In the News
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Nadya Mason named director of the Beckman Institute for Advanced Science and Technology
From the University of Illinois Urbana-Champaign: Nadya Mason, who has been at Illinois since 2005, is an experimental physicist who works at the intersection of complex materials, superconductivity, and nanotechnology. Read More
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Scientist you should know: Monika Schleier-Smith and the quantum universe
From Discover: Stanford University physicist Monika Schleier-Smith customizes quantum networks in the lab. Her experiments advance quantum computing and improve our understanding of the universe. Read More
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Building the quantum workforce of tomorrow
From the University of Chicago: A new certificate course at the University of Chicago prepares workers to join the quantum industry. Read More
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Aliens could send us quantum messages from space, physicists say
From Popular Mechanics: Q-NEXT Director David Awschalom weighs in on the possibilities for quantum communication on Earth and in outer space. Read More
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5 important scientists of today
From Discover: Q-NEXT collaborator Monika Schleier-Smith is featured in this piece on scientists who "embody the chief objectives of science — to push the frontiers of what we know and to advance human welfare along the way." Schleier-Smith controls quantum entanglement to augment the computational problems that quantum physics can solve. Read More
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A faster, better approach to describe many-body systems
From Pacific Northwest National Laboratory: Q-NEXT collaborator Bo Peng and team maintain accuracy while cutting computational using a hybrid quantum-classical approach to model many-body physical systems. Read More
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Chicago Quantum Profile: Alex High
From the Chicago Quantum Exchange: Alex High, a professor at the Pritzker School of Molecular Engineering at the University of Chicago, focuses on the delicate manipulation of light at very small scales — a useful capability for advanced technology such as quantum communication or quantum sensing. Read More
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Liang Jiang (BS '04), quantum physicist
From Caltech: As an undergraduate at Caltech in the early 2000s, and then returning as a postdoctoral scholar after completing his Ph.D at Harvard, Q-NEXT collaborator Liang Jiang was present at the creation of two milestones in the history of quantum information at Caltech. Jiang currently pursues research that connects theory to application in the many facets of quantum science, including sensing, transduction, communication and computation. Read More
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Cryptography solutions selected to fight cyberattacks from quantum computers
From Tech Monitor: University of Chicago scientist and Q-NEXT collaborator Bill Fefferman is quoted in this piece on the new NIST cryptography standards, designed to ensure companies are prepared for the threat posed by quantum computing. Read More
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UChicago scientists invent ‘quantum flute’ that can make particles of light move together
From University of Chicago: Q-NEXT collaborator David Schuster and team have invented “quantum flute” that can coerce particles of light to move together in a way that’s never been seen before. The breakthrough, reported in Physical Review Letters and Nature Physics, could point the way toward realizing quantum memories or new forms of error correction in quantum computers and observing quantum phenomena that cannot be seen in nature. Read More
News and features
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Feng Pan sculpts ultrathin materials for quantum information research
The Stanford University postdoctoral researcher develops high-tech materials to deliver photon packages of quantum information. Read More
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New quantum sensing technique reveals magnetic connections
A research team supported by the Q-NEXT quantum research center demonstrates a new way to use quantum sensors to tease out relationships between microscopic magnetic fields. Read More
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Q-NEXT releases roadmap for the development of quantum information technologies
The roadmap serves as a guide for research and development in quantum interconnects, devices that link and distribute quantum information between systems and across distances to enable quantum computing, communications and sensing. Read More
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Quantum repeaters and their role in information technology
If we want quantum computers to reach their full potential, we’ll need complex networks of the machines strung together with quantum repeaters. Read More
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The entanglement advantage
Sensing networks achieve greater precision through quantum entanglement: Researchers show how to create quantum-entangled networks of atomic clocks and accelerometers — and they demonstrate the setup’s superior, high-precision performance. Read More