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AEDGE: Atomic Experiment for Dark Matter and Gravity Exploration in Space
EPJ Quantum Technology ( IF 5.3 ) Pub Date : 2020-03-04 , DOI: 10.1140/epjqt/s40507-020-0080-0 Yousef Abou El-Neaj , Cristiano Alpigiani , Sana Amairi-Pyka , Henrique Araújo , Antun Balaž , Angelo Bassi , Lars Bathe-Peters , Baptiste Battelier , Aleksandar Belić , Elliot Bentine , José Bernabeu , Andrea Bertoldi , Robert Bingham , Diego Blas , Vasiliki Bolpasi , Kai Bongs , Sougato Bose , Philippe Bouyer , Themis Bowcock , William Bowden , Oliver Buchmueller , Clare Burrage , Xavier Calmet , Benjamin Canuel , Laurentiu-Ioan Caramete , Andrew Carroll , Giancarlo Cella , Vassilis Charmandaris , Swapan Chattopadhyay , Xuzong Chen , Maria Luisa Chiofalo , Jonathon Coleman , Joseph Cotter , Yanou Cui , Andrei Derevianko , Albert De Roeck , Goran S. Djordjevic , Peter Dornan , Michael Doser , Ioannis Drougkakis , Jacob Dunningham , Ioana Dutan , Sajan Easo , Gedminas Elertas , John Ellis , Mai El Sawy , Farida Fassi , Daniel Felea , Chen-Hao Feng , Robert Flack , Chris Foot , Ivette Fuentes , Naceur Gaaloul , Alexandre Gauguet , Remi Geiger , Valerie Gibson , Gian Giudice , Jon Goldwin , Oleg Grachov , Peter W. Graham , Dario Grasso , Maurits van der Grinten , Mustafa Gündogan , Martin G. Haehnelt , Tiffany Harte , Aurélien Hees , Richard Hobson , Jason Hogan , Bodil Holst , Michael Holynski , Mark Kasevich , Bradley J. Kavanagh , Wolf von Klitzing , Tim Kovachy , Benjamin Krikler , Markus Krutzik , Marek Lewicki , Yu-Hung Lien , Miaoyuan Liu , Giuseppe Gaetano Luciano , Alain Magnon , Mohammed Attia Mahmoud , Sarah Malik , Christopher McCabe , Jeremiah Mitchell , Julia Pahl , Debapriya Pal , Saurabh Pandey , Dimitris Papazoglou , Mauro Paternostro , Bjoern Penning , Achim Peters , Marco Prevedelli , Vishnupriya Puthiya-Veettil , John Quenby , Ernst Rasel , Sean Ravenhall , Jack Ringwood , Albert Roura , Dylan Sabulsky , Muhammed Sameed , Ben Sauer , Stefan Alaric Schäffer , Stephan Schiller , Vladimir Schkolnik , Dennis Schlippert , Christian Schubert , Haifa Rejeb Sfar , Armin Shayeghi , Ian Shipsey , Carla Signorini , Yeshpal Singh , Marcelle Soares-Santos , Fiodor Sorrentino , Timothy Sumner , Konstantinos Tassis , Silvia Tentindo , Guglielmo Maria Tino , Jonathan N. Tinsley , James Unwin , Tristan Valenzuela , Georgios Vasilakis , Ville Vaskonen , Christian Vogt , Alex Webber-Date , André Wenzlawski , Patrick Windpassinger , Marian Woltmann , Efe Yazgan , Ming-Sheng Zhan , Xinhao Zou , Jure Zupan
EPJ Quantum Technology ( IF 5.3 ) Pub Date : 2020-03-04 , DOI: 10.1140/epjqt/s40507-020-0080-0 Yousef Abou El-Neaj , Cristiano Alpigiani , Sana Amairi-Pyka , Henrique Araújo , Antun Balaž , Angelo Bassi , Lars Bathe-Peters , Baptiste Battelier , Aleksandar Belić , Elliot Bentine , José Bernabeu , Andrea Bertoldi , Robert Bingham , Diego Blas , Vasiliki Bolpasi , Kai Bongs , Sougato Bose , Philippe Bouyer , Themis Bowcock , William Bowden , Oliver Buchmueller , Clare Burrage , Xavier Calmet , Benjamin Canuel , Laurentiu-Ioan Caramete , Andrew Carroll , Giancarlo Cella , Vassilis Charmandaris , Swapan Chattopadhyay , Xuzong Chen , Maria Luisa Chiofalo , Jonathon Coleman , Joseph Cotter , Yanou Cui , Andrei Derevianko , Albert De Roeck , Goran S. Djordjevic , Peter Dornan , Michael Doser , Ioannis Drougkakis , Jacob Dunningham , Ioana Dutan , Sajan Easo , Gedminas Elertas , John Ellis , Mai El Sawy , Farida Fassi , Daniel Felea , Chen-Hao Feng , Robert Flack , Chris Foot , Ivette Fuentes , Naceur Gaaloul , Alexandre Gauguet , Remi Geiger , Valerie Gibson , Gian Giudice , Jon Goldwin , Oleg Grachov , Peter W. Graham , Dario Grasso , Maurits van der Grinten , Mustafa Gündogan , Martin G. Haehnelt , Tiffany Harte , Aurélien Hees , Richard Hobson , Jason Hogan , Bodil Holst , Michael Holynski , Mark Kasevich , Bradley J. Kavanagh , Wolf von Klitzing , Tim Kovachy , Benjamin Krikler , Markus Krutzik , Marek Lewicki , Yu-Hung Lien , Miaoyuan Liu , Giuseppe Gaetano Luciano , Alain Magnon , Mohammed Attia Mahmoud , Sarah Malik , Christopher McCabe , Jeremiah Mitchell , Julia Pahl , Debapriya Pal , Saurabh Pandey , Dimitris Papazoglou , Mauro Paternostro , Bjoern Penning , Achim Peters , Marco Prevedelli , Vishnupriya Puthiya-Veettil , John Quenby , Ernst Rasel , Sean Ravenhall , Jack Ringwood , Albert Roura , Dylan Sabulsky , Muhammed Sameed , Ben Sauer , Stefan Alaric Schäffer , Stephan Schiller , Vladimir Schkolnik , Dennis Schlippert , Christian Schubert , Haifa Rejeb Sfar , Armin Shayeghi , Ian Shipsey , Carla Signorini , Yeshpal Singh , Marcelle Soares-Santos , Fiodor Sorrentino , Timothy Sumner , Konstantinos Tassis , Silvia Tentindo , Guglielmo Maria Tino , Jonathan N. Tinsley , James Unwin , Tristan Valenzuela , Georgios Vasilakis , Ville Vaskonen , Christian Vogt , Alex Webber-Date , André Wenzlawski , Patrick Windpassinger , Marian Woltmann , Efe Yazgan , Ming-Sheng Zhan , Xinhao Zou , Jure Zupan
We propose in this White Paper a concept for a space experiment using cold atoms to search for ultra-light dark matter, and to detect gravitational waves in the frequency range between the most sensitive ranges of LISA and the terrestrial LIGO/Virgo/KAGRA/INDIGO experiments. This interdisciplinary experiment, called Atomic Experiment for Dark Matter and Gravity Exploration (AEDGE), will also complement other planned searches for dark matter, and exploit synergies with other gravitational wave detectors. We give examples of the extended range of sensitivity to ultra-light dark matter offered by AEDGE, and how its gravitational-wave measurements could explore the assembly of super-massive black holes, first-order phase transitions in the early universe and cosmic strings. AEDGE will be based upon technologies now being developed for terrestrial experiments using cold atoms, and will benefit from the space experience obtained with, e.g., LISA and cold atom experiments in microgravity. KCL-PH-TH/2019-65, CERN-TH-2019-126
中文翻译：
AEDGE：太空中暗物质和重力探索的原子实验
我们在本白皮书中提出了一个空间实验的概念，该实验使用冷原子搜索超轻暗物质，并检测LISA最敏感范围与地面LIGO / Virgo / KAGRA / INDIGO之间的频率范围内的引力波实验。这个跨学科的实验称为暗物质和重力探索原子实验（AEDGE），还将补充其他计划的暗物质搜索，并利用与其他重力波探测器的协同作用。我们举例说明了AEDGE提供的对超轻暗物质的扩展灵敏度范围，以及它的引力波测量如何探索超大质量黑洞的组装，早期宇宙中的一阶相变和宇宙弦。AEDGE将基于目前正在开发的用于使用冷原子进行地面实验的技术，并将受益于LISA和微重力冷原子实验所获得的太空经验。KCL-PH-TH / 2019-65，CERN-TH-2019-126
更新日期：2020-03-04
中文翻译：
AEDGE：太空中暗物质和重力探索的原子实验
我们在本白皮书中提出了一个空间实验的概念，该实验使用冷原子搜索超轻暗物质，并检测LISA最敏感范围与地面LIGO / Virgo / KAGRA / INDIGO之间的频率范围内的引力波实验。这个跨学科的实验称为暗物质和重力探索原子实验（AEDGE），还将补充其他计划的暗物质搜索，并利用与其他重力波探测器的协同作用。我们举例说明了AEDGE提供的对超轻暗物质的扩展灵敏度范围，以及它的引力波测量如何探索超大质量黑洞的组装，早期宇宙中的一阶相变和宇宙弦。AEDGE将基于目前正在开发的用于使用冷原子进行地面实验的技术，并将受益于LISA和微重力冷原子实验所获得的太空经验。KCL-PH-TH / 2019-65，CERN-TH-2019-126
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