How Stem Cells Are Harvested for Medical Use?
Stem cells are harvested from bone marrow, blood, and umbilical cords using advanced techniques, ensuring safety and precision for medical treatments.
Stem cells are harvested from bone marrow, blood, and umbilical cords using advanced techniques, ensuring safety and precision for medical treatments.
Explore groundbreaking stem cell therapies like autologous renal progenitor cells (REGEND003) & Rilparencel for treating diabetic kidney disease (DKD) & CKD. Discover how they aim for functional kidney regeneration beyond traditional management.
Explore how umbilical cord mesenchymal stem cells (hUC-MSCs) and CRISPR gene editing revolutionize Alzheimer’s treatment. Discover mechanisms, clinical evidence, and the future of neural regeneration against neurodegeneration.
Discover how genetically modified mesenchymal stem cells (iMSC/NCR101) combat interstitial lung disease (ILD) through Phase I trials in Hefei. Explore mechanisms, safety data, and regenerative potential of this breakthrough therapy for pulmonary fibrosis.
Explore how immune cells (NK cell therapy) and stem cells combat aging, extend longevity, and treat age-related diseases. Compare their mechanisms, clinical benefits, and synergistic potential for healthspan optimization.
Explore Shize Biotech’s breakthrough in spinal cord injury treatment with universal iPSC-derived neural progenitor cell therapy entering global Phase I/II trials. Discover how this regenerative medicine innovation aims to restore motor function and redefine SCI care.
Explore the potential of stem cell therapy for autism (ASD), including clinical trial data showing improved social interaction and reduced symptoms. Learn about traditional treatments and the future of regenerative medicine in neurodevelopmental disorders.
Explore the critical role of NK cells in immune defense and their synergy with stem cells for advancing cancer immunotherapy and regenerative medicine. Discover clinical breakthroughs and future therapeutic strategies.
Explore how planarian stem cells (neoblasts) drive regeneration through pluripotency, and their implications for human tissue repair. Discover the science behind these flatworms’ extraordinary regenerative abilities.