Skip to main content

Homepage

Six vials of quantum dots fluoresce in bright colors against a black background.

Quantum dots: Chemistry professor explains a Nobel Prize–winning discovery

The fruits of the recent Nobel laureates’ labor can be seen not only in high-end monitors and screens, but also in collaborative research across the sciences.

Continue Reading
John Nichol faces the camera with his head and shoulders near a dilution refrigerator, which he uses to study thermoelectricity at the nanoscale level.

A quantum leap in cooling atoms for better computers

A new grant will allow John Nichol and his team to study thermoelectricity to help develop more efficient quantum computers.

Continue Reading
illustration of quantum simulation.

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.

Continue Reading
Example of superconducting circuits like this one (Niobium on Silicon substrate) fabricated at the University of Rochester cleanroom (URNano).

Creating superconducting circuits

Rochester researchers led by Machiel Blok are formulating new techniques to improve superconducting circuits and make quantum computers that are more powerful and reliable.

Continue Reading
Illustrated array of electrons in silicon, showing electron spin with voltage being applied.

New method to control electron spin paves the way for efficient quantum computers

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

Continue Reading
Illustration of synchronized laser pulses (red and blue) generating a burst of real and virtual charge carriers in graphene.

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.

Continue Reading

In the News

More News

Recent Events

Conference on Coherence and Quantum Optics

The Rochester Conferences on Coherence and Quantum Optics (CQO) have been held every six years since their inception in 1960, essentially coincident with the first observation of lasing. Topics of interest include all aspects of experimental and theoretical coherence, quantum optics, quantum information and quantum measurement.

The CAT (Cooling and Trapping) Group of Professor Nicholas P. Bigelow is interested in understanding the interactions between light and matter.

UR Quantum

Quantum information science and engineering at the University of Rochester encompass numerous programs and departments such as chemistry, computer science, electrical engineering, mathematics, mechanical engineering, optics, physics and astronomy, and world-class research centers such as the Laboratory for Laser Energetics.

Physicist John Nichol in his lab with a dilution refrigerator.

Feature Research

A quantum leap in cooling atoms for better computers

“We still do not fully understand all of the ways that heat and energy flow in quantum devices,” says physicist John Nichol. A new grant will allow him and his team to study thermoelectricity to help develop more efficient quantum computers.

Continue Reading

Feature Video

AIM Photonics members celebrate 5 years of success

In celebration of their five year anniversary and technical achievements, AIM Photonics presents a look into the institute and integrated photonics. Members detail the benefits of this technology through footage from the AIM Photonics Test, Assembly, and Packaging (TAP) Facility in Rochester, NY—the world’s first-ever open-access 300mm Photonic Packaging Research Center.

Video by AIM Photonics

Physics and astronomy professor Machiel Blok (middle) and PhD students (L-R) Ray Parker, Mihirangi Medahinne, Liz Champion, and Zihao Wang, in front of the dilution refrigerator in Blok’s lab.

Feature Story

Creating superconducting circuits

Rochester researchers led by Machiel Blok are formulating new techniques—including one that uses qudits instead of qubits—to improve superconducting circuits and make quantum computers that are more powerful and reliable.

Continue Reading

Want to learn more about Quantum Information and Technology? Contact us.