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Reliable and redundant FPGA based read-out design in the ATLAS TileCal Demonstrator
The Tile Calorimeter at ATLAS is a hadron calorimeter based on steel plates and scintillating tiles read out by PMTs. The current read-out system uses standard ADCs and custom ASICs to digitize and temporarily store the data on the detector. However, only a subset of the data is actually read out to...
Autores principales: | , , , , , , |
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Lenguaje: | eng |
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2015
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Acceso en línea: | https://dx.doi.org/10.1109/RTC.2014.7097542 https://dx.doi.org/10.1109/TNS.2015.2463097 http://cds.cern.ch/record/1710818 |
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author | Åkerstedt, Henrik Muschter, Steffen Drake, Gary Anderson, Kelby Bohm, Christian Oreglia, Mark Tang, Fukun |
author_facet | Åkerstedt, Henrik Muschter, Steffen Drake, Gary Anderson, Kelby Bohm, Christian Oreglia, Mark Tang, Fukun |
author_sort | Åkerstedt, Henrik |
collection | CERN |
description | The Tile Calorimeter at ATLAS is a hadron calorimeter based on steel plates and scintillating tiles read out by PMTs. The current read-out system uses standard ADCs and custom ASICs to digitize and temporarily store the data on the detector. However, only a subset of the data is actually read out to the counting room. The on-detector electronics will be replaced around 2023. To achieve the required reliability the upgraded system will be highly redundant. Here the ASICs will be replaced with Kintex-7 FPGAs from Xilinx. This, in addition to the use of multiple 10 Gbps optical read-out links, will allow a full read-out of all detector data. Due to the higher radiation levels expected when the beam luminosity is increased, opportunities for repairs will be less frequent. The circuitry and firmware must therefore be designed for sufficiently high reliability using redundancy and radiation tolerant components. Within a year, a hybrid demonstrator including the new read-out system will be installed in one slice of the ATLAS Tile Calorimeter. This will allow the proposed upgrade to be thoroughly evaluated well before the planned 2023 deployment in all slices, especially with regard to long term reliability. Different firmware strategies alongside with their integration in the demonstrator are presented in the context of high reliability protection against hardware malfunction and radiation induced errors. |
id | cern-1710818 |
institution | Organización Europea para la Investigación Nuclear |
language | eng |
publishDate | 2015 |
record_format | invenio |
spelling | cern-17108182023-03-14T18:29:51Zdoi:10.1109/RTC.2014.7097542doi:10.1109/TNS.2015.2463097http://cds.cern.ch/record/1710818engÅkerstedt, HenrikMuschter, SteffenDrake, GaryAnderson, KelbyBohm, ChristianOreglia, MarkTang, FukunReliable and redundant FPGA based read-out design in the ATLAS TileCal DemonstratorParticle Physics - Experimentphysics.ins-detThe Tile Calorimeter at ATLAS is a hadron calorimeter based on steel plates and scintillating tiles read out by PMTs. The current read-out system uses standard ADCs and custom ASICs to digitize and temporarily store the data on the detector. However, only a subset of the data is actually read out to the counting room. The on-detector electronics will be replaced around 2023. To achieve the required reliability the upgraded system will be highly redundant. Here the ASICs will be replaced with Kintex-7 FPGAs from Xilinx. This, in addition to the use of multiple 10 Gbps optical read-out links, will allow a full read-out of all detector data. Due to the higher radiation levels expected when the beam luminosity is increased, opportunities for repairs will be less frequent. The circuitry and firmware must therefore be designed for sufficiently high reliability using redundancy and radiation tolerant components. Within a year, a hybrid demonstrator including the new read-out system will be installed in one slice of the ATLAS Tile Calorimeter. This will allow the proposed upgrade to be thoroughly evaluated well before the planned 2023 deployment in all slices, especially with regard to long term reliability. Different firmware strategies alongside with their integration in the demonstrator are presented in the context of high reliability protection against hardware malfunction and radiation induced errors.The Tile calorimeter at ATLAS [1] is a hadron calorimeter based on steel plates and scintillating tiles read out by PMTs. The current read-out system uses standard ADCs and custom ASICs to digitize and temporarily store the data on the detector, before transfer to the counting room.The current ATLAS Tile Calorimeter read-out system is scheduled for replacement around 2023 due to old age and higher performance needs. The new proposed system is designed to be radiation tolerant, modular, redundant and reconfigurable. To achieve full detector read-out, Kintex-7 FPGAs from Xilinx will be used, in addition to multiple 10 Gb/s optical read-out links. During 2015/2016, a hybrid demonstrator system including the new read-out system will be installed in one slice of the ATLAS Tile Calorimeter to evaluate the new design. This paper describes different firmware strategies along with their integration in the demonstrator in the context of high reliability protection against hardware malfunction and radiation induced errors.The Tile Calorimeter at ATLAS is a hadron calorimeter based on steel plates and scintillating tiles read out by PMTs. The current read-out system uses standard ADCs and custom ASICs to digitize and temporarily store the data on the detector. However, only a subset of the data is actually read out to the counting room. The on-detector electronics will be replaced around 2023. To achieve the required reliability the upgraded system will be highly redundant. Here the ASICs will be replaced with Kintex-7 FPGAs from Xilinx. This, in addition to the use of multiple 10 Gbps optical read-out links, will allow a full read-out of all detector data. Due to the higher radiation levels expected when the beam luminosity is increased, opportunities for repairs will be less frequent. The circuitry and firmware must therefore be designed for sufficiently high reliability using redundancy and radiation tolerant components. Within a year, a hybrid demonstrator including the new read-out system will be installed in one slice of the ATLAS Tile Calorimeter. This will allow the proposed upgrade to be thoroughly evaluated well before the planned 2023 deployment in all slices, especially with regard to long term reliability. Different firmware strategies alongside with their integration in the demonstrator are presented in the context of high reliability protection against hardware malfunction and radiation induced errors.arXiv:1406.5848oai:cds.cern.ch:17108182015 |
spellingShingle | Particle Physics - Experiment physics.ins-det Åkerstedt, Henrik Muschter, Steffen Drake, Gary Anderson, Kelby Bohm, Christian Oreglia, Mark Tang, Fukun Reliable and redundant FPGA based read-out design in the ATLAS TileCal Demonstrator |
title | Reliable and redundant FPGA based read-out design in the ATLAS TileCal Demonstrator |
title_full | Reliable and redundant FPGA based read-out design in the ATLAS TileCal Demonstrator |
title_fullStr | Reliable and redundant FPGA based read-out design in the ATLAS TileCal Demonstrator |
title_full_unstemmed | Reliable and redundant FPGA based read-out design in the ATLAS TileCal Demonstrator |
title_short | Reliable and redundant FPGA based read-out design in the ATLAS TileCal Demonstrator |
title_sort | reliable and redundant fpga based read-out design in the atlas tilecal demonstrator |
topic | Particle Physics - Experiment physics.ins-det |
url | https://dx.doi.org/10.1109/RTC.2014.7097542 https://dx.doi.org/10.1109/TNS.2015.2463097 http://cds.cern.ch/record/1710818 |
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