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Researchers produce stable laser light that twists like a whirlwind in the lowest energy state using self-organizing torons and a synthetic magnetic field.

Stable plasma waves enable free-electron laser amplification at extreme ultraviolet wavelengths in just a few millimeters of acceleration.

Scientists at EPFL have developed a novel method to transmit signals using magnetic spin waves without requiring extreme cold, effectively paving the way for more efficient computers and artificial intelligence.

Scientists have designed photonic time crystals that exponentially amplify visible light, with potential applications to nanosensing.

Researchers shrink antennas 10,000 times using laser-trapped nanoparticles for underwater, underground, and space communications.

MIT researchers have built a quantum processor for simulations that reproduce the behavior of electrons in materials.

Research in magnetic material could lead to spintronic devices for faster and more energy-efficient electronics.

How special crystals could lead to greener computing by controlling magnetism with electric fields for sustainable technology solutions.

Machine learning framework simulates large-scale material responses to electric fields, advancing materials design for energy and technology applications.

A self-powered artificial synapse recognizes colors like the human eye, enabling efficient visual processing for devices like smartphones and self-driving cars.