
ALT A graph of trapped atoms’ optical depth over 200 milliseconds. Red data points showing atoms loaded using the RPGC-molasses rise and level off near 20 during conventional cooling. When gray-molasses cooling begins at 50 milliseconds, blue points climb steeply and level off near 120. A small inset graph shows the effect peaking near zero when two lasers are tuned for this cooling method.

ALT A grid of gray and white diamonds, with the gray diamonds featuring white arrows in the center that point in various directions. In the center of the grid is a red and a blue laser beam that meet and form a V shape. Around these lasers, the squares in the grid are tinted yellow and the arrows in the center of the gray diamond are colored black and all point to the right.

ALT A 3D illustration of an optical setup on a white surface. A red laser beam passes through a lens and two transparent plates, turns orange after a copper-colored block, and continues past a black cube and a glass prism. A curved mirror reflects the orange beam onto a thin, light-blue jet surrounded by small blue spheres representing xenon atoms. A wavy blue line, representing an emitted electron, curves from the jet down to a round black detector.

ALT Illustration of a hybrid quantum computer. On the left, a wavy cyan line representing a boson and a yellow sphere representing a fermion meet at a central point and scatter apart, with arrows marking their path. On the upper right is a large circuit diagram representing the large numbers of qubits and gates. Below it, a much smaller circuit links one thick cyan boson line and one yellow fermion line with a few gates, representing the cavity modes.

ALT An illustration of water molecules — represented by red and white spheres — constrained between two parallel surfaces — represented by gray spheres — that are a few nanometers apart. In the center is a row of four white spheres with white arrows between them pointing right, representing charge transport.

ALT Two scientific figures side-by-side. Left: Labeled “Electron gas,” the figure shows charged particles moving along straight paths when no magnetic field is present, and moving along arched trajectories when a magnetic field is applied. Right: Labeled “Molecular gas,” shows neutral particles traveling in straight lines between inter-particle collisions, where an applied magnetic field alters scattering angles and collision probabilities rather than bending individual trajectories.














