Characterization of 30 documentclass[12pt]{minimal} usepackage{amsmath} usepackage{wasysym} usepackage{amsfonts} usepackage{amssymb} usepackage{amsbsy} usepackage{mathrsfs} usepackage{upgreek} setlength{oddsidemargin}{-69pt} egin{document}$$^{76}$$end{document}76Ge enriched Broad Energy

Characterization of 30 documentclass[12pt]{minimal} usepackage{amsmath} usepackage{wasysym} usepackage{amsfonts} usepackage{amssymb} usepackage{amsbsy} usepackage{mathrsfs} usepackage{upgreek} setlength{oddsidemargin}{-69pt} egin{document}$$^{76}$$end{document}76Ge enriched Broad Energy
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30 documentclass[12pt]{minimal} usepackage{amsmath} usepackage{wasysym} usepackage{amsfonts} usepackage{amssymb} usepackage{amsbsy} usepackage{mathrsfs} usepackage{upgreek} setlength{ 的特征

DOI:
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发表时间:
2019
期刊:
The European Physical Journal C
影响因子:
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通讯作者:
G. Zuzel
G. Zuzel
中科院分区:
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文献类型:
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作者:
M. Agostini;A. Bakalyarov;E. Andreotti;M. Balata;I. Barabanov;L. Baudis;N. Barros;C. Bauer;E. Bellotti;S. Belogurov;G. Benato;A. Bettini;L. Bezrukov;T. Bode;D. Borowicz;V. Brudanin;R. Brugnera;D. Budjáš;A. Caldwell;C. Cattadori;A. Chernogorov;V. D’Andrea;E. Demidova;N. Di Marco;A. Domula;E. Doroshkevich;V. Egorov;R. Falkenstein;K. Freund;A. Gangapshev;A. Garfagnini;C. Gooch;P. Grabmayr;V. Gurentsov;K. Gusev;J. Hakenmüller;A. Hegai;M. Heisel;S. Hemmer;R. Hiller;W. Hofmann;M. Hult;L. Inzhechik;J. J. Csáthy;J. Jochum;M. Junker;V. Kazalov;Y. Kermaïdic;T. Kihm;I. Kirpichnikov;A. Kirsch;A. Kish;A. Klimenko;R. Kneissl;K. Knöpfle;O. Kochetov;V. Kornoukhov;V. Kuzminov;M. Laubenstein;A. Lazzaro;B. Lehnert;Y. Liao;M. Lindner;I. Lippi;A. Lubashevskiy;B. Lubsandorzhiev;G. Lutter;C. Macolino;B. Majorovits;W. Maneschg;G. Marissens;M. Miloradovic;R. Mingazheva;M. Misiaszek;P. Moseev;I. Nemchenok;K. Panas;L. Pandola;K. Pelczar;A. Pullia;C. Ransom;S. Riboldi;N. Rumyantseva;C. Sada;F. Salamida;M. Salathe;C. Schmitt;B. Schneider;S. Schönert;A. Schütz;O. Schulz;B. Schwingenheuer;O. Selivanenko;E. Shevchik;M. Shirchenko;H. Simgen;A. Smolnikov;L. Stanco;L. Vanhoefer;A. Vasenko;A. Veresnikova;K. von Sturm;V. Wagner;A. Wegmann;T. Wester;C. Wiesinger;M. Wójcik;E. Yanovich;I. Zhitnikov;S. Zhukov;D. Zinatulina;A. Zsigmond;K. Zuber;G. Zuzel

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锗探测器阵列(Gerda)是位于意大利Gran Sasso国家实验室的一个低背景实验,用于搜索76documentclass的无中微子双β衰变。{最小} 使用包{数学} 使用包{wasysystem} 使用包{amsfonts} 使用包{amssymb} 使用包{amssy} 使用包{数学} 使用包{上行希腊语} 设置长度{边缘}{-69pt} 开始{文件}$$^{76}$$结束{文件}导入76documentclass[12pt]{最小} 使用包{数学} 使用包{wasysystem} 使用包{amsfonts} 使用包{amssymb} 使用包{amssy} 使用包{数学} 使用包{上行希腊语} 设置长度{边缘}{-69pt} 开始{文件}$$^{76}$$结束{文件}Se+2 -documentclass[12pt]{最小} 使用包{数学} 使用包{wasysystem} 使用包{amsfonts} 使用包{amssymb} 使用包{amssy} 使用包{数学} 使用包{上行希腊语} 设置长度{边缘}{-69pt} 开始{文件}$$^-$$结束{文件}. Gerda的构思分为两个阶段。第二阶段于2015年12月开始,其中包括30个新的76Ge富集探测器。这些是根据宽能锗(BEGe)探测器设计制造的,与以前广泛使用的类型相比,具有更好的背景辨别能力和能量分辨率。在安装之前,新的BEGe探测器被安装在真空低温恒温器中,并在比利时的Hades地下实验室中进行了详细的表征。本文介绍了这些探测器在真空中工作时的性能和总体性能。表征活动不仅为Gerda II期数据收集和分析提供了直接输入,而且还允许研究探测器现象,探测器相关性以及测试脉冲形状模拟代码的准确性。
The GERmanium Detector Array (Gerda) is a low background experiment located at the Laboratori Nazionali del Gran Sasso in Italy, which searches for neutrinoless double-beta decay of 76documentclass[12pt]{minimal} usepackage{amsmath} usepackage{wasysym} usepackage{amsfonts} usepackage{amssymb} usepackage{amsbsy} usepackage{mathrsfs} usepackage{upgreek} setlength{oddsidemargin}{-69pt} egin{document}$$^{76}$$end{document}Ge into 76documentclass[12pt]{minimal} usepackage{amsmath} usepackage{wasysym} usepackage{amsfonts} usepackage{amssymb} usepackage{amsbsy} usepackage{mathrsfs} usepackage{upgreek} setlength{oddsidemargin}{-69pt} egin{document}$$^{76}$$end{document}Se+2e-documentclass[12pt]{minimal} usepackage{amsmath} usepackage{wasysym} usepackage{amsfonts} usepackage{amssymb} usepackage{amsbsy} usepackage{mathrsfs} usepackage{upgreek} setlength{oddsidemargin}{-69pt} egin{document}$$^-$$end{document}. Gerda has been conceived in two phases. Phase II, which started in December 2015, features several novelties including 30 new 76Ge enriched detectors. These were manufactured according to the Broad Energy Germanium (BEGe) detector design that has a better background discrimination capability and energy resolution compared to formerly widely-used types. Prior to their installation, the new BEGe detectors were mounted in vacuum cryostats and characterized in detail in the Hades underground laboratory in Belgium. This paper describes the properties and the overall performance of these detectors during operation in vacuum. The characterization campaign provided not only direct input for Gerda Phase II data collection and analyses, but also allowed to study detector phenomena, detector correlations as well as to test the accuracy of pulse shape simulation codes.