Lightweight metallic cellular materials (MCMs) have been seen in numerous engineering
applications to date, primarily due to their excellent mechanical characteristics such as low …

Lattice structures are vital for biological applications because of its numerous benefits (for
example, faster and stronger binding to bone tissue). Consequently, processing of lattice …

Due to their exceptional lightweight and mechanical properties, triply periodic minimal
surface (TPMS) based lattice structures have been widely studied. In this paper, the energy …

Stress shielding secondary to bone resorption is one of the main causes of aseptic
loosening, which limits the lifespan of hip prostheses and exacerbates revision surgery …

Hybrid lattice structures, integrating diverse structural components from fundamental lattice
topologies, have attracted significant attention for their exceptional mechanical properties …

Functionally graded lattice material (FGLM) possesses great architectural flexibility and
performance combinations that do not occur in uniform lattice structures. The regulation …

Lattice structures fabricated by additive manufacturing (AM) technology have many excellent
properties, such as lightweight, high strength, energy absorption, and vibration reduction …

Lattice-structured materials are becoming increasingly adopted for impact absorption and
load-carrying applications. This study presents the design of experiments approach for …

Incorporating structural hierarchy in the design of engineering composites can be used to
tailor or enhance the physical and mechanical properties for specific functionalities. In this …

Triply periodic minimal surface (TPMS) based sheet lattice structure, especially the Diamond
sheet structure, has higher strength than traditional TPMS network lattice structure. However …