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 …

Abstract Recently, additive manufacturing (AM), being part of IR4. 0, received great attention
for the fabrication of customized implants with outstanding quality, which are used in hard …

This review analyses the design, mechanical behaviors, manufacturability, and application
of gradient lattice structures manufactured via metallic additive manufacturing technology …

Lightweight cellular materials and structures are widely used in load-bearing and energy
absorption applications, because of favorable mechanical properties such as high …

In this study, geometrically gradient lattice structures with controllable deformation features
and adjustable mechanical properties were proposed, and comparisons between …

The evolution and progress of 3D printing and additive manufacturing (AM) processes have
revolutionized the defence, aviation, automobile and health care domain. In fact, this decade …

Titanium (Ti)-based alloys exhibit low elastic modulus that better match the modulus of
human bones than several other metallic biomaterials while providing high strength to …

Porosity grading of metallic lattice structures is becoming a favorable design for bone
implant applications since these structures mimic the bone mechanical and biological …

The current study is proposing a design envelope for porous Ti-6Al-4V alloy femoral stems
to survive under fatigue loads. Numerical computational analysis of these stems with a body …

Selective laser melting (SLM) allows for manufacturing intricate and accurate component
designs that are challenging, expensive, or impossible to achieve using traditional methods …