The research aims to develop strategies with the ultimate goal of achieving supercapacitors with high energy density while maintaining their power density and cycling stability. The work includes designing flexible electrode materials with cost-effective and environmentally benign materials following a simple, versatile electrospinning procedure. The novel and newly designed state-of-the-art materials will improve the scope of energy storage devices to a greater extent.

We researched the dye removal efficiency of the biodegradable hybrid polymer samples in an aqueous medium via stepwise optimization of various influencing parameters like adsorbent dose, contact time, initial dye concentration, pH, and temperature of the adsorption medium. Adsorption was also analyzed through adsorption isotherm, kinetics, and equilibrium studies. The recyclability of the samples to be used as effective adsorbents for the removal environmental hazardous dye was tested through various adsorption-desorption cycles. The results also indicated the direct applications of the synthesized materials towards the textile sector and water pollution control sector.