Molecular modeling of indazole-3-carboxylic acid and its metal complexes (Zn, Ni, Co, Fe and Mn) as NO synthase inhibitors: DFT calculations, docking studies and molecular dynamics simulations
3-Carboxamide indazoles have been developed using the amide coupling process. Density function theory (DFT) computations, and the assessment of binding energy using Auto Dock, illustrate the pharmaceutical effectiveness.
3-Carboxamide indazoles have been developed using the amide coupling process. Density function theory (DFT) computations, and the assessment of binding energy using Auto Dock, illustrate the pharmaceutical effectiveness.
“…The molecules with highest HOMO values can act as electron donors and the molecules with lowest LUMO can be the electron acceptors [14][15][16][17][18] The HOMO and LUMO energies and global reactivity parameters have been calculated for all the molecules 8a-8z using GAUSSIAN 09 for DFT calculation 6-31 + G (d,p) basis set and the obtained data has been given as Table .1 in the supportive information. Out of all the compounds evaluated, compounds 8a, 8c, and 8s had the biggest energy gap (Table 1) The energy gap was computed using the ΔE = (E LUMO -E HOMO ) [19] formula, and Fig. 3 displays the FMO representation.…”
A series of 3-carboxamide indazoles (8a-8z) has been synthesized using an amide coupling technique. The derivatives were described using various spectroscopic methods such as 1H NMR, 13C NMR, IR, MASS spectral data. Density function theory (DFT) calculations revealed that compounds 8a, 8c, and 8s had the largest energy gaps among all the compounds. The study also included testing of AutoDock4 and the graphical user interface of Auto-Dock Tools, which identified three derivatives—8v, 8w, and 8y—with the maximum binding energy.
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