
Cytoskeleton dynamics help reveal mechanisms of autism
Differences found in the cytoskeleton of patients suffering from autism spectrum disorder may help explain the mechanisms involved in this condition
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Salomé Guillaumin is a PhD student contributor to Physics World, working in the field of scaffold for delivery of mesenchymal stem cells for tendon tissue engineering at the National University of Ireland, Galway (NUIG). She is interested in regenerative medicine, biotechnologies and nanomedicine. When Salomé is not working, she is cooking or dancing or both.
Differences found in the cytoskeleton of patients suffering from autism spectrum disorder may help explain the mechanisms involved in this condition
Contact lenses that detect glucose in tears could be the next glucose-monitoring device for diabetic patients
Enhanced maturation of transplanted kidney organoids brings kidney tissue engineering a step closer
A thermosensitive hydrogel loaded with tendon stem/progenitor cells could provide a therapy for tendon injuries
Collagen sponge can be engineered to attract cells to the site of tendon injury to repair damage
Researchers investigate the mechanism of action of exosomes secreted by mesenchymal stem cells
Mesenchymal stem cell exosomes provide a promising approach for cartilage regeneration
A magnetic cellular patch that acts as an innovative delivery method for stem cell therapy could improve tendon regeneration
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