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Results 81 - 90 of 256 for stem cells. (4.98 seconds)
  • Possible drug target for cardiomyopathy

    Stanford researchers have uncovered how a genetic mutation contributes to a heart disease known as familial dilated cardiomyopathy. Existing drugs correct the defect in heart cells grown in a petri dish, suggesting a new therapeutic target.

  • Immune cells speed aging brains’ demise

    Stanford researchers have found intrusive immune cells in a place in the brains of humans and older mice where new nerve cells are born. The intruders appear to impair nerve cell generation.

  • Stanford-led team awarded $10 million

    Stanford scientists will direct a multidisciplinary, multi-institutional team focused on understanding in detail how tiny mutations in a protein, myosin, can cause the classic features of cardiomyopathy.

  • Overcoming transplant rejection in mice

    If the antibody treatment is eventually found to be viable in humans, it could increase the numbers of people who benefit from hematopoietic stem transplants, Stanford researchers said.

  • Effects of smoke from wildfire vs. controlled burn

    Immune markers and pollutant levels in the blood indicate wildfire smoke may be more harmful to children’s health than smoke from a controlled burn, Stanford researchers found.

  • Toward radiation-free stem cell transplants

    Researchers at Stanford and the University of Tokyo may have cracked the code to doing stem cell transplants and gene therapy without radiation and chemotherapy.

  • E-cigarette flavorings harm blood vessel cells

    E-cigarette flavorings damage human blood vessel cells grown in the lab even in the absence of nicotine, Stanford researchers and their colleagues found. Cinnamon and menthol flavors were particularly harmful.

  • Hypoxia hurts specific cells in developing brain

    Low oxygen levels during brain development may cause particular cells to differentiate too soon, a Stanford-led study found.

  • Powerful computational tool for molecular research

    Stanford researchers have developed a computational platform for analyzing the molecular behavior of individual cells in tissue samples, opening the door for new discoveries, diagnostics and treatments.

  • Seeking secrets of worm’s regenerative power

    No one knows exactly how flatworms can rebuild their entire bodies from the tiniest sliver. Now, bioengineers and materials scientists are building new tools to study the worms’ awesome regenerative powers.