Scientists have found a way to analyse micron-thick layers of ice by atom probe tomography (APT) gaining insights into its microstructure and chemical composition.
Scientists have found a way to analyse micron-thick layers of ice by atom probe tomography (APT) gaining insights into its microstructure and chemical composition.
Researchers have revealed a breakthrough method that could lead to autonomous robotic control and therefore precise fine tuning of the 'twist' between atom-thin 2D materials layers stacked in a superlattice structure - a pioneering device that could help transform technology and achieve superconductive electronics.
The Magnus effect describes the fact that spinning objects tend to move along curved paths. New research shows that the same effect occurs to atoms moving through light - and that this effect has practical consequences.
Researchers have overcome a major design challenge on the path to controlling the dimensions of so-called DNA nanobots - structures that assemble themselves from DNA components.
A new tool that uses light to map out the electronic structures of crystals could reveal the capabilities of emerging quantum materials and pave the way for advanced energy technologies and quantum computers.
The Unruh-effect connects quantum theory and relativity. Until now, it could not be measured. A new idea could change this - in a completely different way than ever before.
Researchers demonstrate spin detection using a spin filter to separate spin orientation according to their energies. Ultra-fast, ultra-low energy spintronic devices are an exciting, beyond-CMOS technology.
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Scientists have found a way to analyse micron-thick layers of ice by atom probe tomography (APT) gaining insights into its microstructure and chemical composition.
Researchers have revealed a breakthrough method that could lead to autonomous robotic control and therefore precise fine tuning of the 'twist' between atom-thin 2D materials layers stacked in a superlattice structure - a pioneering device that could help transform technology and achieve superconductive electronics.
The Magnus effect describes the fact that spinning objects tend to move along curved paths. New research shows that the same effect occurs to atoms moving through light - and that this effect has practical consequences.
Researchers have overcome a major design challenge on the path to controlling the dimensions of so-called DNA nanobots - structures that assemble themselves from DNA components.
These 3D printed circuits are self-healing, re-writable, and energy-harvesting, thanks to liquid metal.
A new tool that uses light to map out the electronic structures of crystals could reveal the capabilities of emerging quantum materials and pave the way for advanced energy technologies and quantum computers.
The Unruh-effect connects quantum theory and relativity. Until now, it could not be measured. A new idea could change this - in a completely different way than ever before.
That carbon nanotubes fluoresce is no longer a surprise. Finding a second level of fluorescence is surprising and potentially useful.
Researchers demonstrate spin detection using a spin filter to separate spin orientation according to their energies. Ultra-fast, ultra-low energy spintronic devices are an exciting, beyond-CMOS technology.