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The micro-RWELL layouts for high particle rate

The μ-RWELL is a single-amplification stage resistive Micro-Pattern Gaseous Detector (MPGD) . The detector amplification element is realized with a single copper-clad polyimide foil micro-patterned with a blind hole (well) matrix and embedded in the readout PCB through a thin Diamond-Like-Carbon (DL...

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Autores principales: Bencivenni, G., De Oliveira, R., Felici, G., Gatta, M., Giovannetti, M., Morello, G., Ochi, A., Poli Lener, M., Tskhadadze, E.
Formato: info:eu-repo/semantics/article
Lenguaje:eng
Publicado: JINST 2019
Materias:
Acceso en línea:https://dx.doi.org/10.1088/1748-0221/14/05/P05014
http://cds.cern.ch/record/2672599
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author Bencivenni, G.
De Oliveira, R.
Felici, G.
Gatta, M.
Giovannetti, M.
Morello, G.
Ochi, A.
Poli Lener, M.
Tskhadadze, E.
author_facet Bencivenni, G.
De Oliveira, R.
Felici, G.
Gatta, M.
Giovannetti, M.
Morello, G.
Ochi, A.
Poli Lener, M.
Tskhadadze, E.
author_sort Bencivenni, G.
collection CERN
description The μ-RWELL is a single-amplification stage resistive Micro-Pattern Gaseous Detector (MPGD) . The detector amplification element is realized with a single copper-clad polyimide foil micro-patterned with a blind hole (well) matrix and embedded in the readout PCB through a thin Diamond-Like-Carbon (DLC) sputtered resistive film. The introduction of the resistive layer, suppressing the transition from streamer to spark, allows to achieve large gains (≥104) with a single amplification stage, while partially reducing the capability to stand high particle fluxes. The simplest resistive layout, designed for low-rate applications, is based on a single-resistive layer with edge grounding. At high particle fluxes this layout suffers of a non-uniform response. In order to get rid of such a limitation different current evacuation geometries have been designed. In this work we report the study of the performance of several high rate resistive layouts tested at the CERN H8-SpS and PSI πM1 beam test facilities. These layouts fulfill the requirements for the detectors at the HL-LHC and for the experiments at the next generation colliders FCC-ee/hh and CepC.
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spelling cern-26725992022-08-10T12:27:33Z doi:10.1088/1748-0221/14/05/P05014 http://cds.cern.ch/record/2672599 eng Bencivenni, G. De Oliveira, R. Felici, G. Gatta, M. Giovannetti, M. Morello, G. Ochi, A. Poli Lener, M. Tskhadadze, E. The micro-RWELL layouts for high particle rate physics.ins-det Detectors and Experimental Techniques 13: Innovative gas detectors The μ-RWELL is a single-amplification stage resistive Micro-Pattern Gaseous Detector (MPGD) . The detector amplification element is realized with a single copper-clad polyimide foil micro-patterned with a blind hole (well) matrix and embedded in the readout PCB through a thin Diamond-Like-Carbon (DLC) sputtered resistive film. The introduction of the resistive layer, suppressing the transition from streamer to spark, allows to achieve large gains (≥104) with a single amplification stage, while partially reducing the capability to stand high particle fluxes. The simplest resistive layout, designed for low-rate applications, is based on a single-resistive layer with edge grounding. At high particle fluxes this layout suffers of a non-uniform response. In order to get rid of such a limitation different current evacuation geometries have been designed. In this work we report the study of the performance of several high rate resistive layouts tested at the CERN H8-SpS and PSI πM1 beam test facilities. These layouts fulfill the requirements for the detectors at the HL-LHC and for the experiments at the next generation colliders FCC-ee/hh and CepC. The $\mu$-RWELL is a single-amplification stage resistive Micro-Pattern Gaseous Detector (MPGD). The detector amplification element is realized with a single copper-clad polyimide foil micro-patterned with a blind hole (well) matrix and embedded in the readout PCB through a thin Diamond-Like-Carbon (DLC) sputtered resistive film. The introduction of the resistive layer, suppressing the transition from streamer to spark, allows to achieve large gains ($\geq$10$^4$) with a single amplification stage, while partially reducing the capability to stand high particle fluxes. The simplest resistive layout, designed for low-rate applications, is based on a single-resistive layer with edge grounding. At high particle fluxes this layout suffers of a non-uniform response. In order to get rid of such a limitation different current evacuation geometries have been designed. In this work we report the study of the performance of several high rate resistive layouts tested at the CERN H8-SpS and PSI $\pi$M1 beam test facilities. These layouts fulfill the requirements for the detectors at the HL-LHC and for the experiments at the next generation colliders FCC-ee/hh and CepC. info:eu-repo/grantAgreement/EC/FP7/654168 info:eu-repo/semantics/openAccess Education Level info:eu-repo/semantics/article http://cds.cern.ch/record/2672599 JINST JINST, 05 (2019) pp. P05014 2019-03-26
spellingShingle physics.ins-det
Detectors and Experimental Techniques
13: Innovative gas detectors
Bencivenni, G.
De Oliveira, R.
Felici, G.
Gatta, M.
Giovannetti, M.
Morello, G.
Ochi, A.
Poli Lener, M.
Tskhadadze, E.
The micro-RWELL layouts for high particle rate
title The micro-RWELL layouts for high particle rate
title_full The micro-RWELL layouts for high particle rate
title_fullStr The micro-RWELL layouts for high particle rate
title_full_unstemmed The micro-RWELL layouts for high particle rate
title_short The micro-RWELL layouts for high particle rate
title_sort micro-rwell layouts for high particle rate
topic physics.ins-det
Detectors and Experimental Techniques
13: Innovative gas detectors
url https://dx.doi.org/10.1088/1748-0221/14/05/P05014
http://cds.cern.ch/record/2672599
http://cds.cern.ch/record/2672599
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