Why the future of computing is quantum
The strengths and limitations of computing advances are pushing the boundaries of what quantum machines can do.
New theory may solve quantum ‘jigsaw puzzle’
The theory explains how quantum environments can steer chemical reactions—speeding them up or slowing them down without adding heat or light.
Researchers discover more efficient way to route information in quantum computers
Using qudits, Rochester scientists have solved a notoriously difficult problem involving Hilbert space, or the quantum matrix.
Pioneering physicist and optical scientist Joseph Eberly remembered
His serendipitous original foray into optics research would help advance the fields of quantum optics and optical physics.
University of Rochester and RIT develop experimental quantum communications network
The Rochester Quantum Network uses single photons to transmit information over dual fiber-optic telecommunications lines.
New molecule could pave the way for more efficient computers
A team of scientists has developed the “world’s most electrically conductive organic molecule.”
Twisting atomically thin materials could advance quantum computers
Placing two layers of special 2D materials together and turning them at large angles creates artificial atoms with intriguing optical properties.
Scientists directly prove the existence of a nuclear-spin dark state
Confirmation of this elusive state in quantum systems could lead to more efficient quantum devices.
Rochester physicists find ‘spooky action at a distance’ at CERN
The researchers have confirmed that quantum entanglement persists between top quarks, the heaviest known fundamental particles.
New surface acoustic wave techniques could lead to surfing a quantum internet
Researchers have developed new methods to couple light to sound waves that glide on surfaces.