Abstracts Curvilinear fiber reinforced variable stiffness structures (CFRVSSs) can be
designed by adjusting the local fiber orientation and content to maximize the performance …

Advanced materials with heterogeneous microstructures enable superior properties
unattainable in conventional materials. Challenges remain in predictive design, requiring …

This study introduces a new method for creating accurate microscale finite element (FE)
models of 3D printed composites. The approach involves utilizing conventional micro …

The significant void content is the most noticeable flaw of 3D printed thermoplastic
structures. The voids run parallel to the printed filaments, resulting in non-ellipsoidal …

This study concerns homogenisation-based stiffness optimisation with elastically isotropic
plate and truss-based lattice structures. Due to the lattices' isotropy, an optimised design can …

Continuous carbon fibres can greatly improve the properties of 3D-printed polymer parts
made by material extrusion. However, like all laminated composites, 3D-printed parts are …

This study presents a novel stochastic modeling approach that addresses two challenges
encountered in micromechanical modeling of short-fiber composites. Firstly, the challenge of …

Composite materials fabricated via additive manufacturing are becoming more relevant in
ready-for use products used in engineering applications like aerospace structures …

This study examines the coefficient of thermal expansion (CTE) in 3D-printed composites
reinforced with short fibers. A novel analytical approach is introduced rooted in extracting …

The plate lattice structure, a novel mechanical metamaterial, surpasses traditional truss
lattice structures in stiffness and strength. However, its closed-walled topology poses …