In situ tissue regeneration harnesses the body's regenerative potential to control cell
functions for tissue repair. The design of biomaterials for in situ tissue engineering requires …

Biomedical polymers have been extensively developed for promising applications in a lot of
biomedical fields, such as therapeutic medicine delivery, disease detection and diagnosis …

As the gap between donors and patients in need of an organ transplant continues to widen,
research in regenerative medicine seeks to provide alternative strategies for treatment. One …

Biointerfaces mediate safe and efficient cell manipulation, which is essential for biomedical
innovations in advanced therapies and diagnostics. The biointerface established by vertical …

The complex interaction of cells with biomaterials (ie, materiobiology) plays an increasingly
pivotal role in the development of novel implants, biomedical devices, and tissue …

Although only a few stem cell-based therapies are currently available to patients, stem cells
hold tremendous regenerative potential, and several exciting clinical applications are on the …

Recent evidence clearly shows that cells respond to various physical cues in their
environments, guiding many cellular processes and tissue morphogenesis, pathology, and …

Fibrotic disease is caused by the continuous deposition of extracellular matrix by persistently
activated fibroblasts (also known as myofibroblasts), even after the resolution of the injury …

Stem cells respond to nanoscale surface features, with changes in cell growth and
differentiation mediated by alterations in cell adhesion. The interaction of nanotopographical …

Mechanotransduction is the ability of a cell to sense mechanical cues from its
microenvironment and convert them into biochemical signals to elicit adaptive transcriptional …