Atom Interferometer Gyroscope with Spin-Dependent Phase Shifts Induced by Light near a Tune-Out Wavelength

Abstract

Tune-out wavelengths measured with an atom interferometer are sensitive to laboratory rotation rates because of the Sagnac effect, vector polarizability, and dispersion compensation. We observed shifts in measured tune-out wavelengths as large as 213 pm with a potassium atom beam interferometer, and we explore how these shifts can be used for an atom interferometer gyroscope.

References in corpus (7)

• Atom Interferometers
• 6-axis inertial sensor using cold-atom interferometry
• Species-specific optical lattices
• The Sagnac effect: 20 years of development in matter-wave interferometry
• Precision Measurement of Transition Matrix Elements via Light Shift Cancellation
• Polarizability measurements in a molecule near-field interferometer
• Dispersion compensation in atom interferometry by a Sagnac phase

Cited by in corpus (8)

• Measurements of the Ground-State Polarizabilities of Cs, Rb, and K using Atom Interferometry
• Precision Measurement of the 87-Rb Tune-Out Wavelength in the Hyperfine Ground State F=1 at 790 nm
• Multiqubit matter-wave interferometry under decoherence and the Heisenberg scaling recovery
• Noisy quantum gyroscope
• Precise many-body calculations and hyperfine interaction effect on dynamic polarizabilities at the low-lying energy levels of Y${}^{2+}$
• Spin-sensitive atom mirror via spin-orbit interaction
• Measurement of the 87Rb D-line vector tune-out wavelength
• Experimental study of tune-out wavelengths for spin-dependent optical lattice in ${}^{87}$Rb Bose-Einstein condensation