Towards a test of the weak equivalence principle of gravity using anti-hydrogen at CERN

D. Banerjee, F. Biraben, M. Charlton,P. Cladé, P. Comini,P. Crivelli,O. Dalkarov,P. Debu,L. Dodd,A. Douillet,G. Dufour, P. Dupré,S. Eriksson, P. Froelich, P. Grandemange, S. Guellati,R. Guérout,J. M. Heinrich,P.-A. Hervieux, L. Hilico, A. Husson,P. Indelicato,S. Jonsell,J.-P. Karr,K. Khabarova,S.K. Kim, Y. Kim,N. Kolachevsky,N. Kuroda,A. Lambrecht,A. M. M. Leite,L. Liszkay, P. Lotrus,D. Lunney,N. Madsen,G. Manfredi, B. Mansouli,Y. Matsuda, A. Mohri, G. Mornacchi,V. Nesvizhevsky,F. Nez, P. Pérez, C. Regenfus,J.-M. Rey,J.-M. Reymond,J-Y Roussé,S. Reynaud, A. Rubbia,Y. Sacquin,F. Schmidt-Kaler, N. Sillitoe,M. Staszczak, H. Torii,J. M. Heinrich, B. Vallage,M. Valdes,D. P. van der Werf, A. Voronin,J. Walz,S. Wolf,S. Wronka,Y. Yamazaki

2016 CONFERENCE ON PRECISION ELECTROMAGNETIC MEASUREMENTS (CPEM 2016)（2016）

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摘要

The aim of the GBAR (Gravitational Behavior of Antimatter at Rest) experiment is to measure the free fall acceleration of an antihydrogen atom, in the terrestrial gravitational field at CERN and therefore test the Weak Equivalence Principle with antimatter. The aim is to measure the local gravity with a 1% uncertainty which can be reduced to few parts of 10 ^-3 .

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关键词

Gravitation, Antimatter

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