Toshiba’s new algorithms quickly deliver highly accurate solutions to complex problems

Breaks the limitations of classical mechanics by introducing a quasi-quantum effect; expected to accelerate complex problem-solving in finance, pharmaceuticals and logistics

New quantum receiver the first to detect entire radio frequency spectrum

ADELPHI, Md. — A new quantum sensor can analyze the full spectrum of radio frequency and real-world signals, unleashing new potentials for soldier communications, spectrum awareness and electronic warfare. Army researchers built the quantum sensor, which can sample the radio-frequency…

National company acquires exclusive rights to Purdue rare-earth element innovations

American Resources Corp. acquires environmentally safer method developed at Purdue to advance clean energy technologies that require rare-earth elements, a market estimated at about $4 billion annually.

Solving complex physics problems at lightning speed

A calculation so complex that it takes twenty years to complete on a powerful desktop computer can now be done in one hour on a regular laptop. Physicist Andreas Ekström at Chalmers University of Technology, together with international research colleagues,…

Researchers reveal in-situ manipulation of active Au-TiO2 interface

An international joint research team from the Shanghai Advanced Research Institute of the Chinese Academy of Sciences, along with Zhejiang University and the Technical University of Denmark, reported an in-situ strategy to manipulate interfacial structure with atomic precision during catalytic…

From heat to spin to electricity: Understanding spin transport in thermoelectric devices

Scientists shed light on how the magnetic properties of 2D interlayers can enhance spin accumulation effects in thermoelectric heterostructures

National laboratories’ look to the future of light sources with new magnet prototype

With a powerful enough light, you can see things that people once thought would be impossible. Large-scale light source facilities generate that powerful light, and scientists use it to create more durable materials, build more efficient batteries and computers, and…

First direct band gap measurements of wide-gap hydrogen using inelastic X-ray scattering

Utilizing a newly developed state-of-the-art synchrotron technique, a group of scientists led by Dr. Ho-kwang Mao, Director of HPSTAR, conducted the first-ever high-pressure study of the electronic band and gap information of solid hydrogen up to 90 GPa. Their innovative…

Nanodiamonds feel the heat

An international team of researchers created nanodiamond sensors that can act as both heat sources and thermometers, and is using them to measure the thermal conductivity inside living cells, which may lead to new diagnostics tools and cancer therapies

In sight: A paradigm shift in materials characterization

With industry partnership, Lehigh Univ. materials researchers developing novel instrumentation that could outperform synchrotron-based x-ray absorption spectrometry in giving scientists clearer view of elemental composition, chemical bonds at nanoscale

Stretching diamond for next-generation microelectronics

Diamond is the hardest material in nature. But out of many expectations, it also has great potential as an excellent electronic material. A joint research team led by City University of Hong Kong (CityU) has demonstrated for the first time…

Electrons hop to it on twisted molecular wires

Scientists at Osaka University devise a method to improve the conductivity of molecular wires by intentionally adding periodic twists to the conjugated chains, which may lead to sophisticated and more environmentally friendly electronics

Industry collaboration leads to important milestone in the creation of a quantum computer

Quantum computer: One of the obstacles for progress in the quest for a working quantum computer has been that the working devices that go into a quantum computer and perform the actual calculations, the qubits, have hitherto been made by…

Theory describes quantum phenomenon in nanomaterials

Osaka City University scientists have developed mathematical formulas to describe the current and fluctuations of strongly correlated electrons in quantum dots. Their theoretical predictions could soon be tested experimentally.

Experiment takes ‘snapshots’ of light, stops light, uses light to change properties of matter

PITTSBURGH–Light travels at a speed of about 300,000,000 meters per second as light particles, photons, or equivalently as electromagnetic field waves. Experiments led by Hrvoje Petek, an R.K. Mellon professor in the Department of Physics and Astronomy examined ideas surrounding…