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Atom Interferometry and Inertial Sensors

Christian Bordé, Carlos L. Garrido Alzar, Rémi Geiger, Arnaud Landragin, Sébastien Merlet, Franck Pereira dos Santos, Xavier Alauze, Matteo Altorio, Romain Caldani, Meng-Zi Huang, Romain Karcher, Mehdi Langlois, Théo Laudat, Jean-Marc Martin, N. Mielec, Denis Savoie, Murtaza Ali-Khan, Alexis Bonnin, Almazbek Imanaliev, Tomaso Mazzoni, Sapam Ranjita Chanu, Azer Trimeche, Thomas Chantrait

Published Sep 14, 2017• 0 citations
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This series of 2 lecture will present the recent developments in the research concerning Matter-waves, fro the development of atom interferometers and inertial sensors to the simulation of quantum transport. In this first lecture, I present the current research in atom interferometry, from the development of atom inertial sensors to the future construction of a matter-wave gravitation antenna.

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Cold Atom Sensors in Space Applications: A Global Scenario

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In recent years, quantum technology has attracted attention in inertial navigation, especially due to its extreme sensitivity to inertial forces and strong immunity to drifts, which plague conventional sensors. There are multiple groups around the world working on cold atom interferometry aiming to develop high sensitive inertial sensors for very high accuracy autonomous navigation. Recent advancements in micro-fabrication technologies have helped in development of robust and miniaturized atom interferometry based high performance inertial systems. These, in future, will pave way for autonomous satellite inertial navigation sensors based on cold atoms. Here we discuss the achievements towards realizing cold atom inertial sensors and their indomitable role as inertial sensors for future satellites. A detailed survey on the initiatives taken by different space agencies, their achievements and their plans to explore its potential in space are also discussed.

•Apr 7, 2021•0 citations
Developments in atom interferometry have led to atomic inertial sensors with extremely high sensitivity. Their performances are for the moment limited by the ground vibrations, the impact of which is exacerbated by the sequential operation, resulting in aliasing and dead time. We discuss several experiments performed at LNE-SYRTE in order to reduce these problems and achieve the intrinsic limit of atomic inertial sensors. These techniques have resulted in transportable and high-performance instruments that participate in gravity measurements, and pave the way to applications in inertial navigation.
In recent years, quantum technology has attracted attention in inertial navigation, especially due to its extreme sensitivity to inertial forces and strong immunity to drifts, which plague conventional sensors. There are multiple groups around the world working on cold atom interferometry aiming to develop high sensitive inertial sensors for very high accuracy autonomous navigation. Recent advancements in micro-fabrication technologies have helped in development of robust and miniaturized atom interferometry based high performance inertial systems. These, in future, will pave way for autonomous satellite inertial navigation sensors based on cold atoms. Here we discuss the achievements towards realizing cold atom inertial sensors and their indomitable role as inertial sensors for future satellites. A detailed survey on the initiatives taken by different space agencies, their achievements and their plans to explore its potential in space are also discussed.