Regenerative Medicine and Stem Cells Technologies

To investigate the TIF1γ-controlled mechanism, the researchers performed a chemical screen on “bloodless” zebrafish, which lack early precursors for making functional red blood cells.

Evaluating the efficacy of novel therapies requires the ability to monitor wound progression accurately and reproducibly over time. Researchers have proposed a new scoring system for wound healing in mice based on parameters in each phase of healing, as described in an article in the peer-reviewed journal Stem Cells and Development.

Immune system inhibitors slowly released by biodegradable scaffolds may allow regenerative medicine to bypass implant rejection.

Researchers have found that adipose stem cells can sense and respond to the levels of omega-3, altering their behavior.

A KAIST immunology research team found that most convalescent patients of COVID-19 develop and maintain T cell memory for over 10 months regardless of the severity of their symptoms. In addition, memory T cells proliferate rapidly after encountering their cognate antigen and accomplish their multifunctional roles.

Scientists have discovered that Lin28 is a major regulator of axon regeneration and a promising therapeutic target for spinal cord injuries.