This experiment demonstrates how shark-skin-inspired microstructures can be replicated on polymer surfaces to create eco-friendly antifouling coatings that resist algae and biofilm growth underwater.

This lab demonstrates a simple two-stage filter—physical sieving plus activated carbon adsorption—that strips visible microplastics from water, turning a cloudy sample into a clear, teachable example of real-world remediation.

This experiment shows how magnetic nanoparticles (Fe₃O₄) can clean polluted water by adsorbing dyes and metals, then being removed with a magnet. It introduces nanotechnology and magnetic separation as sustainable methods for water treatment with real-world uses in environmental cleanup and industry.

This lab compares traditional and advanced insulation materials by measuring heat retention and loss, showing how molecular structure, porosity, and reflectivity influence thermal conductivity and energy efficiency.

This lab demonstrates how a model ‘piezoelectric road’ converts mechanical stress—like footsteps or toy cars—into electricity, showcasing how crystal structures such as quartz or PZT generate voltage when deformed.