A new study on the modifier MLL4 could illuminate how cancer genes get switched on in leukemias.

One of the most common drug resistance mutations in tuberculosis creates subtle metabolic weaknesses that could be exploited with future combination therapies.

RNA polymerase, the enzyme that synthesizes RNA from DNA during transcription, has been captured mid-reaction for the first time. The findings provide a universal blueprint for gene expression.

The two scientists are the 35th and 36th members of Rockefeller's current faculty to be honored with membership in the prestigious academy founded by Abraham Lincoln.

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.

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.

Researchers discovered new characteristics of a T cell receptor that’s essential to a variety of cutting-edge T cell immunotherapies.

Researchers discovered that a crucial first step in the signaling system operates differently than previously thought, an insight that could lead to the next generation of treatments.

Researchers found that pairing the antibiotic rifampicin with a second compound turned multidrug resistance into a weakness—providing proof of concept for using basic science to design life-saving dual-drug strategies.

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.

A collaboration between Rockefeller, MSK, and Weill Cornell answers a longstanding mystery about the basic biology of the hepatitis B virus, while also proposing a novel therapy.

Male fruit flies don’t just sing to their mates; they also use sound-cancelling wing-flicks to jockey with rivals. This new understanding of how male flies compete for female partners could shed light on how the brain balances cooperation and competition.

New research reveals how the RapA enzyme protects against R-loop cytotoxicity in E. coli.

Researchers discovered a vulnerability in viral enzymes that could lead to novel treatments for diseases as diverse as COVID and Ebola, while also minimizing side effects and reducing the odds of drug resistance.

A treatment that appears effective in cancers such as myelofibrosis consistently fails in breast cancer clinical trials. A new study explains why.

Researchers created a tool capable of comprehensively mapping crucial interactions underlying drug efficacy in one superfamily of cell receptors.

Findings bolster the idea that the functions of this protein—MeCP2—are more centered on nucleosomes, rather than other forms of DNA.

CDCA7, whose mutations alter DNA methylation pattern and cause immunodeficiency, is a novel sensor for a special class of methylated DNA.

New tech reveals findings that address long-standing theories about how bacteria begin the process of making RNA from DNA.

The infectious disease specialist will continue her groundbreaking work on the transcriptomes of the pathogens behind tuberculosis and Covid.

Thomas Tuschl has devoted his career to making discoveries that bridge the gap between bench and business—and have resulted in entirely new classes of drugs.
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