Sentences with phrase «information of an electron spin»

In a neck - and - neck race with their competitors, they showed that quantum information of an electron spin can be transported to a photon, in a silicon quantum chip.

Not exact matches

Then for the bizarre part: Atom C, because it was previously entangled with B, became imprinted with atom A's information — in this case, a pattern in the spin of its electrons.

Such research could lead to smaller and more efficient electronic gadgets that use electrons» spins to store and transmit information instead of electric charge, a technique known as «spintronics.»

An especially intriguing aspect of the new paper was that silicon carbide semiconductor defects have a natural affinity for moving information between light and spin (a magnetic property of electrons).

Practical applications of spintronic devices in information processing require accurate knowledge of the strength of the electron spin interaction with phonons.

Researchers have demonstrated how to control the «electron spin» of a nanodiamond while it is levitated with lasers in a vacuum, an advance that could find applications in quantum information processing, sensors and studies into the fundamental physics of quantum mechanics.

In the strange world of quantum physics, an electron can also be represented as a wavefunction that encodes information about the particle, such as the probability of finding it in a particular spin state.

The information is stored in the spin of the electrons which can turn up or down.

But because electron spins offer one of the most promising models for quantum bitsphysical states that can store far more information than conventional computer bitsscientists have sought ways around the coherence problem.

But electron spins tend to have quite brief usable lifetimes; even in optimal conditions — in pure samples held just a hair above absolute zero — the information encoded on an electron spin is lost on timescales of seconds, if that.

Spintronics exploits the intrinsic spins of electrons and their resulting magnetic properties in material, as well as the electrons electrical charge, to store and process information.

Making use of electron spin for information transmission and storage, enables the development of electronic devices with new functionalities and higher efficiency.

Lovett and his colleagues have shown that quantum information can be transferred from an electron's spin to the spin of an atomic nucleus, where it can be stored more effectively — creating a form of «quantum memory».

Spintronics does not only make use of the electron's charge to transmit and store information but it takes also advantage of the electron's spin.

«Most schemes for quantum information processing require you to electrically tune the spin of the electron.»

This could make the materials beneficial for spin - related electronics, which would use the orientation of the electron spin to encode information, thereby opening up a whole new realm of computer technology.

Another radical approach is called spintronics, which relies on information being transmitted within a chip using a property of electrons called spin.

Details of the breakthrough have been published in the journal Nature Communications and its authors predict that these types of sensors, dubbed «gate sensors», will be used in quantum computers of the future to read information stored in the charge or spin of a single electron.

For example, wires with Majoranas at either end can be used to transfer information between far away quantum bits that rely on the spin of electrons.

Topological insulators preserve the direction of an electron spin as it travels along the surface, allowing a spin to carry bits of information in a future quantum network.

This last property is of interest for the development of new magnetic memory devices, because the spin of the electron can be used to store and transfer information.

In a significant step forward for quantum computing in silicon - the same material used in today's computers — a team led by researchers at Princeton University successfully coupled a single electron's quantum information, or spin, to a particle of light, or photon.

The Meiler laboratory pioneers usage of EPR spectroscopic information (Alexander, N.; et al. «De Novo High - Resolution Protein Structure Determination from Sparse Spin - Labeling EPR Data» Structure 2008, 16, 181) and cryo Electron Microscopy (Lindert, S.; et al. «EM-Fold: De Novo Atomic - Detail Protein Structure Determination from Medium - Resolution Density Maps»; Structure, 2012, 20, 464).