Degree-Based Entropy for a Non-Kekulean Benzenoid Graph

Tessellations of kekulenes and cycloarenes have a lot of potential as nanomolecular belts for trapping and transporting heavy metal ions and chloride ions because they have the best electronic properties and pore sizes. The aromaticity, superaromaticity, chirality, and novel electrical and magnetic...

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Main Authors: Md. Ashraful Alam, Muhammad Usman Ghani, Muhammad Kamran, Muhammad Shazib Hameed, Riaz Hussain Khan, A. Q. Baig
Format: Article
Language:English
Published: Wiley 2022-01-01
Series:Journal of Mathematics
Online Access:http://dx.doi.org/10.1155/2022/2288207
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author Md. Ashraful Alam
Muhammad Usman Ghani
Muhammad Kamran
Muhammad Shazib Hameed
Riaz Hussain Khan
A. Q. Baig
author_facet Md. Ashraful Alam
Muhammad Usman Ghani
Muhammad Kamran
Muhammad Shazib Hameed
Riaz Hussain Khan
A. Q. Baig
author_sort Md. Ashraful Alam
collection DOAJ
description Tessellations of kekulenes and cycloarenes have a lot of potential as nanomolecular belts for trapping and transporting heavy metal ions and chloride ions because they have the best electronic properties and pore sizes. The aromaticity, superaromaticity, chirality, and novel electrical and magnetic properties of a class of cycloarenes known as kekulenes have been the subject of several experimental and theoretical studies. Through topological computations of superaromatic structures with pores, we investigate the entropies and topological characterization of different tessellations of kekulenes. Using topological indices, the biological activity of the underlying structure is linked to its physical properties in (QSPR/QSAR) research. There is a wide range of topological indices accessible, including degree-based indices, which are used in this work. With the total π-electron energy, these indices have a lot of iteration. In addition, we use graph entropies to determine the structural information of a non-Kekulean benzenoid graph. In this article, we study the crystal structure of non-Kekulean benzenoid graph Kn and then calculate some entropies by using the degree-based topological indices. We also investigate the relationship between degree-based topological indices and degree-based entropies. This relationship is very helpful for chemist to study the physicochemical characterization of non-Kekulean benzenoid chemical. These numerical values correlate with structural facts and chemical reactivity, biological activities, and physical properties.
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spelling doaj-art-355fd70552db49389404ab21fc7bb9822025-02-03T05:50:00ZengWileyJournal of Mathematics2314-47852022-01-01202210.1155/2022/2288207Degree-Based Entropy for a Non-Kekulean Benzenoid GraphMd. Ashraful Alam0Muhammad Usman Ghani1Muhammad Kamran2Muhammad Shazib Hameed3Riaz Hussain Khan4A. Q. Baig5Department of MathematicsDepartment of MathematicsDepartment of MathematicsDepartment of MathematicsDepartment of MathematicsDepartment of Mathematics and StatisticsTessellations of kekulenes and cycloarenes have a lot of potential as nanomolecular belts for trapping and transporting heavy metal ions and chloride ions because they have the best electronic properties and pore sizes. The aromaticity, superaromaticity, chirality, and novel electrical and magnetic properties of a class of cycloarenes known as kekulenes have been the subject of several experimental and theoretical studies. Through topological computations of superaromatic structures with pores, we investigate the entropies and topological characterization of different tessellations of kekulenes. Using topological indices, the biological activity of the underlying structure is linked to its physical properties in (QSPR/QSAR) research. There is a wide range of topological indices accessible, including degree-based indices, which are used in this work. With the total π-electron energy, these indices have a lot of iteration. In addition, we use graph entropies to determine the structural information of a non-Kekulean benzenoid graph. In this article, we study the crystal structure of non-Kekulean benzenoid graph Kn and then calculate some entropies by using the degree-based topological indices. We also investigate the relationship between degree-based topological indices and degree-based entropies. This relationship is very helpful for chemist to study the physicochemical characterization of non-Kekulean benzenoid chemical. These numerical values correlate with structural facts and chemical reactivity, biological activities, and physical properties.http://dx.doi.org/10.1155/2022/2288207
spellingShingle Md. Ashraful Alam
Muhammad Usman Ghani
Muhammad Kamran
Muhammad Shazib Hameed
Riaz Hussain Khan
A. Q. Baig
Degree-Based Entropy for a Non-Kekulean Benzenoid Graph
Journal of Mathematics
title Degree-Based Entropy for a Non-Kekulean Benzenoid Graph
title_full Degree-Based Entropy for a Non-Kekulean Benzenoid Graph
title_fullStr Degree-Based Entropy for a Non-Kekulean Benzenoid Graph
title_full_unstemmed Degree-Based Entropy for a Non-Kekulean Benzenoid Graph
title_short Degree-Based Entropy for a Non-Kekulean Benzenoid Graph
title_sort degree based entropy for a non kekulean benzenoid graph
url http://dx.doi.org/10.1155/2022/2288207
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