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A new $25 million center to advance quantum science funded by the National Science Foundation on ÃÛÌÇÖ±²¥ Boulder’s campus and at 11 other organizations around the U.S. and abroad has deep roots in ÃÛÌÇÖ±²¥ Engineering’s interdisciplinary research efforts.

The DOE has awarded $115M over five years to the Quantum Systems Accelerator, a new research center that will include ÃÛÌÇÖ±²¥ Boulder. Led by Lawrence Berkeley National Lab, the center will forge the solutions needed to harness quantum information science for discoveries that benefit the world.

Cindy Regal, associate professor of physics at ÃÛÌÇÖ±²¥ Boulder, has been selected as the 2020 recipient of Research Corporation for Science Advancement (RCSA)’s Cottrell Frontiers in Research Excellence and Discovery (FRED) Award.

ÃÛÌÇÖ±²¥ Boulder will receive a $25 million award from NSF to launch a new quantum science and engineering research center. The new center will be led by physicist Jun Ye and is a partnership with 11 other research organizations in the United States and abroad.

Cooling and trapping atoms has helped scientists advance their understanding of atomic and quantum physics over several decades. Now it’s time to move on to more complex systems, like molecules. A new study from the Ye Lab has found a way to cool yttrium monoxide robustly and efficiently.

Thanks to a $1.6-million grant, ÃÛÌÇÖ±²¥ Boulder Physics Professor Dan Dessau will spend five years striving to make breakthroughs in quantum systems technology. Dessau is one of 20 U.S. scientists to win support from the Emergent Phenomena in Quantum Systems (EPiQS) Initiative at the Moore Foundation.

Using infrared lasers and a new microscope, the Raschke Group has obtained a high-resolution view of molecular coupling in porphyrin nanocrystals. Achieving this high-resolution imaging of molecular function opens doors to study all kinds of phenomenon in the quantum world.

JILA Fellows Ana Maria Rey and James Thompson have created a controllable, non-equilibrium macroscopic system in the lab in order to study how it behaves when you tune individual parameters. What they found could pave the way for a new foundation in our basic understanding of physics.

For many quantum materials, the electronic properties depend on how phonons and electrons are coupled. Using ultrafast laser pulses, the Kapteyn-Murnane Group can study electron-phonon couplings in tantalum diselenide and explain many of the material's essential properties.

Quantum technologies could process information even faster if they could harness the speed of light. Using gold nanostars, the Nesbitt Lab have found a way to use light to steer electric currents, which can speed up computers and possibly enable other technologies.