Content for Rochester.Edu

Rochester.Edu

The University of Rochester (U of R , UR, or Rochester) is a private research university in Rochester, New York. The university grants undergraduate and graduate degrees, including doctoral and professional degrees. The College of Arts, Sciences, and Engineering is home to departments and divisions of note. The Institute of Optics was founded in 1929 through a grant from Eastman Kodak and Bausch and Lomb as the first educational program in the US devoted exclusively to optics, awards approximately half of all optics degrees nationwide, and is widely regarded as the premier optics program in the nation. The Departments of Political Science and Economics have made a significant and consistent impact on positivist social science since the 1960s, and historically rank in the top 5 in their fields. The Department of Chemistry is noted for its contributions to synthetic organic chemistry, including the first lab based synthesis of morphine. The Rossell Hope Robbins Library serves as the university's resource for Old and Middle English texts and expertise. The university is also home to Rochester's Laboratory for Laser Energetics, a US Department of Energy supported national laboratory.

Straining memory leads to new computing possibilities

“Researchers develop hybrid phase-change memristors that offer fast, low-power, and high-density computing memory. By strategically straining materials that are as thin as a single layer of atoms, University of Rochester scientists have developed a new form of computing memory that …

Scientists propose super-bright light sources powered by quasiparticles

“The seemingly physics-defying properties of quasiparticles could be harnessed for applications ranging from non-destructive imaging to computer-chip manufacturing. An international team of scientists is rethinking the basic principles of radiation physics with the aim of creating super-bright light sources. In …

A quantum leap in cooling atoms for better computers

“Rochester physicists will study heat and energy flow in quantum mechanics to help develop more efficient quantum computers. At the incredibly tiny quantum level, the laws of physics begin to act differently and the usual rules don’t apply, including …

Could artificial intelligence power the future of fusion?

“Rochester scientists will develop machine learning to help predict, design, and improve laser-fusion implosions for inertial fusion energy. Researchers from the University of Rochester and Hewlett Packard Enterprise believe artificial intelligence can help scientists take the next step toward creating …

New technique may help achieve mass production fusion energy

“Dynamic shell formation has been demonstrated experimentally for the first time at the University of Rochester’s Laboratory for Laser Energetics. Fusion, which replicates the same reaction that powers the sun, has long been viewed as an ideal energy source …

Scientists edge toward scalable quantum simulations on a photonic chip

“A system using photonics-based synthetic dimensions could be used to help explain complex natural phenomena. Scientists have made an important step toward developing computers advanced enough to simulate complex natural phenomena at the quantum level. While these types of simulations …

Creating superconducting circuits

“Physicist Machiel Blok develops techniques to improve superconducting circuits, which may help create more powerful quantum computers. In the quest to unlock the power of quantum computers, scientists such as Machiel Blok study information processing at the infinitesimally small level …

Unlocking the power of photosynthesis for clean energy production

“A new grant will allow Rochester researchers to leverage bacteria and nanomaterials to mimic photosynthesis and produce clean-burning hydrogen fuel. As the world faces an increasing demand for clean and sustainable energy sources, scientists are turning to the power of …

Tapered optical fiber addresses challenge posed by Brillouin scattering

“Rochester researchers achieve strong optical-acoustic interactions with long-lived acoustic waves. When optical beams, consisting of photons, travel through fibers, they cause vibrations that generate acoustic waves, consisting of phonons. The phenomenon, called Brillouin scattering, has been harnessed by researchers to …

Perovskites, a ‘dirt cheap’ alternative to silicon, just got a lot more efficient

“The secret, a University of Rochester optics professor explains, is to harness the power of metals. Silicon, the standard semiconducting material used in a host of applications—computer central processing units (CPUs), semiconductor chips, detectors, and solar cells—is an …