Lightning storms are some of the most spectacular, wild, and dramatic events our world has to offer – but the effects are not just directed towards Earth's surface. According to new research, ...
Physicists have studied a rare molecule to look at how magnetism is distributed within a radioactive nucleus for the first time. The rules of nature don’t, generally speaking, change. If you toss a ...
We describe electricity as a flow, but that’s not what happens in a typical wire. Physicists have begun to induce electrons to act like fluids, an effort that could illuminate new ways of thinking ...
Our planet’s surface evolves continuously by a complex interplay of climate, biological processes, and tectonic activity. Rapid population growth and climate change are modifying our landscapes, ...
Researchers in Australia have successfully created ‘quantum entangled states’ between two distant atoms in silicon. Engineers from the University of New South Wales were able to create the entangled ...
Scientists found a soil microbe that both releases and absorbs electricity, pointing to new renewable energy technologies.
An MIT research team has observed a previously unseen form of magnetism, one that sits outside the familiar categories of ferromagnets and antiferromagnets. The discovery, termed p-wave magnetism, ...
In some quantum materials, which are materials governed by quantum mechanical effects, interactions between charged particles (i.e., electrons) can prompt the creation of quasiparticles called anyons, ...
(a) Ordinary electrons without wave shaping have a uniform wave pattern when they travel. In simulations, the electrons collide with the atoms in graphene (red spheres represent graphene atoms and ...
One day, powerful particle accelerators might fit in your pocket. Two teams of physicists have built tiny structures that both accelerate electrons and keep them confined in a manageable beam, instead ...
The new work is an effort to make sense of a discovery that was reported earlier this year by a different group of physicists at MIT, led by Assistant Professor Long Ju (Nature, "Fractional quantum ...
Ju discovered that when he sent an electric current through the pentalayer structure, the electrons seemed to pass through as fractions of their total charge, even in the absence of a magnetic field.