Abstract Engineering three-dimensional (3D) tissues in clinically relevant sizes have
demonstrated to be an effective solution to bridge the gap between organ demand and the …

Recently investigated applications of polymeric materials for tissue engineering,
regenerative medicine, implants, stents, and medical devices are described in the present …

Gelatin‐methacrylamide (gelMA) hydrogels are shown to support chondrocyte viability and
differentiation and give wide ranging mechanical properties depending on several cross …

Sacrificial templates for patterning perfusable vascular networks in engineered tissues have
been constrained in architectural complexity, owing to the limitations of extrusion-based 3D …

In this study, we present the photosynthetic oxygen (O 2) supply to mammalian cells within a
volumetric extracellular matrix-like construct, whereby a three-dimensional (3D)-bioprinted …

For clinical utility, cardiac grafts should be thick and compact, and contain physiologic
density of metabolically active, differentiated cells. This involves the need to control the …

One of the continued challenges in engineering clinically applicable tissues is the
establishment of vascularization upon implantation in vivo. Although the effectiveness of an …

Osteochondral defects (ie, defects which affect both the articular cartilage and underlying
subchondral bone) are often associated with mechanical instability of the joint, and therefore …

Oxygen is a potent modulator of cell function and wound repair in vivo. The lack of oxygen
(hypoxia) can create a potentially lethal environment and limit cellular respiration and …

With the advancement in biomaterial sciences, tissue-engineered scaffolds are developing
as a promising strategy for the regeneration of damaged tissues. However, only a few of …