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

Meta-biomaterials are designer biomaterials with extraordinary characteristics that originate
from their geometrical designs. Additive manufacturing (AM) is a perfect fabrication route for …

Recent advances in additive manufacturing (AM) have enabled the fabrication of functionally
graded porous biomaterials (FGPBs) for application as orthopedic implants and bone …

Additively manufactured (AM) topologically ordered porous metallic biomaterials with the
proper biodegradation profile offer a unique combination of properties ideal for bone …

The development of suitable biomaterials with the ability to improve repair and regeneration
of human tissues is continuously in progress, and mechanical properties of biomaterials play …

Additively manufactured (AM) functionally graded porous metallic biomaterials offer unique
opportunities to satisfy the contradictory design requirements of an ideal bone substitute …

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 …

Critically engineered stiffness and strength of a scaffold are crucial for managing
maladapted stress concentration and reducing stress shielding. At the same time, suitable …

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 …

Ti-6Al-4V (Ti64) alloy is one of the most widely used orthopedic implant materials due to its
mechanical properties, corrosion resistance, and biocompatibility nature. Porous Ti64 …