Abstract Three-dimensional (3D) bioprinting holds promise for precise repair of bone
defects, but rapid formation of effective vascularized tissue by 3D-printed construct is still a …

Three-dimensional (3D) printed scaffolds provide a promising prospective for application in
bone tissue engineering. 3D printed scaffolds with micro-and nano-fibrous structures that …

Abstract 3D printed scaffolds hold promising perspective for bone tissue regeneration.
Inspired by process of bone development stage, 3D printed scaffolds with rapid internal …

Bioprinting is a promising technique for facilitating the fabrication of engineered bone
tissues for patient-specific defect repair and for developing in vitro tissue/organ models for …

In the field of bone defect repair, 3D printed scaffolds have the characteristics of
personalized customization and accurate internal structure. However, how to construct a …

Tissue-engineered scaffolds are an effective method for the treatment of bone defects, and
their structure and function are essential for bone regeneration. Digital light processing …

Microchannel networks within engineered 3D scaffold can allow nutrient exchange and
rapid blood vessels formation. However, fabrication of a bone microenvironment‐mimicking …

Bone tissue engineering (BTE) has proven to be a promising strategy for bone defect repair.
Due to its excellent biological properties, gelatin methacrylate (GelMA) hydrogels have been …

The increasing insight into the molecular and cellular processes within the angiogenic
cascade assists in enhancing the survival and integration of engineered bone constructs …

Engineering approaches for growth factor delivery have been considerably advanced for
tissue regeneration, yet most of them fail to provide a complex combination of signals …