With the advantages of high throughput, digital control, and highly accurate placement of
cells and biomaterial scaffold to the desired 2D and 3D locations, bioprinting has great …

The molecular and physical information coded within the extracellular milieu is informing the
development of a new generation of biomaterials for tissue engineering. Several powerful …

An osteochondral scaffold has a chondrogenic spiral scaffold in one end of an outer shell
made of sintered microspheres, and an osteogenic spiral scaffold in the other end of the …

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

Regenerative medicine is targeted to improve, restore or replace damaged tissues or organs
using a combination of cells, materials and growth factors. Both tissue engineering and …

Current cartilage tissue engineering strategies cannot as yet fabricate new tissue that is
indistinguishable from native cartilage with respect to zonal organization, extracellular matrix …

Injectable scaffolds are appealing for tissue regeneration because they offer many
advantages over pre-formed scaffolds. This article provides a comprehensive review of the …

Articular cartilage repair and regeneration provides a substantial challenge in Regenerative
Medicine because of the high degree of morphological and mechanical complexity intrinsic …

The development of biocompatible photopolymerizing polymers for biomedical and tissue
engineering applications has the potential to reduce the invasiveness and cost of …

Cartilage tissue engineering is emerging as a technique for the regeneration of cartilage
tissue damaged due to disease or trauma. Since cartilage lacks regenerative capabilities, it …