At the Large Hadron Collider in Geneva, the world's largest particle accelerator, an experiment called ATLAS has just found entanglement in pairs of top quarks: the heaviest particles known to science.
Chinese scientists explain how entangled photons emitted by carbon-hydrogen bonds in nerve cell insulation could synchronize activity within the brain.
A year after all but ruling out the possibility, a pair of theoretical physicists from Japan and the Netherlands have found quantum entanglement has something fundamentally in common with the physics that drives steam engines.
In a noteworthy first, a team of Princeton physicists has been able to link together individual molecules into special states that are quantum mechanically “entangled.”
A new method for entwining the fates of fragments of light has overcome some serious obstacles on the road to photon-based quantum computing.
The device works along the same principles as a normal radar, except instead of sending out radio waves to scan an area, it uses pairs of entangled photons.
An international team have succeeded in transforming 20 entangled quantum bits into a state of superposition. This is an important step in the development of quantum computers after the old record of 14 qubits remained unchanged since 2011.
Now three independent European research groups have managed to entangle not just a pair of particles, but separated clouds of thousands of atoms.
The researchers managed to bring the motions of two individual vibrating drumheads -- fabricated from metallic aluminium on a silicon chip -- into an entangled quantum state.
A new quantum device entangles 20 quantum bits together at the same time, making it perhaps one of the most entangled, controllable devices yet.
Scientists from Switzerland recently reengineered their data processing, demonstrating that 16 million atoms were entangled in a one-centimeter crystal.
An team of German researchers recently conducted an experiment that has once again proven that quantum entanglement is possible.
Researchers in China have teleported a photon from the ground to a satellite orbiting more than 500 kilometers above.
In a new study, scientists have successfully transmitted entangled photons between a satellite and Earth at a distance of over 1,200 km.
The simulator is designed to model and mimic complex physics phenomena in a way that is impossible with conventional machines, even supercomputers.
