Atomic Clocks, Quantum Gases, and Precision Spectroscopy
This community investigates the quantum behavior of atoms, ions, and molecules to build ultra-precise time standards, study exotic states of matter, and develop quantum information systems.
The work centers on laser cooling, trapping, and spectroscopy of atoms and ions, with a heavy focus on rubidium, strontium, and helium. Recurring techniques include magneto-optical traps, optical lattices, and electromagnetically induced transparency. Key applications include atomic and lattice clocks, quantum memory, and the study of Bose-Einstein condensates and superfluid helium. The research also encompasses Rydberg atoms, atomic vapor cells, and the development of atomic magnetometers for sensing.
The community is most prominent in rubidium research, representing 20.7% of all tracked rubidium papers, and in helium research, accounting for 14.1% of helium papers. It also contributes 3.1% of argon research.
There are 47,633 papers in this community, primarily published in Physical Review A, Physical Review Letters, and The Journal of Chemical Physics.
Recent work includes trapping single atoms in metasurface optical tweezer arrays, laser-based spectroscopy of thorium-229, and parallelized quantum networking with ytterbium atom arrays.