Modeling of Electricity Generation Using Smart Piezoelectric-Materials

This study explores the potential of smart piezoelectric materials as a means of clean electricity generation through the conversion of mechanical stresses into electrical potential. A speed bump module outfitted with these materials serves as the experimental model. The materials are modeled and simulated using COMSOL software, and the output is assessed under a range of load states and other parameters. The findings provide a comparative analysis of various piezoelectric materials and their performance characteristics. The overarching aim is to harvest energy from typically inefficient sources such as footsteps, sound, pressure, and vehicular traffic. The practical implementation of these findings could lead to the reuse of power from the main grid for applications like street lighting and signboards, thereby reducing overall energy consumption and environmental impact. A secondary objective of this research is to evaluate the feasibility of implementing renewable energy systems based on smart materials in Libya. This study thereby contributes to the broader discourse on sustainable energy solutions and demonstrates the untapped potential of smart materials in energy harvesting.