In orthopedics, titanium (Ti)-alloy implants, are often considered as the first-choice
candidates for bone tissue engineering. An appropriate implant coating enhances bone …

Background Large segmental bone defects are still one of the challenges for orthopaedic
surgeons. Although 3D-printed porous titanium is a potential bone substitute material …

Inflammation in the tissue surrounding titanium (Ti)-based alloy implants can lead to
increased acidity and the release of reactive oxygen species (eg, H 2 O 2), which can …

Abstract Three-dimensional (3D) printed bioceramics derived from silicone are of great
interest in bone tissue engineering owing to their simple processes and low cost. In this …

The high concentration of antibacterial metal ions may exhibit unavoidable toxicity to cells
and normal tissues. The application of antibacterial metal ions to activate the immune …

Three‐dimensional porous scaffolds have the potential to revolutionize a number of fields,
including stem cell research, biomedical implants, tissue engineering, and regeneration, as …

Background This study aimed to investigate the effects of three-dimensional (3D) printed
titanium (3DTi) scaffolds on osteogenic differentiation and new bone formation by 3D …

In recent decades, chitosan is emerging as a promising functional biopolymer for the
fabrication of biomaterials in various forms due to having immense structural possibilities for …

Cell-encapsulated bioscaffold is a promising and novel method to allow fabrication of live
functional organs for tissue engineering and regenerative medicine. However, traditional …

Ti6Al4V superalloy is recognized as a good candidate for bone implants owing to its
biocompatibility, corrosion resistance, and high strength-to-weight ratio. While dense metal …