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 Additive manufacturing (AM)(= 3D printing) and rational design techniques have
enabled development of meta-biomaterials with unprecedented combinations of …

Abstract The Gibson-Ashby (GA) model has been instrumental in the design of additively
manufactured (AM-ed) metal lattice materials or mechanical metamaterials. The first part of …

A new modified rhombic dodecahedron lattice structure is proposed by redefining the cross
section of the struts of the original one with a shape parameter, and the detailed design …

Additive manufacturing enables innovative structural design for industrial applications,
which allows the fabrication of lattice structures with enhanced mechanical properties …

At present, the design of bone scaffolds cannot well balance the combination of suitable
porosity and proper mechanical property, leading to difficultly facilitate bone tissue …

Additively manufactured (AM,= 3D printed) porous metallic biomaterials with topologically
ordered unit cells have created a lot of excitement and are currently receiving a lot of …

Dynamic compression properties of the modified rhombic dodecahedron (RD) lattice
structures were investigated by using a Split Hopkinson Pressure Bar (SHPB) system. All the …

With the ever-increasing resolution of metal additive manufacturing processes, the ability to
design and fabricate cellular or lattice structures is readily improving. While there are few …

Porous metallic biomaterials developed from pentamode metamaterials (PMs) were
rationally designed to mimic the topological, mechanical, and mass transport properties of …