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A novel fast timing micropattern gaseous detector: FTM

In recent years important progress in micropattern gaseous detectors has been achieved in the use of resistive material to build compact spark-protected devices. The novel idea presented here consists of the polarisation of WELL structures using only resistive coating. This allows a new device to be...

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Detalles Bibliográficos
Autores principales: De Oliveira, Rui, Maggi, Marcello, Sharma, Archana
Lenguaje:eng
Publicado: 2015
Materias:
Acceso en línea:http://cds.cern.ch/record/2000150
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author De Oliveira, Rui
Maggi, Marcello
Sharma, Archana
author_facet De Oliveira, Rui
Maggi, Marcello
Sharma, Archana
author_sort De Oliveira, Rui
collection CERN
description In recent years important progress in micropattern gaseous detectors has been achieved in the use of resistive material to build compact spark-protected devices. The novel idea presented here consists of the polarisation of WELL structures using only resistive coating. This allows a new device to be built with an architecture based on a stack of several coupled layers where drift and WELL multiplication stages alternate in the structure. The signals from each multiplication stage can be read out from any external readout boards through the capacitive couplings. Each layer provides a signal with a gain of 10^4-10^5. The main advantage of this new device is the dramatic improvement of the timing provided by the competition of the ionisation processes in the different drift regions, which can be exploited for fast timing at the high luminosity accelerators (e.g. HL-LHC upgrade) as well as far applications like medical imaging.
id cern-2000150
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2015
record_format invenio
spelling cern-20001502023-03-14T17:44:43Zhttp://cds.cern.ch/record/2000150engDe Oliveira, RuiMaggi, MarcelloSharma, ArchanaA novel fast timing micropattern gaseous detector: FTMDetectors and Experimental TechniquesDetectors and Experimental TechniquesIn recent years important progress in micropattern gaseous detectors has been achieved in the use of resistive material to build compact spark-protected devices. The novel idea presented here consists of the polarisation of WELL structures using only resistive coating. This allows a new device to be built with an architecture based on a stack of several coupled layers where drift and WELL multiplication stages alternate in the structure. The signals from each multiplication stage can be read out from any external readout boards through the capacitive couplings. Each layer provides a signal with a gain of 10^4-10^5. The main advantage of this new device is the dramatic improvement of the timing provided by the competition of the ionisation processes in the different drift regions, which can be exploited for fast timing at the high luminosity accelerators (e.g. HL-LHC upgrade) as well as far applications like medical imaging.In recent years important progress in micropattern gaseous detectors has been achieved in the use of resistive material to build compact spark-protected devices. The novel idea presented here consists of the polarisation of WELL structures using only resistive electrodes. This allows a new device to be built with an architecture based on a stack of several coupled layers where drift and WELL multiplication stages alternate in the structure. The signals from each multiplication stage can be read out from any external readout boards through the capacitive couplings. Each layer provides a signal with a gain of 10^4 - 10^5. The main advantage of this new device is the dramatic improvement of the timing provided by the competition of the ionisation processes in the different drift regions, which can be exploited for fast timing at the high luminosity accelerators (e.g. HL-LHC upgrade) as well as applications outside particle physics.In recent years important progress in micropattern gaseous detectors has been achieved in the use of resistive material to build compact spark-protected devices. The novel idea presented here consists of the polarisation of WELL structures using only resistive coating. This allows a new device to be built with an architecture based on a stack of several coupled layers where drift and WELL multiplication stages alternate in the structure. The signals from each multiplication stage can be read out from any external readout boards through the capacitive couplings. Each layer provides a signal with a gain of 10^4-10^5. The main advantage of this new device is the dramatic improvement of the timing provided by the competition of the ionisation processes in the different drift regions, which can be exploited for fast timing at the high luminosity accelerators (e.g. HL-LHC upgrade) as well as far applications like medical imaging.arXiv:1503.05330CERN-OPEN-2015-002INFN-15-01-BAINFN-15-01-BAoai:cds.cern.ch:20001502015-03-09
spellingShingle Detectors and Experimental Techniques
Detectors and Experimental Techniques
De Oliveira, Rui
Maggi, Marcello
Sharma, Archana
A novel fast timing micropattern gaseous detector: FTM
title A novel fast timing micropattern gaseous detector: FTM
title_full A novel fast timing micropattern gaseous detector: FTM
title_fullStr A novel fast timing micropattern gaseous detector: FTM
title_full_unstemmed A novel fast timing micropattern gaseous detector: FTM
title_short A novel fast timing micropattern gaseous detector: FTM
title_sort novel fast timing micropattern gaseous detector: ftm
topic Detectors and Experimental Techniques
Detectors and Experimental Techniques
url http://cds.cern.ch/record/2000150
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