Usually heat is a nuisance for quantum effects. It destroys fragile connections, like a crowd where everyone pushes in their own direction. But researchers have shown that in diamond defects, heating can instead bind particles into a single quantum union. In diamond, tiny flaws sometimes appear in place of a carbon atom — in the carbon lattice 'nitrogen-vacancy' pairs form. These defects behave like miniature magnets and glow faintly, allowing them to be tracked via spectroscopy. Normally heat makes them jitter randomly, but if you disrupt the energy exchange balance, the environment starts acting like a crowd with uneven rules. Several competing flows of entropy arise, as if some people always turn left, creating a steady current. If the environment also has long-range connections (like spin waves in a magnetized material), the defects synchronize on their own, without external control. Entanglement is born — a state where the properties of two objects are inextricably linked, like the movements of two dancers following the same rhythm.

This method doesn't require complex lasers or ultra-low temperatures. Entanglement emerges during energy dissipation, and under quite ordinary conditions — for example, at liquid nitrogen temperatures or even higher. This opens the way to simple quantum devices, where order arises from disorder.