Glass, widely used across multiple industries, faces limitations in strength and safety. The incorporation of graphene—whether as a surface coating, within lamination polymers, or as a nanofiller throughout the matrix—offers significant improvements in durability, scratch resistance, and impact resistance. Overall, graphene transforms glass into a safer, more efficient, and higher-value material.

This report presents the performance results of concrete reinforced with Graphenergy® polymeric macrofibers, engineered with graphene oxide to enhance compatibility, bonding, and strength. ASTM C78 and C1609 tests show that after cracking, the concrete retained between 69% and 94% of its original strength and exceeded the minimum residual strength specification by more than 300%. These findings confirm that Graphenergy® macrofibers provide an effective three-dimensional reinforcement, significantly improving toughness and crack control in concrete from early ages.

Over time, static electricity has proven to be a significant risk in plastic materials, particularly in sensitive industrial applications. To mitigate this effect, antistatic additives have been developed, among which graphene stands out for its ability to drastically reduce electrical resistivity in polymers such as PLA, PET, PVC, and rubber. These advances position graphene as an effective and versatile solution for developing plastics with enhanced antistatic properties.

The growing environmental awareness and sustainable development goals have driven the bioplastic industry, with polylactic acid (PLA) emerging as a biodegradable alternative to traditional polymers. However, its mechanical and barrier limitations have led to the use of reinforcements such as graphene, which significantly enhances its strength, impermeability, and antimicrobial properties.