Stem cells offer tremendous promise for regenerative medicine as they can become a
variety of cell types. They also continuously proliferate, providing a renewable source of …

Tissue engineering tools and technologies are critical for regenerative medicine and the
translational research supporting development of cell-based therapies. 3D cell bioprinting is …

Regenerative medicine offers the potential to repair or substitute defective tissues by
constructing active tissues to address the scarcity and demands for transplantation. The …

Bioprinting aims to direct the spatial arrangement in three dimensions of cells, biomaterials,
and growth factors. The biofabrication of clinically relevant constructs for the repair or …

In spite of being a new field, three‐dimensional (3D) bioprinting has undergone rapid growth
in the recent years. Bioprinting methods offer a unique opportunity for stem cell distribution …

Abstract Three-dimensional (3-D) cell printing, which can accurately deposit cells,
biomaterial scaffolds and growth factors in precisely defined spatial patterns to form …

Abstract 3D printing, or solid freeform fabrication, applied to regenerative medicine brings
technologies from several industries together to help solve unique challenges in both basic …

Building human tissues via 3D cell printing technology has received particular attention due
to its process flexibility and versatility. This technology enables the recapitulation of unique …

The purpose of 3D bioprinting technology is to design and create functional 3D tissues or
organs in situ for in vivo applications. 3D cell‐printing, or additive biomanufacturing, allows …

Stem cell technology in regenerative medicine has the potential to provide an unlimited
supply of cells for drug testing, medical transplantation and academic research. In order to …