This research describes the preparation of mixtures of
new halogen-substituted
phenol derivatives and their effects due to linkages with a fatty
amide (pentanamide). The molecules were optimized using DFT, and the
vibrational and electronic analysis was done subsequently. The energies
of frontier molecular orbitals (FMOs) were used to estimate the global
chemical reactivity parameters as we suggest that hydrogen-bonded
networks may have contributed to the stability and reactivity of the
compound. In addition to the experimental investigation, dielectric
parameters were calculated. Fukui functions were analyzed to study
the chemical reactivity. To get insight into interactions of σ
→ π* orbitals, natural bond orbital calculations were
done. Additionally, surface analysis of the MEP and Hirshfeld charges
were performed at the equivalent DFT levels. The research also indicated
that both (interaction region indicator) IRI and (electron delocalize
range) EDR would proficiently identify chemical-bonding and weak interaction
regions, providing a significant advantage in exploring diverse chemical
systems and reactions. This indicated that compounds could diffuse
through noncovalent interactions, including intramolecular hydrogen
bonding. Dielectric relaxation studies taken at five distinct molar
ratios identified significant dielectric properties such as ε′,
ε″, ε0, and ε∞. The PA with FP, CP, BP, and IP molecules has potential antiviral
and antioxidant benefits for carbonic anhydrase, with favorable drug-like
features and diverse biological benefits. Pharmacological effects
were forecasted using the PASS server, and these molecules exhibited
favorable pharmacokinetic properties.