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Results 61 - 70 of 118 for stem cells. (4.24 seconds)
  • Protein clumps affect neural stem cells

    Young, resting neural stem cells have large protein clumps often associated with neurodegeneration. As stem cells age, the aggregates inhibit their ability to make new neurons, Stanford researchers say.

  • Misbehaving cells predict relapse in leukemia

    Analyzing individual cancer cells has enabled Stanford researchers to identify the small population of cells that spur relapse in some children with leukemia.

  • Low-fat or low-carb? It’s a draw

    Stanford researchers have found that, contrary to previous studies, insulin levels and a specific genotype pattern don’t predict weight-loss success.

  • Seizure-regulating nerve cells identified

    Stanford researchers have found that a small set of nerve cells in the brain regulates the debilitating seizures and cognitive deficits characteristic of the most common form of epilepsy in adults. This discovery could lead to new and better treatments.

  • IPS cells slow tumor growth in mice

    Priming the immune system with induced pluripotent stem cells prevented or slowed the development of cancer in mice, Stanford researchers found.

  • Broader use of acute-stroke therapy pays off

    In a multicenter study led by Stanford researchers, the number of stroke patients who died or required confinement to nursing homes was nearly cut in half, the biggest improvement seen in any stroke-related trial to date.

  • Pre-approved drugs tapped for rare eye disease

    By identifying proteins abnormally expressed by patients with a rare eye disease, Stanford researchers were able to identify existing drugs that could be used to treat symptoms.

  • Stem cells for fat have circadian clock

    New discoveries about the circadian-clock machinery in the precursors to fat cells may explain why shift workers are prone to metabolic diseases, such as diabetes, a Stanford study finds.

  • Second ‘don’t eat me’ signal found on cancer

    CD47 is an important inhibitor of cancer-killing immune cells called macrophages. Now Stanford researchers have identified another, similar way to activate macrophages to destroy cancer cells.

  • ‘Drugs’ from gut bugs

    Stanford researchers found that manipulating the gut microbe Clostridium sporogenes changed levels of molecules in the bloodstreams of mice and, in turn, affected their health.