Precision Atom Interferometry
Sheng-wei Chiow, Susannah Dickerson, Jason M. Hogan, David Johnson, Tim Kovachy, Alex Sugarbaker, Mark A. Kasevich
Abstract
Sheng-wei Chiow, Susannah Dickerson, Jason M. Hogan, David Johnson, Tim Kovachy, Alex Sugarbaker, Mark A. Kasevich
Abstract
While the current generation of atom interferometric force sensors perform at levels which compete favorably with the existing state-of-the-art, the full potential of these sensors has yet to be realized. Advances in the quality of the atom optics used to manipulate atomic de Broglie waves, the brightness of the atomic sources, and attaining full control over the quantum many-body wavefunction of the ensemble of interfering particles all promise to bring the performance levels of these sensors to levels of precision which may have dramatic future scientific and technological impact.
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While the current generation of atom interferometric force sensors perform at levels which compete favorably with the existing state-of-the-art, the full potential of these sensors has yet to be realized. Advances in the quality of the atom optics used to manipulate atomic de Broglie waves, the brightness of the atomic sources, and attaining full control over the quantum many-body wavefunction of the ensemble of interfering particles all promise to bring the performance levels of these sensors to levels of precision which may have dramatic future scientific and technological impact.
Key concepts: Matter wave, Atom interferometer, Interferometry, Atom optics, Atom (system on chip), Physics, Brightness, Quantum