Atomic antennas transmit quantum information across a microchip

New research suggests a fundamentally novel architecture for quantum computation. They have experimentally demonstrated quantum antennas, which enable the exchange of quantum information between two separate memory cells located on a computer chip. This offers new opportunities to build practical quantum computers.

Quantum simulator becomes accessible to the world

Experimental physicists have put a lot of effort in isolating sensitive measurements from the disruptive influences of the environment. In an international first, Austrian quantum physicists have realized a toolbox of elementary building blocks for an open-system quantum simulator, where a controlled coupling to an environment is used in a beneficial way. This offers novel prospects for studying the behavior of highly complex quantum systems.

‘Quantum antennas’ enable exchange of quantum information between two memory cells

An Austrian research group led by physicist Rainer Blatt suggests a fundamentally novel architecture for quantum computation. They have experimentally

Quantum hot potato: researchers entice two atoms to swap smallest energy units

Physicists at the National Institute of Standards and Technology (NIST) have for the first time coaxed two atoms in separate locations to take turns jiggling back and forth while swapping the smallest measurable units of energy. By directly linking the motions of two physically separated atoms, the technique has the potential to simplify information processing in future quantum computers and simulations.

Nano-sized vaccines

MIT engineers have designed a new type of nanoparticle that could safely and effectively deliver vaccines for diseases such as HIV and malaria. The new

Drinking water: nanomembranes could filter bacteria

Nanomaterials research could lead to new solutions for an age-old public health problem: how to separate bacteria from drinking water.

Engineering atomic interfaces for new electronics

Most people cross borders such as doorways or state lines without thinking much about it. Yet not all borders are places of limbo intended only for crossing. Some borders, like those between two materials that are brought together, are dynamic places where special things can happen. For an electron moving from one material toward the other, this space is where it can join other electrons, which together can create current, magnetism or even light. Researchers have made fundamental discoveries at the border regions, called interfaces, between oxide materials.

Manipulating molecules for a new breed of electronics

Scientists have demonstrated a clever way of controlling electrical conductance of a single molecule, by exploiting the molecule

Reverse signals in neurons found

Northwestern University scientists have discovered that axons can operate in reverse: they can also send signals to the neuron cell body, too. Previously, it

Choosing your neighbors: scientists see how microbes relate in space

It is now possible to see up to 28 differently labeled microbes in a single field of view, due to a new microscopy technique.

Technology breakthrough fuels laptops and phones, recharges scientist's 60-year career

How does a scientist fuel his enthusiasm for chemistry after 60 years? By discovering a new energy source, of course.

Scientists build world's first anti-laser

More than 50 years after the invention of the laser, scientists at Yale University have built the world

New material provides 25 percent greater thermoelectric conversion efficiency

Automobiles, military vehicles, even large-scale power generating facilities may someday operate far more efficiently thanks to a new alloy developed at the U.S. Department of Energy

Next-generation electronic devices: conduction, surface states in topological insulator nanoribbons controlled

In recent years, topological insulators have become one of the hottest topics in physics. These new materials act as both insulators and conductors, with their interior preventing the flow of electrical currents while their edges or surfaces allow the movement of a charge. Perhaps most importantly, the surfaces of topological insulators enable the transport of spin-polarized electrons while preventing the