Analyzing Topological Indices and Heat of Formation for Copper(II) Fluoride Network via Curve Fitting Models

Figure 4. Graphical depiction of $R_{1} (Cu F_{2})$ , $R_{- 1} (Cu F_{2})$ , $R_{\frac{1}{2}} (Cu F_{2})$ , and $R_{\frac{- 1}{2}} (Cu F_{2})$ .

Figure 4. Graphical depiction of R1(CuF2),R−1(CuF2), R12(CuF2), and R−12(CuF2).

Table 2. Numerical comparative analysis for $R_{1} (Cu F_{2})$ , $R_{- 1} (Cu F_{2})$ , $R_{\frac{1}{2}} (Cu F_{2})$ , and $R_{\frac{- 1}{2}} (Cu F_{2})$ .

Figure 5. Graphical depiction of $ABC (Cu F_{2})$ , $GA (Cu F_{2})$ , $M_{1} (Cu F_{2})$ , and $M_{2} (Cu F_{2})$

Table 3. Numerical comparative analysis of $ABC (Cu F_{2})$ , $GA (Cu F_{2})$ , $M_{1} (Cu F_{2})$ , and $M_{2} (Cu F_{2})$ .

Figure 6. Graphical depiction of $HM (Cu F_{2})$ , $P M_{1} (Cu F_{2})$ , and $P M_{2} (Cu F_{2})$ .

Table 4. Numerical comparative analysis of $HM (Cu F_{2})$ , $P M_{1} (Cu F_{2}),$ and $P M_{2} (Cu F_{2})$ .

Figure 7. Graphical depiction of $F (Cu F_{2})$ , $AZI (Cu F_{2})$ , and $J (Cu F_{2})$ .

Table 5. Numerical comparative analysis of $F (Cu F_{2})$ , $AZI (Cu F_{2})$ , and $J (Cu F_{2})$ .

Figure 8. Graphical depiction of $ReZ G_{2} (Cu F_{2})$ and $ReZ G_{3} (Cu F_{2})$ .

Table 6. Numerical comparative analysis of $ReZ G_{1} (Cu F_{2})$ , $ReZ G_{2} (Cu F_{2})$ , and $ReZ G_{3} (Cu F_{2})$ .

Figure 9. (a) $R_{cf}$ between $Δ H_{f}$ and $R_{1} (Cu F_{2})$ and (b) $R_{cf}$ between $Δ H_{f}$ and $R_{-} 1 (Cu F_{2})$ .

Figure 10. (a) $R_{cf}$ between $Δ H_{f}$ and $R_{\frac{1}{2}} (Cu F_{2})$ and (b) $R_{cf}$ between $Δ H_{f}$ and $R_{\frac{- 1}{2}} (Cu F_{2})$ .

Figure 10. (a) Rcf between ΔHf and R12(CuF2) and (b) Rcf between ΔHf and R−12(CuF2).

Figure 11. (a) $R_{cf}$ between $Δ H_{f}$ and $M_{1} (Cu F_{2})$ and (b) $R_{cf}$ between $Δ H_{f}$ and $M_{2} (Cu F_{2})$ .

Figure 12. (a) $R_{c} f$ between $Δ H_{f}$ and $ABC (Cu F_{2})$ and (b) $R_{c} f$ between $Δ H_{f}$ and $GA (Cu F_{2})$ .

Figure 13. $R_{c} f$ between $Δ H_{f}$ and $P M_{1} (Cu F_{2})$ .

Figure 14. (a) $R_{c} f$ between $Δ H_{f}$ and $P M_{2} (Cu F_{2})$ and (b) $R_{c} f$ between $Δ H_{f}$ and $HM (Cu F_{2})$ .

Figure 15. (a) $R_{c} f$ between $Δ H_{f}$ of $F (Cu F_{2})$ and (b) $R_{c} f$ between $Δ H_{f}$ of $J (Cu F_{2})$ .

Figure 16. (a) $R_{c} f$ between $Δ H_{f}$ and $AZI (Cu F_{2})$ and (b) $R_{c} f$ between $Δ H_{f}$ and $ReZ G_{1} (Cu F_{2})$ .

Figure 17. (a) $R_{c} f$ between $Δ H_{f}$ and $ReZ G_{2} (Cu F_{2})$ and (b) $R_{c} f$ between $Δ H_{f}$ and $ReZ G_{3} (Cu F_{2})$ .

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