The Carl R. Woese Institute for Genomic Biology (IGB) is dedicated to transformative research and technology in life sciences. Team-based themes tackle grand societal challenges in food security, energy, health, technology, and environmental conservation. Its facilities include a microfabrication lab, plant growth facility, and a microscopy suite.

Study reveals how bacterial pathogen adapts to nutritional stress

In order to cause disease, the human pathogen Staphylococcus aureus must adapt to the changing host environment. Many of these adaptations are mediated through two-component signal transduction systems (TCSs) that coordinate gene expression in response to environmental stimuli. In a new study...

Scientists discover how antibiotics penetrate Gram-negative bacterial cell walls

In a study reported in the journal Chemical Science, researchers developed a new method to determine how antibiotics with specific chemical properties thread their way through tiny pores in the otherwise impenetrable cell envelopes of Gram-negative bacteria.

Cholesterol metabolite induces production of cancer-promoting vesicles

Scientists working to understand the cellular processes linking high cholesterol to breast cancer recurrence and metastasis report that a byproduct of cholesterol metabolism causes some cells to send out cancer-promoting signals to other cells. These signals are packaged in membrane-bound...

Investigating the role of Brd4 in diet-induced obesity

A new study, published in JCI insight, looks at how Brd4, a regulator of the innate immune response, influences diet-induced obesity. The researchers believe that Brd4 could be used as a target for obesity and insulin resistance.

Piecing together the LanCL puzzle

Researchers from the Carl R. Woese Institute for Genomic Biology, including several faculty in the School of Molecular & Cellular Biology, in collaboration with scientists at Oxford University have published a paper in Cell reporting the function of LanCL proteins. These proteins...

New study identifies culprit behind onion rot: the chemical pantaphos, which is toxic to some brain cancer cells, could also have biomedical applications

Since 1983, the bacteria Pantoea ananatis has been known to infect several important crops including onions, rice, and corn. It was unclear, however, what molecules were involved. A new study, published in mBio, has identified one of the culprits: pantaphos. Intriguingly, the researchers have...

New study: MCB faculty among world's most influential researchers

Several faculty from the School of Molecular & Cellular Biology were among the most-cited researchers in the world in a new, widely hailed analysis designed to provide a clearer view of scientific and scholarly impact.

Gut bacteria help digest dietary fiber, release important antioxidant

Dietary fiber found in grains is a large component of many diets, but little is understood about how we digest the fiber, as humans lack enzymes to break down the complex molecules. Some species of gut bacteria break down the fiber in such a way that it not only becomes digestible, but releases...

Welcome to Professor Nicholas Wu

Professor Wu was one of ten new faculty hires made in the School of Molecular and Cellular Biology in the last three years. Wu is an assistant professor of and is an affiliate of the Carl R. Woese Institute for Genomic Biology.

Welcome to Professor Pamela Martinez

Professor Martinez was one of ten new faculty hires made in the School of Molecular and Cellular Biology in the last three years. Martinez is an assistant professor of microbiology and statistics and is an affiliate of the Carl R. Woese Institute for Genomic Biology, as well as the Department of...