News

Quantum Flute

Promoting new research directions in the physical and mathematical sciences.

Professor Cheng Chin has received the ’21–’22 Marian and Stuart Rice Research Award, a Divisional honor that provides $100,000 for intellectually exciting and innovative research ventures that enable new research directions.

Chin joined the University of Chicago in 2005 and has been a full professor in the Department of Physics, the Enrico Fermi Institute, and the James Franck Institute since 2012. He is a pioneer in using ultracold atoms to study the quantum phenomena that underlie the behavior of other particles in the universe.

“I am very excited about this generous support from the PSD, and especially from Stuart Rice,” he said. “The fund will enable a brand new research line into molecular quantum matter, on which my students and I are very excited to begin.”

The Marian and Stuart Rice Research Award was established by the family of Stuart Alan Rice, the Frank P. Hixon Distinguished Service Professor Emeritus in Chemistry and former chairman of the Department of Chemistry and dean of the Physical Sciences (1981-1995). It is awarded annually to promote new directions of research in the physical and mathematical sciences at the University of Chicago.

A general theory of non-reciprocal matter.

The Vitelli and Littlewood groups recently published a groundbreaking general theory of non-reciprocal matter using exceptional points and illustrated with examples found in simple systems such as groups of interacting toy robots. The work was original published in Nature in April and is now receiving wider attention via WIRED. Please see the links on the right and the UChicago News story as well.

Wired Story
Publication

Continuing to transform electron beam technology
A collaboration of researchers led by Cornell University and including the University of Chicago has been awarded $22.5 million from the National Science Foundation to continue gaining the fundamental understanding needed to transform the brightness of electron beams available to science, medicine and industry.

­The Center for Bright Beams (CBB), an NSF Science and Technology Center, was created in 2016 with an initial $23 million award to Cornell and partner institutions, including the University of Chicago and affiliated Fermi National Accelerator Laboratory. The center integrates accelerator science with condensed matter physics, materials science and surface science in order to advance particle accelerator technologies, which play a key role in creating new breakthroughs in everything from medicine to electronics to particle physics.

The center’s goals are to improve the performance and reduce the cost of accelerator technologies around the world and develop new research instruments that transform the frontiers of biology, materials science, condensed matter physics, particle physics and nuclear physics, as well as new manufacturing tools that enable chip makers to continue shrinking the features of integrated circuits.

“CBB has brought together a remarkably broad palette of researchers encompassing scientists from physics, physical chemistry, materials research, and accelerator science—an unusually diverse team that has the necessary skills and long-range vision to take on the challenge of helping the next-generation of accelerators come to fruition, with impact on many fields,” said Steven J. Sibener, the Carl William Eisendrath Distinguished Service Professor of Chemistry and the James Franck Institute at the University of Chicago, and a co-leader of CBB’s next-generation superconducting radio frequency materials research. “My role has been profoundly rewarding for my research group and for me personally, introducing us to new research directions in advanced superconducting materials design that will ultimately lead to the innovation of lower-cost accelerators with greatly improved brightness and performance.”

Recognized by Research Corporation for Science Advancement.

David DeMille, University of Chicago and the James Franck Institute, is among five physics and astronomy researchers to win Research Corporation for Science Advancement’s competitive Cottrell Plus SEED (Singular Exceptional Endeavors of Discovery) Awards for 2021.

DeMille received a SEED Award for "Developing a New Tabletop-scale Approach to Detect Particles One Million Times More Massive than the Higgs Boson.""

SEED Awards offer Cottrell Scholars the opportunity to start creative new research or educational activities, granting $50,000 for research projects.

Research Corporation for Science Advancement was founded in 1912 and funds basic research in the physical sciences (astronomy, chemistry, physics, and related fields) at colleges and universities in the United States and Canada.

The National Academy of Sciences recently published a biographical memoir of the remarkable scientific and personal life of R. Stephen Berry, the James Franck Distinguished Service Professor Emeritus of Chemistry and integral part of the James Franck Institute from 1964 to 2020. The memoir was written by Stuart A. Rice, Frank P. Hixon Distinguished Service Professor Emeritus in Chemistry and the James Franck Institute, and Joshua Jortner, Emeritus Professor of Chemistry at the Tel Aviv University. The memoir can be found online at the National Academy of Sciences and by direct download. More information about Prof. Berry's influential life and career can be found at the University of Chicago News.

National Academy of Sciences
Download Memoir

Opening up new fields in quantum chemistry and technology.

Researchers have big ideas for the potential of quantum technology, from unhackable networks to earthquake sensors. But all these things depend on a major technological feat: being able to build and control systems of quantum particles, which are among the smallest objects in the universe.

That goal is now a step closer with the publication of a new method by University of Chicago scientists. Published April 28 in Nature, the paper shows how to bring multiple molecules at once into a single quantum state—one of the most important goals in quantum physics.

"People have been trying to do this for decades, so we’re very excited,” said senior author Cheng Chin, a Professor of Physics and the James Franck Instiute who said he has wanted to achieve this goal since he was a graduate student in the 1990s. “I hope this can open new fields in many-body quantum chemistry. There’s evidence that there are a lot of discoveries waiting out there.”

Publication