Cargando…

Different versions of Cryogenic Current Comparators with magnetic core for beam current measurements

For more than 20 years Cryogenic Current Comparators (CCC) are used to measure the current of charged particle beams with low intensity (nA-range). The device was first established at GSI in Darmstadt and was improved over the past two decades by the cooperation of institutes in Jena, GSI and CERN....

Descripción completa

Detalles Bibliográficos
Autores principales: Golm, Jessica, De Gersem, Herbert, Fernandes, Miguel, Haider, David, Kurian, Febin, Marsic, Nicolas, Müller, Wolfgang, Neubert, Ralf, Schmelz, Matthias, Schmidl, Frank, Schwickert, Marcus, Seidel, Paul, Sieber, Thomas, Stöhlker, Thomas, Stolz, Ronny, Tan, Jocelyn, Tympel, Volker, Welsch, Carsten, Zakosarenko, Vyacheslav
Lenguaje:eng
Publicado: 2019
Materias:
Acceso en línea:https://dx.doi.org/10.18429/JACoW-IPAC2019-THYYPLS2
http://cds.cern.ch/record/2693140
_version_ 1780964018417041408
author Golm, Jessica
De Gersem, Herbert
Fernandes, Miguel
Haider, David
Kurian, Febin
Marsic, Nicolas
Müller, Wolfgang
Neubert, Ralf
Schmelz, Matthias
Schmidl, Frank
Schwickert, Marcus
Seidel, Paul
Sieber, Thomas
Stöhlker, Thomas
Stolz, Ronny
Tan, Jocelyn
Tympel, Volker
Welsch, Carsten
Zakosarenko, Vyacheslav
author_facet Golm, Jessica
De Gersem, Herbert
Fernandes, Miguel
Haider, David
Kurian, Febin
Marsic, Nicolas
Müller, Wolfgang
Neubert, Ralf
Schmelz, Matthias
Schmidl, Frank
Schwickert, Marcus
Seidel, Paul
Sieber, Thomas
Stöhlker, Thomas
Stolz, Ronny
Tan, Jocelyn
Tympel, Volker
Welsch, Carsten
Zakosarenko, Vyacheslav
author_sort Golm, Jessica
collection CERN
description For more than 20 years Cryogenic Current Comparators (CCC) are used to measure the current of charged particle beams with low intensity (nA-range). The device was first established at GSI in Darmstadt and was improved over the past two decades by the cooperation of institutes in Jena, GSI and CERN. The improved versions differ in material parameters and electronics to increase the resolution, and in dimensions in order to meet the requirements of the respective application. The device allows non-destructive measurements of the charged particle beam current. The azimuthal magnetic field which is excited by the beam current is detected by a low-temperature Superconducting Quantum Interference Device (SQUID) sensor. A complex shaped superconductor cooled down to 4.2 K is used as magnetic shielding and a high permeability core serves as flux concentrator. Three versions of the low-temperature superconducting CCC shall be presented in this work: (#1) GSI-Pb-CCC which was running at GSI Darmstadt in a transfer line, (#2) CERN-Nb-CCC currently installed in the Antiproton Decelerator at CERN and (#3) GSI-Nb-CCC-XD which will start operation in the CRYRING at GSI 2019. Noise, signal and drift measurements were performed in the Cryo-Detector Lab at the University of Jena.
id oai-inspirehep.net-1745569
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2019
record_format invenio
spelling oai-inspirehep.net-17455692022-04-08T07:27:38Zdoi:10.18429/JACoW-IPAC2019-THYYPLS2http://cds.cern.ch/record/2693140engGolm, JessicaDe Gersem, HerbertFernandes, MiguelHaider, DavidKurian, FebinMarsic, NicolasMüller, WolfgangNeubert, RalfSchmelz, MatthiasSchmidl, FrankSchwickert, MarcusSeidel, PaulSieber, ThomasStöhlker, ThomasStolz, RonnyTan, JocelynTympel, VolkerWelsch, CarstenZakosarenko, VyacheslavDifferent versions of Cryogenic Current Comparators with magnetic core for beam current measurementsAccelerators and Storage RingsFor more than 20 years Cryogenic Current Comparators (CCC) are used to measure the current of charged particle beams with low intensity (nA-range). The device was first established at GSI in Darmstadt and was improved over the past two decades by the cooperation of institutes in Jena, GSI and CERN. The improved versions differ in material parameters and electronics to increase the resolution, and in dimensions in order to meet the requirements of the respective application. The device allows non-destructive measurements of the charged particle beam current. The azimuthal magnetic field which is excited by the beam current is detected by a low-temperature Superconducting Quantum Interference Device (SQUID) sensor. A complex shaped superconductor cooled down to 4.2 K is used as magnetic shielding and a high permeability core serves as flux concentrator. Three versions of the low-temperature superconducting CCC shall be presented in this work: (#1) GSI-Pb-CCC which was running at GSI Darmstadt in a transfer line, (#2) CERN-Nb-CCC currently installed in the Antiproton Decelerator at CERN and (#3) GSI-Nb-CCC-XD which will start operation in the CRYRING at GSI 2019. Noise, signal and drift measurements were performed in the Cryo-Detector Lab at the University of Jena.CERN-ACC-2019-230oai:inspirehep.net:17455692019
spellingShingle Accelerators and Storage Rings
Golm, Jessica
De Gersem, Herbert
Fernandes, Miguel
Haider, David
Kurian, Febin
Marsic, Nicolas
Müller, Wolfgang
Neubert, Ralf
Schmelz, Matthias
Schmidl, Frank
Schwickert, Marcus
Seidel, Paul
Sieber, Thomas
Stöhlker, Thomas
Stolz, Ronny
Tan, Jocelyn
Tympel, Volker
Welsch, Carsten
Zakosarenko, Vyacheslav
Different versions of Cryogenic Current Comparators with magnetic core for beam current measurements
title Different versions of Cryogenic Current Comparators with magnetic core for beam current measurements
title_full Different versions of Cryogenic Current Comparators with magnetic core for beam current measurements
title_fullStr Different versions of Cryogenic Current Comparators with magnetic core for beam current measurements
title_full_unstemmed Different versions of Cryogenic Current Comparators with magnetic core for beam current measurements
title_short Different versions of Cryogenic Current Comparators with magnetic core for beam current measurements
title_sort different versions of cryogenic current comparators with magnetic core for beam current measurements
topic Accelerators and Storage Rings
url https://dx.doi.org/10.18429/JACoW-IPAC2019-THYYPLS2
http://cds.cern.ch/record/2693140
work_keys_str_mv AT golmjessica differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT degersemherbert differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT fernandesmiguel differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT haiderdavid differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT kurianfebin differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT marsicnicolas differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT mullerwolfgang differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT neubertralf differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT schmelzmatthias differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT schmidlfrank differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT schwickertmarcus differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT seidelpaul differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT sieberthomas differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT stohlkerthomas differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT stolzronny differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT tanjocelyn differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT tympelvolker differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT welschcarsten differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements
AT zakosarenkovyacheslav differentversionsofcryogeniccurrentcomparatorswithmagneticcoreforbeamcurrentmeasurements