Scientists in Ireland discovered a new form of light that will radically change our understanding of how light functions.
A primer to help you unentangle the world of the very small.
Scientists at Cornell University have made a discovery that rivals the single-crystal silicon wafer in significance.
An international team of scientists including MSU physicists succeeded in proving that control over quantum processes accurately to several attoseconds (one billionth of a billionth of a second) is possible. The details of the experiment are described in an article published in the latest issue of Nature Photonics.
We've puzzled over the nature of entanglement for almost a century. Now physicists have devised a way for us to "see" it for the first time.
New findings may eventually lead to a theory of how superconductivity initiates at the atomic level, a key step in understanding how to harness the potential of materials that could provide lossless energy storage, levitating trains and ultra-fast supercomputers.
Bizarre quantum bonds connect distinct moments in time, suggesting that quantum links — not space-time — constitute the fundamental structure of the universe.
The very first experimental observations of knots in quantum matter have just been reported in Nature Physics by scientists at Aalto University (Finland) and Amherst College (USA). The scientists created knotted solitary waves, or knot solitons, in the quantum-mechanical field describing a gas of superfluid atoms, also known as a Bose-Einstein condensate.
Try to imagine a tiny ball sitting on one fingertip yet also on your shoulder at the same instant. Are you struggling? Most of us can’t conceive of an object being in two places at once – yet physicists have just demonstrated the effect over a distance of half a metre, smashing previous records.
Physicists have used photons to communicate between two electrons through 1.2 miles of fiber optic cable.
Quantum entanglement - the process though which particle's states become inextricably linked, despite being nowhere near each other, is usually carried out at incredibly low temperatures. But not any more: now physicists can perform the act at room temperature, which could have a profound effect on quantum computing and security.
Researchers from the Centre for Quantum Technologies (CQT) at the National University of Singapore and the University of Seville in Spain have reported the most extreme 'entanglement' between pairs of photons ever seen in the lab.
A major breakthrough has been made by researchers at the University of Technology, Sydney that could pave the way for the next-generation of quantum communications.
Researchers at the National Institute of Standards and Technology (NIST) have now managed a significant breakthrough.
A recent proposed microbe experiment based on Schrodinger's counter-intuitive theory would have a scale so small as to be almost meaningless, and other challenges such as consciousness also come into play
