Researchers were able to shut down certain malignancies by disabling a protein complex that regulates cell differentiation.

Michael Rout has spent decades studying the molecular machinery that controls all traffic in and out of the cell’s nucleus. His research could lead to new treatments for cancer and viral diseases.

Researchers uncovered immune dynamics that may inform future therapies for infection, cancer, and autoimmunity.

Age-related changes in cells are synchronized across organs, suggesting common molecular signals that could be targeted with drugs.

A new cell-free genomics framework isolates the primary impacts of transcription factors and establishes tuberculosis as a model for understanding how genes are regulated.

Scientists have discovered that a protein once thought to simply help load a factor necessary for the copying of DNA, actually plays a key role in ensuring fast and reliable replication—an insight that could inform research into cancer and other diseases.

A new study shows that preexisting autoantibodies in a small subset of the population can allow weakened vaccine viruses to escape control, explaining some adverse events tied to this one kind of Chikungunya vaccine, which is no longer available in the U.S.

New work in fruit flies uncovers an electrical trick that allows neurons to compute direction efficiently by juggling multiple signaling mechanisms. These findings could reframe our understanding of how some neurons operate.

Scientists knew that obesity raises the risk of hypertension. Now Paul Cohen's team has uncovered the mechanism—and the enzyme—that explains how fat can stiffen blood vessels and drive blood pressure upward.

New study shows that beige fat suppresses an enzyme that promotes high blood pressure, revealing a new molecular pathway and a potential target for future precision therapies.
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