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Results 1 - 9 of 9 for child health. (2.38 seconds)
  • Predicting preeclampsia from urine, blood

    Biological molecules in urine and gene-activity signals in blood can predict early in pregnancy which women develop preeclampsia, Stanford Medicine researchers found.

  • Mice with diabetes regain blood sugar control

    A technique developed at Stanford Medicine allows mice with diabetes to accept unmatched islet cells and durably restores blood sugar control without immunosuppression or graft-versus-host disease.

  • Viral genome packing key in replication

    Disrupting a virus’s genome packaging can halt replication and jumpstart a natural immune response against subsequent exposures, a Stanford Medicine study finds.

  • Magazine explores molecules within us

    The new issue of Stanford Medicine magazine features articles about the molecules that make us who we are and how understanding them can lead to medical discoveries and innovations.

  • COVID-19 brain fog similar to chemo brain

    Researchers found that damage to the brain’s white matter after COVID-19 resembles that seen after cancer chemotherapy, raising hope for treatments to help both conditions.

  • ‘Military police’ cells stem autoimmunity

    A new study has identified a way that the immune system shoots down its own cells when their anti-viral activity threatens to become friendly fire. The finding could pave the way to new treatments for autoimmune diseases.

  • Possible zinc strategy for diabetes

    To treat diabetes directly, rather than manage its symptoms, doctors need a way to get drugs to cells that produce insulin. The key, Stanford researchers report, may be those cells’ affinity for zinc.

  • New test for measuring aldehydes

    Fanconi anemia is a rare but deadly disease thought to be the result of aldehyde-induced DNA damage. Now, Stanford researchers are developing a test that could help kids with the disease and millions more with related conditions.

  • Stress hormone timing controls weight gain

    A circadian code controls the switch that produces fat cells, according to a new study by Stanford researchers.