Before now, exploring quantum billiards, the chaotic dance of waves within complex shapes, demanded bespoke code or fragmented tools. QuantumBilliards. jl unifies these efforts with an extensible Julia library capable of building any billiard geometry, exploiting its symmetries to compute spectra and eigenstates efficiently.

Before now, exploring quantum billiards, the chaotic dance of waves within complex shapes, demanded bespoke code or fragmented tools. QuantumBilliards. jl unifies these efforts with an extensible Julia library capable of building any billiard geometry, exploiting its symmetries to compute spectra and eigenstates efficiently.

In a groundbreaking study, scientists developed new ways to control atom collisions using optical tweezers, offering insights that could advance quantum computing and molecular science. By manipulating...