Diamonds Are Forever—but Not in Nanodevices

Diamonds Are Forever—but Not in Nanodevices

February 5, 2025
Now, researchers at JILA, led by JILA Fellows and University of Colorado physics professors Margaret Murnane and Henry Kapteyn, along with graduate students Emma Nelson, Theodore Culman, Brendan McBennett, and former JILA postdoctoral researchers Albert Beardo and Joshua Knobloch, have developed a novel microscope that makes examining these materials possible on an unprecedented scale. The team’s work, recently published in Physical Review Applied, introduces a tabletop deep-ultraviolet (DUV) laser that can excite and probe nanoscale transport behaviors in materials such as diamond.

Slow Atomic Movements Shed New Light on Unconventional Superconductivity

Slow Atomic Movements Shed New Light on Unconventional Superconductivity

December 8, 2024
While atoms are known to wiggle very fast, dopants added to a cuprate superconductor can also cause atoms to meander very slowly. A SLAC study shows this process, called atomic relaxation, offers a new way to explore quantum states in these puzzling materials.

Cooling With Light: Exploring Optical Cooling in Semiconductor Quantum Dots

Cooling With Light: Exploring Optical Cooling in Semiconductor Quantum Dots

November 28, 2024
In a recent study, researchers from Chiba University delved into a promising path toward solid-state optical cooling using perovskite quantum dots. Focused on anti-Stokes photoluminescence, a process in which materials emit higher-energy photons than they absorb, this research could revolutionize the existing cooling technology. Their findings highlight both the potential and limitations of this novel cooling approach, with exciting prospects in energy-saving technology.

Unveiling the Relationship Between Electrons and Photons

Unveiling the Relationship Between Electrons and Photons

August 27, 2024
A study coordinated by the University of Trento with the University of Chicago proposes a generalized approach to treat the interactions between electrons and light. In the future, it may contribute to the development of quantum technologies but also to the discovery of newstates of matter. The study has been published in Physics Review Letters.

Innovative Quantum Computing Research Project at the University of Chicago Has Received $3 Million Funding From the U.S. Department of Defense

UChicago Pritzker School of Molecular Engineering Prof. Andrew Cleland has been selected as a recipient of a flagship basic research funding program by the U.S. Department of Defense. The Department of Defense will provide $3 million over five years to support Professor Cleland's innovative quantum computing research project based on phonons, aiming to develop a quantum computer built on mechanical vibrations based on phonons.

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Innovative Phonon-Based Quantum Computing Research at UChicago Engineering Gets a $3 Million Boost by the U.S. Department of Defense

Innovative Phonon-Based Quantum Computing Research at UChicago Engineering Gets a $3 Million Boost by the U.S. Department of Defense

July 16, 2024
UChicago Pritzker School of Molecular Engineering Prof. Andrew Cleland has been named a 2024 Vannevar Bush Faculty Fellow, the U.S. Department of Defense’s flagship single-investigator award for basic research.

QCi Appoints Dr. Javad Shabani to the Board of Directors

QCi Appoints Dr. Javad Shabani to the Board of Directors

May 1, 2024
Quantum Computing Inc. (Nasdaq: QUBT), an innovative quantum optics and nanophononics technology company, today appointed Dr. Javad Shabani to its Board of Directors. Dr. Shabani currently serves as an Associate Professor of Physics at New York University (NYU) and is the Director of the Center for Quantum Information Physics at NYU.

Lead-Vacancy Centers in Diamond as Building Blocks for Large-Scale Quantum Networks

Lead-Vacancy Centers in Diamond as Building Blocks for Large-Scale Quantum Networks

April 29, 2024
In the study published in the journal Physical Review Letters on February 15, 2024, the researchers reveal that the PbV center emits photons of specific frequencies that are not influenced by the crystal’s vibrational energy. These characteristics make the photons dependable carriers of quantum information for large-scale quantum networks.
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