A first-of-its-kind platform reveals how the molecular machine that turns DNA into RNA controls the speed of transcription.

When under cellular stress, breast cancer cells turn on genes that promote tumor growth and stress resistance.

Their newest technique has already uncovered hundreds of hidden bacterial genomes and two promising antibiotics. Now, the same approach could unlock an entire microbial universe—reshaping drug discovery and our understanding of how bacteria shape our environment.

Newly identified compounds appear effective against drug-resistant bacteria. The technique used to reveal them could uncover many more antibiotics, as well as help illuminate a previously hidden microbial world.

The technological breakthrough may improve our understanding of the cellular mechanisms behind hearing and its loss, which remain poorly understood.

Using the novel platform could help pharmaceutical companies design longer lasting drugs.

New research demonstrates that a previously published structure and mechanism for RNA capping at work in coronaviruses is incorrect, with potentially sweeping implications for the quest to develop drugs targeting these pathogens.

Researchers have devised a way to visualize molecules that are very rare, very small, or hard to produce naturally—including some viruses.

Mojsov is a research associate professor whose research led to the development of drugs for obesity and diabetes.

Mojsov is recognized for her discovery of the peptide hormone GLP-1, research that led to a new class of safe and highly effective drugs for type 2 diabetes as well as the treatment of obesity.
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