Qiang Lin

The chip-scale laser has applications ranging from guiding autonomous vehicles to detecting gravitational waves.

Microcomb lasers developed at the University of Rochester offer a new path for developing frequency comb generators at a microchip scale.

A system using photonics-based synthetic dimensions could be used to help explain complex natural phenomena.

Rochester researchers see applications in LiDAR (Light Detection and Ranging), atomic physics, and augmented and virtual reality.

Engineers have taken advantage of the quantum entanglement phenomenon to generate unprecedented bandwidth and brightness on chip-sized nanophotonic devices.

A Rochester team demonstrates a new way to control light as it moves through integrated circuits, paving a research avenue in communications, computing, and photonics research.

Qiang Lin, an expert in integrated quantum photonics and nonlinear nanophotonics at the University of Rochester, is a recipient of the Presidential Early Career Award for Scientists and Engineers (PECASE).

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

Qiang Lin, assistant professor of electrical and computer engineering and of optics, has been named the first Leonard Mandel Faculty Fellow. The award, which includes a two-year, $25,000 stipend, recognizes exceptional achievement by a junior faculty member in coherence and quantum optics.