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author Consolati G.
Aghion S.
Amsler C.
Ariga A.
Ariga T.
Belov A.
Bonomi G.
Bräunig P.
Bremer J.
Brusa R.S.
Cabaret L.
Caccia M.
Caravita R.
Castelli F.
Cerchiari G.
Chlouba K.
Cialdi S.
Comparat D.
Demetrio A.
Derking H.
Di Noto L.
Doser M.
Dudarev A.
Ereditato A.
Ferragut R.
Fontana A.
Gerber S.
Giammarchi M.
Gligorova A.
Gninenko S.
Haider S.
Hogan S.
Holmestad H.
Huse T.
Jordan E. J.
Kawada J.
Kellerbauer A.
Kimura M.
Krasnicky D.
Lagomarsino V.
Lehner S.
Malbrunot C.
Mariazzi S.
Matveev V.
Mazzotta Z.
Nebbia G.
Nedelec P.
Oberthaler M.
Pacifico N.
Penasa L.
Petracek V.
Pistillo C.
Prelz F.
Prevedelli M.
Ravelli L.
Riccardi C.
Røhne O.M.
Rosenberger S.
Rotondi A.
Sacerdoti M.
Sandaker H.
Santoro R.
Scampoli P.
Simon M.
Spacek M.
Storey J.
Strojek I. M.
Subieta M.
Testera G.
Widmann E.
Yzombard P.
Zavatarelli S.
Zmeskal J.
spellingShingle Consolati G.
Aghion S.
Amsler C.
Ariga A.
Ariga T.
Belov A.
Bonomi G.
Bräunig P.
Bremer J.
Brusa R.S.
Cabaret L.
Caccia M.
Caravita R.
Castelli F.
Cerchiari G.
Chlouba K.
Cialdi S.
Comparat D.
Demetrio A.
Derking H.
Di Noto L.
Doser M.
Dudarev A.
Ereditato A.
Ferragut R.
Fontana A.
Gerber S.
Giammarchi M.
Gligorova A.
Gninenko S.
Haider S.
Hogan S.
Holmestad H.
Huse T.
Jordan E. J.
Kawada J.
Kellerbauer A.
Kimura M.
Krasnicky D.
Lagomarsino V.
Lehner S.
Malbrunot C.
Mariazzi S.
Matveev V.
Mazzotta Z.
Nebbia G.
Nedelec P.
Oberthaler M.
Pacifico N.
Penasa L.
Petracek V.
Pistillo C.
Prelz F.
Prevedelli M.
Ravelli L.
Riccardi C.
Røhne O.M.
Rosenberger S.
Rotondi A.
Sacerdoti M.
Sandaker H.
Santoro R.
Scampoli P.
Simon M.
Spacek M.
Storey J.
Strojek I. M.
Subieta M.
Testera G.
Widmann E.
Yzombard P.
Zavatarelli S.
Zmeskal J.
Experiments with low-energy antimatter
EPJ Web of Conferences
author_facet Consolati G.
Aghion S.
Amsler C.
Ariga A.
Ariga T.
Belov A.
Bonomi G.
Bräunig P.
Bremer J.
Brusa R.S.
Cabaret L.
Caccia M.
Caravita R.
Castelli F.
Cerchiari G.
Chlouba K.
Cialdi S.
Comparat D.
Demetrio A.
Derking H.
Di Noto L.
Doser M.
Dudarev A.
Ereditato A.
Ferragut R.
Fontana A.
Gerber S.
Giammarchi M.
Gligorova A.
Gninenko S.
Haider S.
Hogan S.
Holmestad H.
Huse T.
Jordan E. J.
Kawada J.
Kellerbauer A.
Kimura M.
Krasnicky D.
Lagomarsino V.
Lehner S.
Malbrunot C.
Mariazzi S.
Matveev V.
Mazzotta Z.
Nebbia G.
Nedelec P.
Oberthaler M.
Pacifico N.
Penasa L.
Petracek V.
Pistillo C.
Prelz F.
Prevedelli M.
Ravelli L.
Riccardi C.
Røhne O.M.
Rosenberger S.
Rotondi A.
Sacerdoti M.
Sandaker H.
Santoro R.
Scampoli P.
Simon M.
Spacek M.
Storey J.
Strojek I. M.
Subieta M.
Testera G.
Widmann E.
Yzombard P.
Zavatarelli S.
Zmeskal J.
author_sort Consolati G.
title Experiments with low-energy antimatter
title_short Experiments with low-energy antimatter
title_full Experiments with low-energy antimatter
title_fullStr Experiments with low-energy antimatter
title_full_unstemmed Experiments with low-energy antimatter
title_sort experiments with low-energy antimatter
publisher EDP Sciences
series EPJ Web of Conferences
issn 2100-014X
publishDate 2015-01-01
description Investigations on antimatter allow us to shed light on fundamental issues of contemporary physics. The only antiatom presently available, antihydrogen, is produced making use of the Antiproton Decelerator (AD) facility at CERN. International collaborations currently on the floor (ALPHA, ASACUSA and ATRAP) have succeeded in producing antihydrogen and are now involved in its confinement and manipulation. The AEGIS experiment is currently completing the commissioning of the apparatus which will generate and manipulate antiatoms. The present paper, after a report on the main results achieved with antihydrogen physics, gives an overview of the AEGIS experiment, describes its current status and discusses its first target.
url http://dx.doi.org/10.1051/epjconf/20159601007
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spelling doaj-9ab813da6fcc4f709da9470ca092d60f2021-08-02T06:03:22ZengEDP SciencesEPJ Web of Conferences2100-014X2015-01-01960100710.1051/epjconf/20159601007epjconf_dhf2014_01007Experiments with low-energy antimatterConsolati G.0Aghion S.1Amsler C.2Ariga A.3Ariga T.4Belov A.5Bonomi G.Bräunig P.6Bremer J.7Brusa R.S.Cabaret L.8Caccia M.Caravita R.Castelli F.Cerchiari G.9Chlouba K.10Cialdi S.Comparat D.11Demetrio A.12Derking H.13Di Noto L.Doser M.14Dudarev A.15Ereditato A.16Ferragut R.17Fontana A.18Gerber S.19Giammarchi M.20Gligorova A.21Gninenko S.22Haider S.23Hogan S.24Holmestad H.25Huse T.26Jordan E. J.27Kawada J.28Kellerbauer A.29Kimura M.30Krasnicky D.Lagomarsino V.Lehner S.31Malbrunot C.Mariazzi S.32Matveev V.33Mazzotta Z.Nebbia G.34Nedelec P.35Oberthaler M.36Pacifico N.37Penasa L.Petracek V.38Pistillo C.39Prelz F.40Prevedelli M.41Ravelli L.Riccardi C.Røhne O.M.42Rosenberger S.43Rotondi A.Sacerdoti M.Sandaker H.44Santoro R.Scampoli P.Simon M.45Spacek M.46Storey J.47Strojek I. M.48Subieta M.Testera G.49Widmann E.50Yzombard P.51Zavatarelli S.52Zmeskal J.53Department of Science, University of InsubriaDepartment of Science, University of InsubriaLaboratory for High Energy Physics, Albert Einstein Center for Fundamental Physics, University of BernLaboratory for High Energy Physics, Albert Einstein Center for Fundamental Physics, University of BernLaboratory for High Energy Physics, Albert Einstein Center for Fundamental Physics, University of BernInstitute for Nuclear Research of the Russian Academy of ScienceKirchhoff-Institute for Physics, Heidelberg UniversityPhysics Department, CERNLaboratory Aimé Cotton, CNRS, University of Paris-SudMax Planck Institute for Nuclear PhysicsCzech Technical UniversityLaboratory Aimé Cotton, CNRS, University of Paris-SudKirchhoff-Institute for Physics, Heidelberg UniversityPhysics Department, CERNPhysics Department, CERNPhysics Department, CERNLaboratory for High Energy Physics, Albert Einstein Center for Fundamental Physics, University of BernDepartment of Science, University of InsubriaINFN PaviaPhysics Department, CERNINFN MilanoInstitute of Physics and Technology, University of BergenInstitute for Nuclear Research of the Russian Academy of SciencePhysics Department, CERNUniversity College LondonDepartment of Physics, University of OsloDepartment of Physics, University of OsloMax Planck Institute for Nuclear PhysicsLaboratory for High Energy Physics, Albert Einstein Center for Fundamental Physics, University of BernMax Planck Institute for Nuclear PhysicsLaboratory for High Energy Physics, Albert Einstein Center for Fundamental Physics, University of BernStefan Meyer Institute for Subatomic Physics, Austrian Academy of SciencesStefan Meyer Institute for Subatomic Physics, Austrian Academy of SciencesInstitute for Nuclear Research of the Russian Academy of ScienceINFN PadovaInstitute of Nuclear Physics, CNRS/IN2p3, University of Lyon 1Kirchhoff-Institute for Physics, Heidelberg UniversityInstitute of Physics and Technology, University of BergenCzech Technical UniversityLaboratory for High Energy Physics, Albert Einstein Center for Fundamental Physics, University of BernINFN MilanoUniversity of BolognaDepartment of Physics, University of OsloPhysics Department, CERNDepartment of Physics, University of OsloStefan Meyer Institute for Subatomic Physics, Austrian Academy of SciencesCzech Technical UniversityLaboratory for High Energy Physics, Albert Einstein Center for Fundamental Physics, University of BernCzech Technical UniversityINFN GenovaStefan Meyer Institute for Subatomic Physics, Austrian Academy of SciencesLaboratory Aimé Cotton, CNRS, University of Paris-SudINFN GenovaStefan Meyer Institute for Subatomic Physics, Austrian Academy of SciencesInvestigations on antimatter allow us to shed light on fundamental issues of contemporary physics. The only antiatom presently available, antihydrogen, is produced making use of the Antiproton Decelerator (AD) facility at CERN. International collaborations currently on the floor (ALPHA, ASACUSA and ATRAP) have succeeded in producing antihydrogen and are now involved in its confinement and manipulation. The AEGIS experiment is currently completing the commissioning of the apparatus which will generate and manipulate antiatoms. The present paper, after a report on the main results achieved with antihydrogen physics, gives an overview of the AEGIS experiment, describes its current status and discusses its first target.http://dx.doi.org/10.1051/epjconf/20159601007