K-Banhatti and K-hyper Banhatti indices of dominating David Derived network

1. Introduction

Chemical graph theory is a branch of graph theory in which a chemical compound is represented by simple graph called molecular graph in which vertices are atoms of compound and edges are the atomic bounds. A graph is connected if there is atleast one connection between its vertices. Throughout this paper we take \(G\) a connected graph. If a graph does not contain any loop or multiple edges then it is called a network. Between two vertices \(u\) and \(v\), the distance is the shortest path between them and is denoted by in graph \(G\). For a vertex \(v\) of \(G\) the degree is number of vertices attached with it. The edge connecting the vertices \(u\) and \(v\) will be denoted by \(uv\). Let \(d_{G}(e)\) denote the degree of an edge \(e\) in \(G\), which is defined by \(d_{G}(e)=d_{G}(u) + d_{G}(v)- 2\) with \(e=uv\). The degree and valence in chemistry are closely related with each other. We refer the book [1] for more details. Now a day another emerging field is Cheminformatics, which helps to predict biological activities with the relationship of Structure-property and quantitative structure-activity. Topological indices and Physico-chemical properties are used in prediction of bioactivity if underlined compounds are used in these studies [2,3 ].

A number that describe the topology of a graph is called topological index. In 1947, the first and most studied topological index was introduced by Weiner [4]. For more details about this index can be found in [5, 6]. In 1975, Milan Randic introduced the Randic index [7]. Bollobas et al. [8] and Amic et al. [9] in 1998, working independently defined the generalized Randic index. This index was studied by both mathematicians and chemists [10]. For details about topological indices, we refer [11,12 ] The first and second \(K\)-Banhatti indices of \(G\) are defined as:

$$B_{1}(G)=\sum\limits_{ue}[d_{G}(u)+d_{G}(e)]$$ and $$B_{2}(G)=\sum\limits_{ue}[d_{G}(u)\times d_{G}(e)]$$ where ue means that the vertex \(u\) and edge e are incident in \(G\). The first and second K-hyper Banhatti indices of G are defined as $$HB_{1}(G)=\sum\limits_{ue}[d_{G}(u)+d_{G}(e)]^{2}$$ and $$HB_{2}(G)=\sum\limits_{ue}[d_{G}(u)\times d_{G}(e)]^{2}.$$ We refer [13] for details about these indices. The David derived and dominating David derived network of dimension \(n\) can be constructed as follows [14]: consider a n dimensional star of David network . Insert a new vertex on each edge and split it into two parts, we will get David derived network \(DD(n)\) of dimension \(n\).

The dominating David derived network of the first type of dimension \(n\) which can be obtained by connecting vertices of degree \(2\) of \(DDD(n)\) by an edge that are not in the boundary and is denoted by \(D_{1}(n)\) [14]. The dominating David derived network of the second type of dimension n can be obtained by subdividing the new edges in \(D_{1}(n)\) [14] and is denoted by \(D_{1}(2)\).

The dominating David derived network of the second type of dimension \(n\) denoted by \(D_{3}(n)\) can be obtained from \(D_{1}(n)\) by introducing a parallel path of length 2 between the vertices of degree two that are not in the boundary [14, 15].

In this article, we compute first and second \(K\)-Banhatti index and first and second hyper \(K\)-Banhatti index of Dominating David derived networks of first, second and thord type. Throughout this paper \(E_{m,n}=\{e=uv\in E(G); d_{u}=m, d_{v}=n\}\) and \(|E_{m,n}(G)|\) is the number of elements in \(E_{m,n}(G)\).

Theorem 1.1 Let \(G=D_{1}(n)\) be the dominating David derived network of \(1^{st}\) type. Then the first and the second \(K\)-Banhatti indices of \(D_{1}(n)\) are \begin{eqnarray*} B_{1}[D_{1}(n)]&=&1485n^{2}+1624n-1002\\ B_{2}[D_{1}(n)]&=&3204n^{2}+764n-3292 \end{eqnarray*}

Proof. Let \(G=D_{1}(n)\) be the dominating David derived network of \(1^{st}\) type. From figure 1, the edge partition of dominating David derived network of \(1^{st}\) type \(D_{1}(n)\) based on degrees of end vertices of each edge is give in table 1.

Edge partition of Dominating David derived network of first type

\((d_{u}, d_{v})\)	Number of edges	Degree of Edges
\((2,2)\)	\(4n\)	\(2\)
\((2,3)\)	\(4n-4\)	\(3\)
\((2,4)\)	\(28n-16\)	\(4\)
\((3,3)\)	\(9n^{2}-13n+24\)	\(4\)
\((3,4)\)	\(36n^{2}-56n+24\)	\(5\)
\((4,4)\)	\(36n^{2}-56n+20\)	\(6\)

First \(k\)-Banhatti index of \(D_{1}(n)\) is calculated as \begin{eqnarray*} B_{1}[D_{1}(n)]&=&\sum\limits_{ue}[d_{G}(u)+d_{G}(e)]\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+ \sum\limits_{ue\in E_{2,3}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{2,4}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{3,3}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{3,4}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &=& 4n[(2+2)+(2+2)]+(4n-4)[(2+3)+(3+3)]\\ &&+(28n-16)[(2+4)+(4+4)]\\ &&+(9n^{2}-13n+24)[(3+4)+(3+4)]\\ &&+(36n^{2}-56n+24)[(3+5)+(4+5)]\\ &&+(36n^{2}-56n+20)[(4+6)+(4+6)]\\ &=& 1458n^{2}+1624n-1002. \end{eqnarray*} Second \(K\)-Banhatti index of \(D_{1}(n)\) is calculated as \begin{eqnarray*} B_{2}[D_{1}(n)]&=&\sum\limits_{ue}[d_{G}(u)d_{G}(v)]\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+ \sum\limits_{ue\in E_{2,3}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{2,4}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{3,3}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{3,4}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &=& 4n[(2+2)+(2.2)]+(4n-4)[(2+3)+(3.3)]\\ &&+(28n-16)[(2.4)+(4.4)]\\ &&+(9n^{2}-13n+24)[(3.4)+(4.4)]\\ &&+(36n^{2}-56n+24)[(3.5)+(4.5)]\\ &&+(36n^{2}-56n+20)[(4.6)+(4.6)]\\ &=& 3204n^{2}+764n-3292. \end{eqnarray*}

Theorem 1.2. Let \(G=D_{1}(n)\) be the dominating David derived network of \(1^{st}\) type. Then the first and the second \(K\)-hyper Banhatti indices of \(D_{1}(n)\) are \begin{eqnarray*} HB_{1}[D_{1}(n)]&=&13302n^{2}-16623n+6146\\ HB_{2}[D_{1}(n)]&=&66564n^{2}-89092n+33892 \end{eqnarray*}

Proof Let \(G=D_{1}(n)\) be the dominating David derived network of \(1^{st}\) type. Then first \(K\)-hyper Banhatti index of \(D_{1}(n)\) is calculated as \begin{eqnarray*} HB_{1}[D_{1}(n)]&=&\sum\limits_{ue}[d_{G}(u)+d_{G}(v)]^{2}\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+ \sum\limits_{ue\in E_{2,3}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{2,4}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{3,3}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{3,4}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &=& 4n[(2+2)^{2}+(2+2)^{2}]+(4n-4)[(2+3)^{2}+(3+3)^{2}]\\ &&+(28n-16)[(2+4)^{2}+(4+4)^{2}]\\ &&+(9n^{2}-13n+24)[(3+4)^{2}+(3+4)^{2}]\\ &&+(36n^{2}-56n+24)[(3+5)^{2}+(4+5)^{2}]\\ &&+(36n^{2}-56n+20)[(4+6)^{2}+(4+6)^{2}]\\ &=& 13302n^{2}-16623n+6146 \end{eqnarray*} Second \(K\)-hyper Banhatti index of \(D_{1}(n)\) is calculated as \begin{eqnarray*} HB_{2}[D_{1}(n)]&=&\sum\limits_{ue}[d_{G}(u)d_{G}(v)]^{2}\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+ \sum\limits_{ue\in E_{2,3}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{2,4}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{3,3}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{3,4}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &=& 4n[4^{2}+4^{2}]+(4n-4)[6^{2}+9^{2}]\\ &&+(28n-16)[8^{2}+16^{2}]\\ &&+(9n^{2}-13n+24)[12^{2}+12^{2}]\\ &&+(36n^{2}-56n+24)[15^{2}+20^{2}]\\ &&+(36n^{2}-56n+20)[24^{2}+24^{2}]\\ &=& 66564n^{2}-89092n+33892. \end{eqnarray*}

Theorem 1.3. Let \(G=D_{2}(n)\) be the dominating David derived network of \(2^{nd}\) type. Then the first and the second \(K\)-Banhatti indices of \(D_{2}(n)\) are \begin{eqnarray*} B_{1}[D_{2}(n)]&=&1530n^{2}-1810n+650\\ B_{2}[D_{2}(n)]&=&32584n^{2}-4127n+1506 \end{eqnarray*}

Proof Let \(G=D_{2}(n)\) be the dominating David derived network of \(2^{nd}\) type. Table \(2\) shows the edge partition of dominating David derived network of \(2^{nd}\) type \(D_{2}(n)\) based on degrees of end vertices of each edge

Edge partition of Dominating David derived network of second type

\((d_{u}, d_{v})\)	Number of edges	Degree of Edges
\((2,2)\)	\(4n\)	\(2\)
\((2,3)\)	\(18n^{2}-22n+6\)	\(3\)
\((2,4)\)	\(28n-16\)	\(4\)
\((3,4)\)	\(36n^{6}-56n+24\)	\(5\)
\((4,4)\)	\(336n^{6}-56n+20\)	\(6\)

First \(K\)-Banhatti index of \(D_{2}(n)\) is calculated as \begin{eqnarray*} B_{1}[D_{2}(n)]&=&\sum\limits_{ue}[d_{G}(u)+d_{G}(v)]\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+ \sum\limits_{ue\in E_{2,3}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{2,4}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{3,4}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &=& 4n[(2+2)+(2+2)]+(18n^{2}-22n+6)[(2+3)+(3+3)]\\ &&+(28n-16)[(2+4)+(4+4)]\\ &&+(36n^{6}-56n+24)[(3+5)+(4+5)]\\ &&+(36n^{6}-56n+20)[(4+6)+(4+6)]\\ &=& 1530n^{2}-1810n+650. \end{eqnarray*} Second \(K\)-Banhatti index of \(D_{2}(n)\) is calculated as \begin{eqnarray*} B_{1}[D_{2}(n)]&=&\sum\limits_{ue}[d_{G}(u)d_{G}(v)]\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+ \sum\limits_{ue\in E_{2,3}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{2,4}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{3,4}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &=& 4n[(2.2)+(2.2)]+(18n^{2}-22n+6)[(2.3)+(3.3)]\\ &&+(28n-16)[(2.4)+(4.4)]\\ &&+(36n^{6}-56n+24)[(3.5)+(4.5)]\\ &&+(36n^{6}-56n+20)[(4.6)+(4.6)]\\ &=& 32584n^{2}-4127n+1506. \end{eqnarray*}

Theorem 1.4. Let \(G=D_{2}(n)\) be the dominating David derived network of \(2^{nd}\) type. Then the first and the second \(K\)-hyper Banhatti indices of \(D_{2}(n)\) are \begin{eqnarray*} HB_{1}[D_{1}(n)]&=&1351n^{2}-1693n+6246\\ HB_{2}[D_{1}(n)]&=&22606n^{2}-28486n+10582 \end{eqnarray*}

Proof Let \(G=D_{2}(n)\) be the dominating David derived network of \(2^{nd}\) type. First \(K\)- hyper Banhatti index of \(D_{2}(n)\) is calculated as \begin{eqnarray*} HB_{1}[D_{2}(n)]&=&\sum\limits_{ue}[d_{G}(u)+d_{G}(v)]^{2}\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+ \sum\limits_{ue\in E_{2,3}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{2,4}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{3,4}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &=& 4n[(2+2)^{2}+(2+2)^{2}]+(18n^{2}-22n+6)[(2+3)^{2}+(3+3)^{2}]\\ &&+(28n-16)[(2+4)^{2}+(4+4)^{2}]\\ &&+(36n^{6}-56n+24)[(3+5)^{2}+(4+5)^{2}]\\ &&+(36n^{6}-56n+20)[(4+6)^{2}+(4+6)^{2}]\\ &=& 1351n^{2}-1693n+6246. \end{eqnarray*} Second \(K\)-hyper Banhatti index of \(D_{2}(n)\) is calculated as \begin{eqnarray*} HB_{2}[D_{2}(n)]&=&\sum\limits_{ue}[d_{G}(u)d_{G}(v)]^{2}\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+ \sum\limits_{ue\in E_{2,3}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{2,4}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{3,4}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)d_{G}(e)^{2})+(d_{G}(v)d_{G}(e))^{2}]\\ &=& 4n[(2.2)^{2}+(2.2)^{2}]+(18n^{2}-22n+6)[(2.3)^{2}+(3.3)^{2}]\\ &&+(28n-16)[(2.4)^{2}+(4.4)^{2}]\\ &&+(36n^{6}-56n+24)[(3.5)^{2}+(4.5)^{2}]\\ &&+(36n^{6}-56n+20)[(4.6)^{2}+(4.6)^{2}]\\ &=& 22606n^{2}-28486n+10582. \end{eqnarray*}

Theorem 1.5 Let \(G=D_{3}(n)\) be the dominating David derived network of \(3^{rd}\) type. Then the first and the second $K$-Banhatti indices of \(D_{3}(n)\) are \begin{eqnarray*} B_{1}[D_{3}(n)]&=&1944n^{2}-2128n+600\\ B_{2}[D_{3}(n)]&=&4320n^{2}-8224n+2112 \end{eqnarray*}

Proof Let \(G=D_{3}(n)\) be the dominating David derived network of \(3^{rd}\) type. Table \(3\) shows the edge partition of dominating David derived network of \(3^{rd}\) type \(D_{3}(n)\) based on degrees of end vertices of each edge.

Edge partition of Dominating David derived network of second type

\((d_{u}, d_{v})\)	Number of edges	Degree of Edges
\((2,2)\)	\(4n\)	\(2\)
\((2,4)\)	\(36n^{2}-20n\)	\(4\)
\((4,4)\)	\(72n^{2}-108n+44\)	\(6\)

First \(K\)-Banhatti index of \(D_{3}(n)\) is calculated as \begin{eqnarray*} B_{1}[D_{3}(n)]&=&\sum\limits_{ue}[d_{G}(u)+d_{G}(v)]\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+ \sum\limits_{ue\in E_{2,4}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)+d_{G}(e))+(d_{G}(v)+d_{G}(e))]\\ &=& 4n[(2+2)+(2+2)]+(36n^{2}-20n)[(2+4)+(4+4)]\\ &&+(72n^{2}-108n+44)[(2+6)+(4+6)]\\ &=& 1944n^{2}-2128n+600 \end{eqnarray*} Second \(K\)-Banhatti index is calculated as \begin{eqnarray*} B_{2}[D_{3}(n)]&=&\sum\limits_{ue}[d_{G}(u)+d_{G}(v)]\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+ \sum\limits_{ue\in E_{2,4}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)d_{G}(e))+(d_{G}(v)d_{G}(e))]\\ &=& 4n[(2.2)+(2.2)]+(36n^{2}-20n)[(2.4)+(4.4)]\\ &&+(72n^{2}-108n+44)[(2.6)+(4.6)]\\ &=& 4320n^{2}-8224n+2112 \end{eqnarray*}

Theorem 1.6. Let \(G=D_{3}(n)\) be the dominating David derived network of \(3^{rd}\) type. Then the first and the second \(K\)-hyper Banhatti indices of \(D_{3}(n)\) are \begin{eqnarray*} HB_{1}[D_{3}(n)]&=&18000n^{2}-23472n+8800\\ HB_{2}[D_{3}(n)]&=&94464n^{2}-130688n+50688 \end{eqnarray*}

Proof. Let \(G=D_{3}(n)\) be the dominating David derived network of \(3^{rd}\) type. Then the first \(K\)-hyper Banhatti index is calculated as \begin{eqnarray*} HB_{1}[D_{3}(n)]&=&\sum\limits_{ue}[d_{G}(u)+d_{G}(v)]^{2}\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+ \sum\limits_{ue\in E_{2,4}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)+d_{G}(e))^{2}+(d_{G}(v)+d_{G}(e))^{2}]\\ &=& 4n[(2+2)^{2}+(2+2)^{2}]+(36n^{2}-20n)[(2+4)^{2}+(4+4)^{2}]\\ &&+(72n^{2}-108n+44)[(2+6)^{2}+(4+6)^{2}]\\ &=& 18000n^{2}-23472n+8800 \end{eqnarray*} Second \(K\)-hyper Banhatti index of \(D_{3}(n)\) is calculated as \begin{eqnarray*} HB_{1}[D_{3}(n)]&=&\sum\limits_{ue}[d_{G}(u)+d_{G}(v)]^{2}\\ &=&\sum\limits_{ue\in E_{2,2}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+ \sum\limits_{ue\in E_{2,4}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &&+\sum\limits_{ue\in E_{4,4}}[(d_{G}(u)d_{G}(e))^{2}+(d_{G}(v)d_{G}(e))^{2}]\\ &=& 4n[(2.2)^{2}+(2.2)^{2}]+(36n^{2}-20n)[(2.4)^{2}+(4.4)^{2}]\\ &&+(72n^{2}-108n+44)[(2.6)^{2}+(4.6)^{2}]\\ &=& 94464n^{2}-130688n+50688 \end{eqnarray*}

2. Conclusion

In the present report, we have computed First and second K-Banhatti and K-hyer Banhatti indices of Dominating David derived networks of first, second and third type.

Competing Interests

The author do not have any competing interests in the manuscript.