Objectives Bioprinting of bone and cartilage suffers from low mechanical properties. Here
we have developed a unique inkjet bioprinting approach of creating mechanically strong …

Inkjet bioprinting is one of the most promising additive manufacturing approaches for tissue
fabrication with the advantages of high speed, high resolution, and low cost. The limitation of …

Cartilage tissue is prone to degradation and has little capacity for self-healing due to its
avascularity. Tissue engineering, which provides artificial scaffolds to repair injured tissues …

Low-concentration gelatin methacryloyl (GelMA) hydrogels have been found to be promising
cell-laden bioinks with excellent cell viability. Herein, we report a strategy that accurately …

Bioprinting is an emerging technology in which cell-laden biomaterials are precisely
dispersed to engineer artificial tissues that mimic aspects of the anatomical and structural …

Bioprinting allows the fabrication of living constructs with custom-made architectures by
spatially controlled deposition of multiple bioinks. This is important for the generation of …

Tremendous advances in tissue engineering and regenerative medicine have revealed the
potential of fabricating biomaterials to solve the dilemma of bone and articular defects by …

Gelatin methacryloyl is a promising material in tissue engineering and has been widely
studied in three-dimensional bioprinting. Although gelatin methacryloyl possesses excellent …

Abstract Three-dimensional (3-D) bioprinting is the layer-by-layer deposition of biological
material with the aim of achieving stable 3-D constructs for application in tissue engineering …

3D‐manufactured hydrogels with precise contours and biological adhesion motifs are
interesting candidates in the regenerative medicine field for the culture and differentiation of …