Patients suffering bone fractures in different parts of the body require implants that will
enable similar function to that of the natural bone that they are replacing. Joint diseases …

The present study aims to collect data, compare results and assess techniques used for
improving corrosion resistance and mechanical properties of biodegradable Mg alloys for …

Bone fractures and defects pose serious health-related issues on patients. For clinical
therapeutics, synthetic scaffolds have been actively explored to promote critical-sized bone …

Mechanical and biological properties constitute the most fundamental requirements for bone
tissue engineering (BTE) scaffolds. Nonetheless, existing fabrication strategies find it difficult …

The escalating demands for smart biomedical systems ignite a significantly growing
influence of three‐dimensional (3D) printing technology. Recognized as a revolutionary and …

The excellent flexibility, biocompatibility, and shape memory properties of polyurethane (PU)
have attracted great attention to fabricate devices for application in the fields of electronics …

Existing research suggested 300∼ 600 μm as the optimal pore size range for metallic bone
implants. The human bones, however, have numerous pores smaller than 300 μm for bone …

The porosity and degradation rate are critical properties of biodegradable bone implants, as
they facilitate the regeneration of bone tissues and ensure a gradual load transfer. Herein …

The cortical-cancellous porous structure of bone is composed of materials with distinct
Young's moduli, such as ossein and minerals, to achieve its body-supporting and shock …

Ti6Al4V scaffolds with pore sizes between 300 and 600 µm are deemed suitable for bone
tissue engineering. However, a significant proportion of human bone pores are smaller than …