Divisor equitably strong non-split divisor equitable domination in graphs

In epidemiology, the spread of diseases can be modelled using graphs, where individuals are nodes, and edges represent potential pathways for disease transmission. A non-split dominating set could help identify key individuals (or groups) whose monitoring or immunization would ensure that the rest of the population (the non-dominated group) remains connected and can be controlled in case of disease spread. This approach has the potential to have a significant impact across various areas of medicine. We present the idea of non-split divisor equitable domination in graphs as a way to optimize medical networks. Let Q be a graph with vertex set R(Q) and edge set E (Q). Two vertices h and t are known as degree divisor equitable if gcd(dQ(h), dQ(t)) = 1. F ⊂ R(Q) is known as divisor equitable dominating set of Q if ∀ h ∈ R\F, ∋ a t ∈ F such that h and t are adjacent and degree divisor equitable. The divisor equitable domination number of a graph γde(Q) of Q is the minimum cardinality of a divisor equitable dominating set of Q. In this paper, we introduce the concept of a non-split divisor equitable dominating set, divisor equitably strong non-split divisor equitable dominating set, and divisor equitable independent set and divisor equitable clique number. It also explores the concepts of a divisor equitable vertex dominating set, complement divisor equitable graph, and divisor equitable vertex cut.

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Publication Details

Journal
Mathematics in Applied Sciences and Engineering
Published
2025-02-20
DOI
https://doi.org/10.5206/mase/21259
Primary Topic
Complex Network Analysis Techniques
Type
article
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article

Divisor equitably strong non-split divisor equitable domination in graphs

G. B. Priyanka, J. Catherine Grace John, Patrick Xavier
Mathematics in Applied Sciences and Engineering
Complex Network Analysis Techniques
article

Divisor equitably strong non-split divisor equitable domination in graphs

G. B. Priyanka, J. Catherine Grace John, Patrick Xavier
article en

Abstract

In epidemiology, the spread of diseases can be modelled using graphs, where individuals are nodes, and edges represent potential pathways for disease transmission. A non-split dominating set could help identify key individuals (or groups) whose monitoring or immunization would ensure that the rest of the population (the non-dominated group) remains connected and can be controlled in case of disease spread. This approach has the potential to have a significant impact across various areas of medicine. We present the idea of non-split divisor equitable domination in graphs as a way to optimize medical networks. Let Q be a graph with vertex set R(Q) and edge set E (Q). Two vertices h and t are known as degree divisor equitable if gcd(dQ(h), dQ(t)) = 1. F ⊂ R(Q) is known as divisor equitable dominating set of Q if ∀ h ∈ R\F, ∋ a t ∈ F such that h and t are adjacent and degree divisor equitable. The divisor equitable domination number of a graph γde(Q) of Q is the minimum cardinality of a divisor equitable dominating set of Q. In this paper, we introduce the concept of a non-split divisor equitable dominating set, divisor equitably strong non-split divisor equitable dominating set, and divisor equitable independent set and divisor equitable clique number. It also explores the concepts of a divisor equitable vertex dominating set, complement divisor equitable graph, and divisor equitable vertex cut.

Mathematics in Applied Sciences and Engineering
Karunya University (IN)
Good health and well-being
Openalex Percentile: Top 97%
Complex Network Analysis Techniques
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