Influenced by one of the most impressive properties of biological systems which is their potential to regenerate and heal after the infliction of physical damage, scientists are experimenting to originate supramolecular metallogels having self-healing properties. These materials can undergo healing not only by autonomic healing protocol but also the induced healing triggered by specific mechanisms for damage repairing, restoring strength and function. Self-healing property of supramolecular gel is observed because of its easy modulating feature through external stimuli such as heat, light, electricity, magnetic field, mechanical stress, pH, ions, chemicals, and enzymes. Dynamic covalent and noncovalent interactions due to their reversible nature offer possibilities of constructing selfhealing materials with capability of repetitive-repairing. Self-healing systems based on dynamic covalent chemistry involves different reactions for healing, which is the result of responsiveness of the functional groups to external stimuli such as temperature, chemicals and photo. On the other hand, non-covalent interactions including hydrogen bonding, hydrophobic interactions, π-π stacking, ionic interactions, metalligand interactions have, electrostatic forces also been used to produce gels with self-healing properties. Noncovalent interactions are generally more receptive to external environment when compared to covalent chemistry because these are based on reversible forces and have batter response towards external-stimuli, and for this reason non-covalent interaction guided architecture is the smarter choice for future experiments. Exercising the acquired knowledge we have planned to achieve biologically active metallogel of Zn(II) with an aromatic type tetracarboxylic acid i.e., pyromellitic acid. The role of pyromellitic acid as the low molecular weight gelator is explored through the study. DMF is used as the polar aprotic solvent media for the stabilization of Zn(II)-metallogel. Rheological