Porosity is an important material feature commonly employed in implants and tissue
scaffolds. The presence of material voids permits the infiltration of cells, mechanical …

Microporosity has a critical role in improving the osteogenesis of scaffolds for bone tissue
engineering. Although the exact mechanism, by which it promotes new bone formation, is …

Selective laser melting is a promising additive manufacturing technology for manufacturing
porous metallic bone scaffolds. Bone repair requires scaffolds that meet various mechanical …

Extrusion-based 3D printing followed by debinding and sintering is a powerful approach that
allows for the fabrication of porous scaffolds from materials (or material combinations) that …

With the increasing demand for novel bone repair solutions that overcome the drawbacks of
current grafting techniques, the design of artificial bone scaffolds is a central focus in bone …

Orthopedic implants are under incessant advancement to improve their interactions with
surrounding bone tissue aiming to ensure successful outcomes for patients. A successful …

The increasing demand for bone repair solutions calls for the development of efficacious
bone scaffolds. Biphasic calcium phosphate (BCP) scaffolds with both macropores and …

Most of our knowledge of bone cell physiology is derived from experiments carried out in
vitro on polystyrene substrates. However, these traditional monolayer cell cultures do not …

Abstract β-TCP scaffolds with four representative pore configurations are prepared for using
digital light processing (DLP)-based additive manufacturing. The process optimization, pore …

The present study comprehensively reviewed the effects of porosity, micropores, and
macropores of porous β-TCP scaffold on cell responses. Relevant information from reports …