LEFEVRE, G.; CONDON, G.; RIOU, I.; CHICHET, L.; ESSAYEH, M.; RABAULT, M.; ANTONI-MICOLLIER, L.; MIELEC, N.; HOLLEVILLE, D.; AMAND, L.; GEIGER, R.; LANDRAGIN, A.; PREVEDELLI, M.; BARRETT, B.; BATTELIER, B.; BERTOLDI, A.; CANUEL, B.; BOUYER, P.

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LEFEVRE, G.
Laboratoire Photonique, Numérique et Nanosciences [LP2N]

CONDON, G.
Laboratoire Photonique, Numérique et Nanosciences [LP2N]

RIOU, I.
Laboratoire Photonique, Numérique et Nanosciences [LP2N]

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Communication dans un congrès avec actes

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52nd Rencontres de Moriond on Gravitation, 2017-03-25, La Thuile. 2017p. 105-115

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We present two projects aiming to probe key aspects of the theory of General Relativity with high-precision quantum sensors. These projects use cold-atom interferometry with the aim of measuring gravitational waves and testing the equivalence principle. To detect gravitational waves, a large multi-sensor demonstrator is currently under construction that will exploit correlations between three atom interferometers spread along a 200 m optical cavity. Similarly, a test of the weak equivalence principle is currently underway using a compact and mobile dual-species interferometer, which will serve as a prototype for future high-precision tests onboard an orbiting satellite. We present recent results and improvements related to both projects.< Leer menos

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atom: interferometer

cavity: optical

gravitational radiation

gravitational radiation detector

equivalence principle

general relativity

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Studies of general relativity with quantum sensors

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