URnano

How did water vapor became integral to the development and design of a novel device for detecting the DNA biomarkers affiliated with disease?

Optics professor Xi-Cheng Zhang has worked for nearly a decade to solve a scientific puzzle.

A mechanical engineering student visiting from the University of Maryland, Ricardo Cardoza stretched himself—and the shape-memory polymers he worked with—in Mitchell Anthamatten's chemical engineering lab this summer.

From near-Earth objects to quantum computing, physics students come to Rochester to get an early start on their research careers this summer, working on federally funded and University sponsored projects.

If chemical engineering professor Wyatt Tenhaeff and his students succeed, their work will help create the next generation of batteries so slim they can fit inside clothing, and so large they can power a car without risk of fire.

Rochester researchers working on the next generation of quantum information processing have received a $2 million boost from the National Science Foundation.

Polymers that visibly change shape when exposed to temperature changes are nothing new. But a research team led by chemical engineering professor Mitch Anthamatten has created a material that undergoes a shape change that can be triggered by body heat alone, opening the door for new medical and other applications.

One of the earliest images of the 19th-century abolitionist is on loan at the River Campus Libraries through February. While here, the 1848 portrait will feature in a larger exhibition about the University's work on researching and preserving daguerreotypes.

While damage to daguerreotype plates is often visible by eye, evidence of further deterioration may only be detected at the nano level. The University is leading groundbreaking research that bridges the gap between science, history, and the arts.

Nick Vamivakas, assistant professor of optics, thinks his team's work will make extremely sensitive instruments for sensing tiny forces and torques possible, and could also lead to a way to physically create larger-scale quantum systems known as macroscopic Schrödinger Cat states.