Polymer-based composite scaffolds are an attractive class of biomaterials due to their
suitable physical and mechanical performance as well as appropriate biological properties …

Abstract 3D printing enables a better control over the microstructure of bone restoring
constructs, addresses the challenges seen in the preparation of patient-specific bone …

The use of organic–inorganic 3D printed composites with enhanced properties in
biomedical applications continues to increase. The present study focuses on the …

Biocompatibility, biodegradability, shear tinning behavior, quick gelation and an easy
crosslinking process makes alginate one of the most studied polysaccharides in the field of …

Increase in the number of patients suffering from Osteoarthritis is prevalent nowadays and
hence, there is need for tissue regeneration. Fabricating a 3D structure giving a better …

Alginate-based hydrogel inks are commonly used in printing due to their biocompatibility,
biodegradation, and cell adhesion. In the present work, 3D printing of hydrogels comprising …

3D-printed scaffolds are suitable for patient-specific implant preparation for bone
regeneration in large-scale critical bone defects. In addition, these scaffolds should have …

Abstract 3D printing has been popularly used in the bone tissue engineering, as many of the
biomaterials for this field of study can be prepared for and produced from this additive …

Porous bone scaffolds based on high-precision 3D printing technology gave recently been
developed for use in bone defect repair. However, conventional scaffold materials have poor …

Osteoconductive scaffolds are required to stimulate and enhance the regenerative potential
of cells in bone tissue engineering applications. Additive manufacturing (AM), popularly …