a connected planar graph with vertex V(G), edge set E(G), and face set F(G).The distance between a face f and a vertex v is defined as the minimum distance from v to any vertex incident to f .In this work, we introduce a new resolvability parameter for connected planar graphs, referred to as the face metric dimension.A face-resolving set R V(G) is a set of vertices such that for every pair of distinct faces f 1 , f 2 F(G), there exists at least one vertex r R for which the distances d( f 1 , r) and d( f 2 , r) are distinct.The face metric dimension of G, denoted f md(G), is the minimum cardinality of a face-resolving set.This new metric provides insight into the structure of planar graphs and offers a novel perspective on the analysis of graph resolvability.

Open Journal of Discrete Applied MathematicsVol. 122
Riphah International University
Openalex Percentile: Top 11%
Mathematics and Applications
4.09
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