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DAQ Link and IBERT Studies of CMS HGCAL Back End Electronics

The HL-LHC experiment will face two main challenges: high radiation due to increased high integrated luminosity and large amount of data resulting from high instantaneous luminosity. To overcome these two challenges, CMS plans to make many updates to its detector, such as replacing the calorimeter w...

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Autor principal: Tatli, Taylan
Lenguaje:eng
Publicado: 2023
Materias:
Acceso en línea:http://cds.cern.ch/record/2848222
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author Tatli, Taylan
author_facet Tatli, Taylan
author_sort Tatli, Taylan
collection CERN
description The HL-LHC experiment will face two main challenges: high radiation due to increased high integrated luminosity and large amount of data resulting from high instantaneous luminosity. To overcome these two challenges, CMS plans to make many updates to its detector, such as replacing the calorimeter with high granularity calorimeter. The new calorimeter uses newly developed technologies for both the front-end and back-end electronics part of the data read-out electronics. The design of these parts is based on high-bandwidth data transmission via optical links and FPGA technology. A lot of studies are required to establish an efficient and long-lasting data collection performance of the detector. One of them is the optimization of link connections of the hardware on the back-end electronics and the other is integrated bit error rate tests on the FPGAs. In this thesis, first, optimization of link connection studies, methodology and tools used for those studies are explained and then integrated bit error rate test by introducing and explaining hardware and software used for data transmission at back end electronics of the new calorimeter.
id cern-2848222
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2023
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spelling cern-28482222023-08-14T14:43:37Zhttp://cds.cern.ch/record/2848222engTatli, TaylanDAQ Link and IBERT Studies of CMS HGCAL Back End ElectronicsDetectors and Experimental TechniquesThe HL-LHC experiment will face two main challenges: high radiation due to increased high integrated luminosity and large amount of data resulting from high instantaneous luminosity. To overcome these two challenges, CMS plans to make many updates to its detector, such as replacing the calorimeter with high granularity calorimeter. The new calorimeter uses newly developed technologies for both the front-end and back-end electronics part of the data read-out electronics. The design of these parts is based on high-bandwidth data transmission via optical links and FPGA technology. A lot of studies are required to establish an efficient and long-lasting data collection performance of the detector. One of them is the optimization of link connections of the hardware on the back-end electronics and the other is integrated bit error rate tests on the FPGAs. In this thesis, first, optimization of link connection studies, methodology and tools used for those studies are explained and then integrated bit error rate test by introducing and explaining hardware and software used for data transmission at back end electronics of the new calorimeter.CERN-THESIS-2022-295oai:cds.cern.ch:28482222023-02-03T15:40:58Z
spellingShingle Detectors and Experimental Techniques
Tatli, Taylan
DAQ Link and IBERT Studies of CMS HGCAL Back End Electronics
title DAQ Link and IBERT Studies of CMS HGCAL Back End Electronics
title_full DAQ Link and IBERT Studies of CMS HGCAL Back End Electronics
title_fullStr DAQ Link and IBERT Studies of CMS HGCAL Back End Electronics
title_full_unstemmed DAQ Link and IBERT Studies of CMS HGCAL Back End Electronics
title_short DAQ Link and IBERT Studies of CMS HGCAL Back End Electronics
title_sort daq link and ibert studies of cms hgcal back end electronics
topic Detectors and Experimental Techniques
url http://cds.cern.ch/record/2848222
work_keys_str_mv AT tatlitaylan daqlinkandibertstudiesofcmshgcalbackendelectronics