New groundbreaking research by Stanford researchers has shown to do something that was previously believed not possible: reverse age-related cartilage loss in joints. The findings could drastically ...
Collaboration with leading European orthopedic center in Italy supports GelrinC® clinical adoptionRenowned cartilage ...
Cartilage cushions joints, keeps movement smooth and pain-free, and reduces pressure on bones—from standing still to a vigorous hike. However, when it’s damaged by injury or simple wear and tear, the ...
New research by an interdisciplinary team in Lithuania has revealed a promising and unconventional approach to cartilage ...
HERZLIYA, IL / ACCESS Newswire / January 20, 2026 / Regentis Biomaterials Ltd., (“Regentis” or the “Company”) (NYSE American:RGNT), a regenerative medicine company focused on innovative tissue repair ...
Northwestern University scientists have developed a cell-free bioactive material comprising a complex network of molecular components that work together as a scaffold to mimic cartilage’s natural ...
New research by an interdisciplinary team in Lithuania has revealed a promising and unconventional approach to cartilage regeneration. Using extracellular vesicles derived from menstrual blood stromal ...
A few years ago, researchers developed a novel treatment that seemed to repair tissue and spinal cord injuries. These so-called dancing molecules have now been applied to human cartilage cells, and ...
Knee cartilage usually wears down quietly. Over time, that loss can turn walking stairs into a daily calculation. Now a Stanford Medicine-led team reports that blocking a single age-linked protein ...
Northwestern University researchers have found the second use for an injectable therapy using fast-moving "dancing molecules" to regenerate tissue rapidly, leading the biochemists group to hope ...
The self-repair of injured cartilage is difficult for several reasons, foremost of which is the lack of blood supply to the tissue. Therapeutic efforts aimed at cartilage repair are often not optimal.