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Experiment shows light can mimic the quantum Hall effect
Physicists have forced light to behave like electrons trapped in a magnetic field, reproducing the quantum Hall effect with photons for the first time. The experiment, carried out on an optical fiber ...
Researchers from the Department of Physics and the University Institute of Materials at the University of Alicante (UA) and ...
At temperatures approaching absolute zero, most magnetic materials settle into tidy patterns. Their tiny magnetic moments, or ...
In most conventional semiconductors, thermal conductivity decreases as temperature rises because heat-carrying lattice vibrations—called phonons—scatter more frequently.
Interesting Engineering on MSN
Palm-sized magnet rivals world’s most powerful coils for first time, hits 42 tesla
Researchers at ETH Zürich have built the most powerful miniature superconducting magnets ever demonstrated, ...
A team of physicists has experimentally confirmed a long-predicted sequence of exotic magnetic phases in an atomically thin ...
Interesting Engineering on MSN
1,000x faster computers: ‘Invisible magnets’ could boost speed using light pulses
Researchers have potentially discovered a way to make computers process data about 1,000 times ...
Quantum mechanical effects are known to be easily disrupted by disturbances from the surrounding environment, commonly referred to as noise. To minimize these disturbances, physicists often study ...
A new spectroscopy method explores how electrons inside quantum materials respond to magnetism, uncovering hidden electronic states linked to superconductivity.
To ensure seamless integration, CERN has built, in an above-ground test hall, a full-scale test stand called the Inner Triplet String (IT String), which mirrors the underground configuration ( CERN ...
Researchers in China have developed magnetically controlled microrobots made from diatoms for the treatment of glioblastoma using photodynamic therapy. These microrobots exhibit excellent magnetic ...
Scientists at the University of Tokyo have captured something never seen before: a frame-by-frame view of how electron spins ...
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