Graphene and its potential in mechanical applications
Abstract
Graphene has emerged as a transformative material in modern engineering, offering immense potential across mechanical, electrical, and composite applications because of its exceptional properties. Graphene consists of a layer of carbon atoms arranged in a hexagonal lattice. Along with it, possessing an unparalleled combination of electrical conductivity, structural flexibility, and a Young’s modulus exceeding 1 TPa. Despite these advantages, widespread industrial adoption remains bottlenecked by high manufacturing costs, scalability issues, and complexities in material integration. This project investigates the practical engineering enhancements graphene provides. Specifically, it focuses on the optimization of mechanical performance, durability, and operational efficiency using graphene. Preliminary findings indicate that even small additions of graphene within a composite matrix can yield improvements in fatigue resistance, wear performance, and interfacial stiffness. By leveraging these improvements, this research aims to identify the most commercially viable and cost-effective pathways for integrating graphene into existing engineering systems.
Graphene and its potential in mechanical applications
Graphene has emerged as a transformative material in modern engineering, offering immense potential across mechanical, electrical, and composite applications because of its exceptional properties. Graphene consists of a layer of carbon atoms arranged in a hexagonal lattice. Along with it, possessing an unparalleled combination of electrical conductivity, structural flexibility, and a Young’s modulus exceeding 1 TPa. Despite these advantages, widespread industrial adoption remains bottlenecked by high manufacturing costs, scalability issues, and complexities in material integration. This project investigates the practical engineering enhancements graphene provides. Specifically, it focuses on the optimization of mechanical performance, durability, and operational efficiency using graphene. Preliminary findings indicate that even small additions of graphene within a composite matrix can yield improvements in fatigue resistance, wear performance, and interfacial stiffness. By leveraging these improvements, this research aims to identify the most commercially viable and cost-effective pathways for integrating graphene into existing engineering systems.