
How classical waves push quantum light into thermal balance
Numerical models show that strong classical light waves can guide tiny quantum packets of light toward thermal balance.
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Numerical models show that strong classical light waves can guide tiny quantum packets of light toward thermal balance.

By crushing raw elements under intense pressure, scientists created a new cobalt compound that organises its electron spins into a nanoscale checkerboard wave.

Physicists have developed an optical method that uses lattice sound waves and quantum interference to detect normally invisible dark excitons across semiconductor quantum dots.

Killer electrons can form beyond Earth's radiation belts during nightside plasma surges, but an invisible magnetic wall stops them from pushing into the inner space zone.

A modelling study shows that as quantum particles entangle, their shared connections naturally dilute hardware errors without needing complex correction codes.

Physicists have shown that polariton waveguides can direct spin currents across 92 micrometres at room temperature by tapping into dark excitons.

Researchers built an artificial intelligence model guided by geophysical rules that predicts cyclone tracks and wind strengths more accurately than standard machine learning baselines.

By routing light alongside microwaves over a folded 36-centimetre track on a small chip, researchers built an efficient, cavity-free optical frequency comb with over 550 sharp colour lines.

A review proposes that our universe contracted and bounced into expansion rather than starting from an infinite point. This model lets scientists test quantum gravity using telescopes and gravitational-wave detectors.

Scientists have shown that tiny electron spins trapped inside a diamond can exert real forces, driving the movement of a floating object weighing over 100 milligrams.