Each atom carries a small magnetic moment called spin. These spins influence each other. If you give one of them a push, they will start moving together in a very specific way. Atoms can feel each other.
A joint team of researchers was able to use quantum teleportation to send information over a distance of 44km. If successfully implemented, quantum internet would usher a new era of communication.
Inside a small metal box on a laboratory table in Vienna, physicists have engineered, perhaps, the quietest place on Earth. At this level of stillness, our conventional wisdom about motion breaks down, as the bizarre rules of quantum mechanics kick in.
A new study shows that heat energy can leap across a few hundred nanometers of a complete vacuum, thanks to a quantum mechanical phenomenon called the Casimir interaction. It could have profound implications for the design of computer chips.
A surprising new study shows that heat energy can leap across a few hundred nanometers of a complete vacuum, thanks to a quantum mechanical phenomenon. It could have profound implications for the design of computer chips and other nanoscale electronic components.
Harry Potter’s ‘invisibility cloak’ appears closer to reality as Canadian camouflage manufacturer Hyperstealth Biotechnology has applied for patents on its ‘Quantum Stealth’ material.
Researchers have made good on their claim to quantum supremacy. Using 53 entangled quantum bits ('qubits'), their Sycamore computer has taken on -- and solved -- a problem considered intractable for classical computers.
This quantum battery is a tiny, nano-size battery meant to be used for applications on the nano scale but the research provides a theoretical demonstration that creating a loss-free quantum battery is possible.
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.
Researchers have developed an algorithm to simulate returning a particle briefly to the past. The results suggest new paths for exploring the backward flow of time in quantum systems.
For the first time, researchers have documented the long-predicted occurrence of 'walls bound by strings' in superfluid helium-3. The existence of such an object may explain how the universe cooled down.
An atom gives off energy and causes many other atoms in its vicinity to emit light as well. This phenomenon is called 'superradiance'. For the first time, this phenomenon has now bean measured in a solid-state system.
Physicists have now demonstrated the world-first simulation of a chemical bond using trapped ion qubits, one of the most promising pathways to full-scale quantum computing.
The agency just launched the Cold Atom Lab, a box that takes advantage of microgravity aboard the International Space Station and creates a temperature roughly 10 billion times colder than the vacuum of space.
Physicists have uncovered hints of a time crystal. Time crystals, first identified in 2016, are different from ordinary crystals, - their atoms spin periodically, first in one direction and then in another.
