Research has found that after stroke in mice, B cells migrate to far regions of the brain that control motor functions, indicating their role in recovery.
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Using modified hyaluronic acid and polyethylene glycol, researchers have created a bio-ink for 3D printing, which could be used as a scaffold to grow human tissues.
A research team has shown that a key difference between neurogenic and non-neurogenic tissues is cross-linking proteins causing stiffness, a discovery that could be used to create new brain injury therapies.
Research into alternative stem cell sources has identified urine derived renal progenitor cells (UdRPCs) as a possible option for use in regenerative kidney therapies in the future.
Research determined macrophages’ role in forming a permanent cardiac scar after a heart attack, the researchers suggest altering this behaviour may make the scar temporary and allow restoration of heart function.
A study has demonstrated that a totipotency-inducing factor can reprogramme stem cells and induce totipotent-like states, possibly increasing their therapeutic potential.
Researchers have used molecular motors powered by UV light to control the growth of bone marrow-derived mesenchymal stem cells.
Research has identified that regions of the brain can regenerate via neural stem cells and the process of neurogenesis which could provide a new avenue for regenerative therapeutics.
Researchers have developed cytochalasin B-induced membrane vesicles which they suggest could be a new form of cell-free therapy in regenerative medicine.
It has been discovered that cognitive functions such as memory and learning in old mice are improved with more stem cells and neurons.
Isolated components found in the Saussurea controversa plant have antimicrobial and regenerative properties which could lead to a treatment for bone diseases.
Researchers have discovered the existence of tendon stem cells, which could lead to improvements in treating tendon injuries, avoiding surgery.
A recent study has shown that transplanting new inhibitory neurons may repair damaged brain circuits.
Researchers have revealed that stem cells transplanted into embryonic mice can mature into fully functional lungs, a method which could be developed to grow lungs for humans.
A newly-discovered molecular mechanism that allows damaged adult liver cells to regenerate could pave the way for drugs for chronic liver diseases.