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The 35 pages that link to Laser cooling, each with the reason it gives.

• Absolute zeroRelated: It cools dilute gases to temperatures extremely close to absolute zero.

• Atomic spectrumRelated: Precise atomic transition frequencies allow lasers to selectively slow atoms.

• Hyperfine structureRelated: Experiments often exploit resolved hyperfine transitions to cool and trap atoms.

• Atom interferometryRelated: Cold atoms have narrow velocity distributions that help preserve and resolve interference.

• Absolute temperatureRelated: It approaches absolute zero while illustrating the limits of practical cooling.

• Optical atomic clockRelated: Reducing motion narrows Doppler shifts that would blur the clock transition.

• RubidiumRelated: Rubidium atoms are commonly cooled and trapped for precision experiments.

• Atomic physicsRelated: It prepares slow, well-controlled atoms for precise experiments.

• Ultracold atomsRelated: Scattered photons slow atoms before they reach the lowest temperatures.

• Photon momentumRelated: Repeated photon absorption and emission change atomic momentum and reduce motion.

• Rydberg atomRelated: Cooling makes atomic samples easier to trap and control during Rydberg experiments.

• YtterbiumRelated: Laser cooling prepares ytterbium atoms for precision spectroscopy and optical clocks.

• Solid-state laserRelated: Frequency-stable solid-state lasers supply light for cooling and trapping atoms.

• Steven ChuRelated: Chu helped develop methods that slow atoms through repeated exchanges of momentum with laser photons.

• Carl WiemanRelated: Wieman’s experiments used laser cooling to prepare atoms for further cooling.

• Gas laserRelated: Gas lasers helped establish early laser-cooling methods, though modern systems commonly use other laser types.

• Nikolay BasovRelated: The laser technology Basov helped establish later enabled precise control of atomic motion.

• Alfred KastlerRelated: Kastler’s work on light-driven atomic states helped prepare the conceptual ground for manipulating atoms with light.

• Dye laserRelated: Tunable dye lasers supplied wavelengths for early cooling experiments on selected atomic transitions.

• John L. HallRelated: Laser cooling helped create controlled atomic samples for precision spectroscopy.

• Wolfgang PaulRelated: Cooling trapped ions enables longer, more precise measurements of their properties.

• Arthur Leonard SchawlowRelated: Precision laser techniques made controlled interactions with atoms increasingly practical.

• Atomic and molecular processes in external fieldsRelated: Electric and magnetic fields can control the states and trajectories used in cooling.

• Atomic systemRelated: Cooling produces slow, controllable atomic samples for experiments.

• Cold atoms and matter wavesRelated: Repeated photon absorption and emission slow atoms before matter-wave experiments.

• David J. WinelandRelated: Cooling trapped ions prepared them for precise state manipulation and measurement.

• Eric Allin CornellRelated: Laser cooling supplied cold atoms for the later evaporative-cooling stage.