Early in my research career, I focused on deformation and failure mechanism of composites materials under extreme loading. This work had a direct impact and led the way to the development of new armours to protect personnel and infrastructure against blast and ballistic loading. Since then, I worked on the mechanics of three-dimensionally architectured composite materials and digital manufacturing. The major contribution from this research is the much new understanding of the deformation and failure mechanisms of novel composite materials – linking these to the properties of the materials, and geometry of the structures.
Since 2017, my research focused on developing new affordable prosthetic socket manufacturing based on upcycled materials and a suite of digital technologies, which has delivered prosthesis at a fraction of the cost than that of the high-end prosthesis cost several thousands of dollars. By doing so, I formulated frugal and inclusive manufacturing approaches for fabricating custom-fit prosthetic socket which is: accessible, comfortable, perspiration comfort, able to accommodate ageing (crucial for limb-deficient child), while also being able to provide further research opportunities to unobtrusively integrate flexible biocompatible sensors for preventive care. In parallel, I am working on cross-sectoral research program on the plastic brick, inspired by the Baya weaver nest, has been proven to provide 10 times better insulation than traditional bricks made from clay - drastically reduces both the cost of building and energy-related costs.