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About

M. D. Wakeman’s research career has been defined by pioneering work in the manufacturing and modelling of advanced thermoplastic composites, with a particular focus on integrating continuous fibre reinforcement into high-speed, flow-based processes. His major contributions lie in bridging the gap between intrinsic material stiffness and geometric design, developing novel manufacturing cells that combine aligned fibre structures with flow moulding materials. This work, detailed in his highly cited 2002 paper “An integrated cost and consolidation model for commingled yarn based composites” (51 citations), provided a foundational framework for understanding the cost-performance trade-offs in commingled yarn composites. Wakeman also advanced robotic tow placement for local reinforcement of glass mat thermoplastics (GMTs), a technique that enables targeted strength improvements without compromising process speed. His 1999 paper on a novel manufacturing cell opened new perspectives in composite processing by demonstrating how intrinsic and geometrical stiffness can be combined in an integrated operation. Through finite element modelling and experimental validation, notably in his 2005 study of injection moulded tow reinforced structures (12 citations), Wakeman helped establish robust design tools for next-generation composite applications. His work remains essential reading for researchers and engineers seeking to optimise the manufacture of high-performance, net-shape thermoplastic composite preforms.