Researchers created the first mouse model in which chronic viral infection progresses to liver cancer, closely mirroring what happens in people with hepatitis C.

The Rockefeller teams will map immune cell interactions, engineer cells as drug delivery systems, and activate immune responses in hard-to-treat cancers.

Theodora Hatziioannou used her expertise on HIV-1 to gain insights into SARS-Co-V-2, and vice versa. The potential applications of her insights could be much broader.

Researchers used a combination of wet lab research and deep machine learning to pinpoint distinct genetic sequences, work that could inform therapeutic strategies for chronic inflammation.

Long thought to serve as cellular scaffolding, microtubules also reshape the proteins that bind to them—guiding enzyme activity to prevent genetic errors linked to cancer.

Researchers find that ants continually update their sense of nestmate identity and tolerance for outsiders, a discovery that opens the door to studying the neural circuits behind social recognition.

Researchers laid the groundwork for tools that could one day make high-throughput, comprehensive single-cell protein analysis routine.

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.
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