Growing interest in long-lasting, corrosion-free, and environmentally responsible construction materials has encouraged the use of composite reinforcement in civil engineering. Among these options, Glass Fiber Reinforced Polymer (GFRP) and graphite-based reinforcing bars are gaining attention as substitutes for traditional steel because they are lightweight, possess high tensile capacity, and do not corrode. This work examines the mechanical response and structural contributions of these composite systems, focusing specifically on GFRP and graphite fiber reinforcements. The study reviews their fundamental material properties, production techniques, and applicability to reinforce concrete elements. The experimental component evaluates tensile performance, rigidity, bond interaction with concrete, and overall structural capacity under load. Findings show that both GFRP and graphite reinforcement provide favorable strength-to-weight characteristics, strong durability, and considerable tolerance to environmental exposure. Although their bond with concrete is typically weaker than that of steel, surface modification strategies can significantly improve adhesion. The research suggests that using composite reinforcement could extend the service life of concrete structures and decrease maintenance demands. These materials appear well-suited for use in bridges, buildings, and systems requiring enhanced seismic resistance, supporting the development of more reliable and sustainable infrastructure. Continued investigation is recommended to refine material configurations and better understand long-term performance under diverse service conditions.
Bandgar et al. (Mon,) studied this question.