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Researchers will use tissue-on-chip technology as a new way to explore the relationship between the lungs and brain.

Rochester engineers have developed a way to spot tiny, overheated components that cause electronics’ performance to degrade.

A novel approach using laser-made nanomaterials made from nonprecious metals could lay the foundation for globally scalable remediation techniques.

Rochester is one of four NIH-sponsored centers that aims to produce tissue-on-chip devices as FDA-qualified drug development tools.

Rochester scientists have developed deep-learning models that can sift through the massive amounts of data generated by X-ray diffraction techniques.

The National Science Foundation has named Rochester as one of six new grant-supported Research Experiences for Undergraduates (REU) sites.

A new grant will allow Rochester researchers to leverage bacteria and nanomaterials to mimic photosynthesis and produce clean-burning hydrogen fuel.

By harnessing the power of metals, Rochester researchers are making the material an ever more viable replacement for silicon in solar cells and detectors.

The method, developed by researchers including John Nichol, an associate professor of physics, overcomes the limitations of electron spin resonance.

A team of scientists, including biology professor Anne S. Meyer, is developing plastic materials that degrade in oceans.