Tag: Quantum
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Quantum metallurgy: Electron crystals deform and melt
Electrons can arrange into crystalline patterns that accumulate defects as they melt; controlling the degree of melting may advance superconductors and artificial neurons.
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Ultrashort laser pulses achieve stronger photoemission
A new theoretical study finds shorter laser pulses achieve higher quantum efficiency for photoemission from a solid surface without increasing power or intensity.
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Exploring the fundamental limits of entangled quantum sensor networks
A new Michigan-led project aims to develop systems that reap the full benefit of quantum networks.
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Speeding up light-driven chemical reactions with nanocrystals
Syncing molecular vibrations with plasmons, quantum packets of electron motion, helped researchers create an accessible, scalable photocatalyst platform.
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Superconductor phase transitions manage radiative heat transfer
A first-of-its-kind experiment finds niobium suppresses nanoscale radiative heat transfer when in a superconducting state, with implications for quantum computing.
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U-M quantum testbed enables remote experiments
The optical fibers connecting two quantum research labs at the University of Michigan mark the first piece of a local quantum network and remote user test facility.
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Quantum chemistry: Making key simulation approach more accurate
Density functional theory is limited by a mystery at its heart: the universal exchange-correlation functional. U-M researchers are trying to uncover it.
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Conquering Disorder: Modeling a solid with liquid-like ion movement
A new method reveals copper selenide’s elusive electrical properties and vibrational patterns, moving towards thermoelectric generators, solid-state batteries or silent fridges.
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Microscopes can now watch materials go quantum with liquid helium
A new specimen holder gives scientists more control over ultra-cold temperatures, enabling the study of how materials acquire properties useful in quantum computers.
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Nano-switch achieves first directed, gated flow of excitons
Moving excitons with light and a nano-ridge could help bridge optics and electronics, enabling new devices and faster, more efficient communication.
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First quantum-mechanical model of quasicrystals reveals why they exist
Quasicrystals couldn’t be simulated with quantum mechanics because of their irregular atomic patterns. A new method overcomes this challenge.
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Seeing electron movement at fastest speed ever could help unlock next-level quantum computing
New technique could enable processing speeds a million to a billion times faster than today’s computers and spur progress in many-body physics.