A Comparison of CPU and GPU Implementations for the LHCb Experiment Run 3 Trigger

Author:

Aaij R.,Adinolfi M.,Aiola S.,Akar S.,Albrecht J.,Alexander M.,Amato S.,Amhis Y.,Archilli F.,Bala M.,Bassi G.,Bian L.,Blago M. P.,Boettcher T.,Boldyrev A.,Borghi S.,Rodriguez A. Brea,Calefice L.,Gomez M. Calvo,Pérez D. H. Cámpora,Cardini A.,Cattaneo M.,Chobanova V.,Ciezarek G.,Vidal X. Cid,Cobbledick J. L.,Coelho J. A. B.,Colombo T.,Contu A.,Couturier B.,Craik D. C.,Currie R.,d’Argent P.,De Cian M.,Derkach D.,Dordei F.,Dorigo M.,Dufour L.,Durante P.,Dziurda A.,Dzyuba A.,Easo S.,Esen S.,Declara P. Fernandez,Filippov S.,Fitzpatrick C.,Frank M.,Gandini P.,Gligorov V. V.ORCID,Golobardes E.,Graziani G.,Grillo L.,Günther P. A.,Hansmann-Menzemer S.,Hennequin A. M.,Henry L.,Hill D.,Hollitt S. E.,Hu J.,Hulsbergen W.,Hunter R. J.,Hushchyn M.,Jashal B. K.,Jones C. R.,Klaver S.,Klimaszewski K.,Kopecna R.,Krzemien W.,Kucharczyk M.,Lane R.,Lazzari F.,Gac R. Le,Li P.,Lopes J. H.,Martinez M. Lucio,Lupato A.,Lupton O.,Lyu X.,Machefert F.,Madejczyk O.,Malde S.,Marchand J. F.,Mariani S.,Benito C. Marin,Santos D. Martinez,Vidal F. Martinez,Matev R.,Mazurek M.,Mitreska B.,Mitzel D. S.,Morello M. J.,Mu H.,Muzzetto P.,Naik P.,Needham M.,Neri N.,Neufeld N.,Nolte N. S.,O’Hanlon D.,Oyanguren A.,Altarelli M. Pepe,Petrucci S.,Petruzzo M.,Pica L.,Pisani F.,Piucci A.,Polci F.,Poluektov A.,Polycarpo E.,Prouve C.,Punzi G.,Quagliani R.,Trejo R. I. Rabadan,Pernas M. Ramos,Rangel M. S.,Ratnikov F.,Raven G.,Reiss F.,Renaudin V.,Robbe P.,Ryzhikov A.,Santimaria M.,Saur M.,Schiller M.,Schwemmer R.,Sciascia B.,Solomin A.,Suljik F.,Skidmore N.,Sokoloff M. D.,Spradlin P.,Stahl M.,Stahl S.,Stevens H.,Sun L.,Szabelski A.,Szumlak T.,Szymanski M.,Tou D. Y.,Tuci G.,Usachov A.,Canudas N. Valls,Gomez R. Vazquez,Vecchi S.,Vesterinen M.,Vilasis-Cardona X.,Bruch D. Vom,Wang Z.,Wojton T.,Whitehead M.,Williams M.,Witek M.,Xie Y.,Xu A.,Yin H.,Zdybal M.,Zenaiev O.,Zhang D.,Zhang L.,Zhu X.,

Abstract

AbstractThe Large Hadron Collider beauty (LHCb) experiment at CERN is undergoing an upgrade in preparation for the Run 3 data collection period at the Large Hadron Collider (LHC). As part of this upgrade, the trigger is moving to a full software implementation operating at the LHC bunch crossing rate. We present an evaluation of a CPU-based and a GPU-based implementation of the first stage of the high-level trigger. After a detailed comparison, both options are found to be viable. This document summarizes the performance and implementation details of these options, the outcome of which has led to the choice of the GPU-based implementation as the baseline.

Funder

CERN

Publisher

Springer Science and Business Media LLC

Subject

Nuclear and High Energy Physics,Computer Science (miscellaneous),Software

Reference14 articles.

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3. Akar S et al (2014) Review document: low level trigger (LLT). CERN, Geneva

4. ATLAS Collaboration (2017) Technical design report for the phase-II upgrade of the ATLAS TDAQ system. CERN, Geneva

5. CMS Collaboration (2017) The Phase-2 Upgrade of the CMS DAQ Interim Technical Design Report, CERN, Geneva. This is the CMS Interim TDR devoted to the upgrade of the CMS DAQ in view of the HL-LHC running, as approved by the LHCC

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