The brains of children with autism may not always ‘see’ body language
Neuroscientists have found that children with autism spectrum disorder may not always process body movements effectively, especially if they’re distracted.
Star struck: Dispatches from the James Webb Space Telescope
Humanity’s best looks at the universe so far were made possible by the contributions of scientists, engineers, and supporters—including University of Rochester community members.
Dark matter mysteries unraveled by researchers in underground South Dakota mine
The digital electronics designed, developed, and installed by Rochester researchers are an integral part of the world’s most powerful dark matter detector, now in operation at the Sanford Underground Research Facility.
‘Supergene’ wreaks havoc in a genome
Rochester biologists have for the first time used population genomics to study a selfish ‘supergene’ known as Segregation Distorter (SD) that skews genetic inheritance.
Walking gives the brain a ‘step-up’ in function for some
Certain young and healthy people show improved performance on cognitive tasks while walking, a finding that could guide scientists to identify markers for cognitive flexibility.
How the brain interprets motion while in motion
New findings about how the brain interprets sensory information may have applications for treating brain disorders and designing artificial intelligence.
Play a Bach duet with an AI counterpoint
BachDuet, developed by University of Rochester researchers, allows users to improvise duets with an artificial intelligence partner.
Quest for elusive monolayers just got a lot simpler
Compared to long, tedious hours of scanning by undergraduates, a breakthrough technology can detect monolayers with 99.9 percent accuracy—in far less time and at a fraction of the cost.
Gene regulation may hold clue to longer life
Rochester biologists who study the genetics of lifespan suggest new targets to combat aging and age-related diseases.
Laser bursts drive fastest-ever logic gates
By clarifying the role of “real” and “virtual” charge carriers in laser-induced currents, researchers at Rochester and Erlangen have taken a decisive step toward creating ultrafast computers.