Therefore, the development of high-performance FRP composites with inherent ductility is critical to expanding the range and volume of applications for composite materials. While a clear definition for pseudo-ductility does not exist, this property can be quantified using the pseudo-ductile strain, which can be defined as the difference between the final failure strain and the projected elastic strain at the failure stress. Numerous approaches have been employed to impart ductility in high-performance composites, enabling a gradual failure mode while maintaining high strength and specific stiffness. Introduction of ductile fibers, such as stainless steel, has shown to improve the failure strain of composites. 9, 10 However, the higher density of steel fibers can limit their application in weight-critical contexts by reducing the specific strength. Modification of traditional reinforced materials in composite laminates has been studied as an alternative method for generating additional strain and non-linear response during tensile loading. Additional strain and non-linear response can be achieved through various methods, including reorientation of off-axis fibers and matrix shearing through angle plies, excess length via out-of-plane waviness, highly aligned discontinuous fibers, or shear under tension in a biaxial braid structure. However, braided composites typically do not exhibit an increase in stress after the initial failure, making true pseudo-ductility unattainable with such architecture. Promising ductile fibers, such as carbon nanotubes and regenerated cellulose, have been identified. However, these new fibers are unable to provide elastic moduli and strength values comparable to those of traditional glass or carbon fibers, making the commercialization of ductile composites for macroscale structural applications a challenging and time-consuming process.