The mechanical properties of the triply periodic minimal surface (TPMS) lattice structures are
found to change according to rotating crystal directions. This anisotropy characteristic has …

Lattice structures based on triply periodic minimal surfaces (TPMSs) have received
extensive research attention due to their lightweight, tremendously high ductility, and …

Porous materials with excellent load-bearing capacity are essential for aerospace,
shipbuilding, and biomedical devices where lightweight structures are required. In this study …

Recent advancements in 3D printing technologies have made it possible to fabricate
intricate lattice architectures with high precision. These lattices can now be utilized to design …

Bone implant design faces multifaceted challenges, requiring the simultaneous optimization
of hierarchical porous structures, large surface areas, and appropriate elastic moduli. Triply …

This study evaluates topologically optimized lattice structures for high strain rate loading,
crucial for impact resistance. Using the BESO (Bidirectional Evolution Structural …

The advancement of lightweight protective armors holds critical importance for enhancing
the maneuverability and combat capabilities of helicopters. Leveraging insights from bionics …

An analytical solution for the nonlinear static stability problem of functionally graded triply
periodic minimal surface (FG-TPMS) shallow spherical shells is studied in the current …

Lattice structures are bio-inspired designs made up of repeated unit cells consisting of
beams, surfaces, or plates that fit together in an ordered or stochastic fashion. These unit …

Strength and band gap are the two basic physical features of the cubic metamaterial. How to
design band gap characteristics with high strength of structure is the key for the further …