Front Feature

UW–Madison researchers from Handelsman Lab have learned that a drastically scaled-down model of a microbial community makes it possible to observe some of the complex interactions.

Incomplete viral genomes can quell disease and, with further research, could be turned into treatments. An opinion by John Yin for Scientific American.

Claudia Solís-Lemus’ has been awarded a coveted five-year research grant from the National Science Foundation’s Faculty Early Career Development (CAREER) Award. Solís-Lemus’ NSF grant will support her research, which combines statistical theory and biology to help understand  how the biodiversity that we see on Earth evolved from single-cell organisms. 

Through a series of lab studies between 2010 and 2017, Karen Schloss, PhD and her collaborator, Stephen Palmer PhD, a researcher at UC Berkeley, set out to find out why we like certain colors more than others.
They hypothesized the Ecological Valence Theory (EVT), which they describe in their 2017 paper as the theory that “…people like/dislike a given color to the degree that they like/dislike all of the objects and entities that they associate with that color.”

In a new study, the John Denu lab has learned that the fatty acids butyrate and propionate also activate p300, a crucial human enzyme that promotes the unspooling of DNA. This unwound DNA allows more genes to become active and expressed, which ultimately affects human health.

While studying the three-member model microbial community, nicknamed The Hitchhikers of the Rhizosphere (THOR), researchers from professor of plant pathology and director of the Wisconsin Institute for Discovery Jo Handelsman and professor of biomedical engineering and Discovery Fellow David Beebe’s labs noticed cells moving in unexpected, unique ways under the microscope.