Graphene and its derivatives have drawn sinficnat research interests in recent years as potential materials for producing multifunctional textiles and composites, due to superior mechanical, electrical, and thermal properties of graphene and its derivatives. Due to these multifunctional properties, graphene material has garnered a high level of interest for use as a filler in highperformance FRP composites. Graphene oxide (GO), an oxidized derivative of graphene, is formed by attaching various oxygen functional groups (e.g., hydroxyl, epoxy, and carbonyl groups) to the basal plane and edges of a graphene sheet. Many studies have aimed to improve the interfacial properties of FRP composites by introducing GO in the composites through modifying resins or fibers. Additionally, the Graphene Nanoplatets (GNP), made up of a few layers of graphene stacked together in a plate-like shape, can be produced at a relatively low cost through a top-down approach, including mechanical exfoliation and liquid-phase exfoliation from pre-treated graphite. However, incorporating GNP into FRP composites is a challenging task. It is important to develop a time-and cost-effective processing technique to incorporate the GNP into FRP composites that is easier to scale up to industrial production. To date, there is no published work available on pseudo-ductility in graphene-based FRP composites, which is the focus of this study. Here, we present a novel approach to siginifcanly enhance the pseudo-ductile behavior of GNP-coated woven glass-carbon/epoxy interlayer hybrid composites, which have the ability to bear loads in both directions and are more practical for real-life applications than UD hybrid composites. Commercially available E-glass and carbon fiber balanced fabrics were coated with GNP at different concentrations using a simple and highly scalable pad-dry-cure coating method, and the composites were manufactured via a VARI process using four fabric lay-up configurations, as illustrated in Fig. . The results of tensile tests showed that glass-carbon/epoxy and GNP-coated glass-carbon/epoxy hybrid composites exhibited excellent pseudo-ductile behavior. However, the GNP-coated glasscarbon/epoxy hybrid composites showed a higher level of pseudo-ductile strain compared to the glass-carbon/epoxy hybrid composite.