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2022-07-19
Design and Simulated Performance of Calorimetry Systems for the ECCE Detector at the Electron Ion Collider
F. BockN. SchmidtP. K. WangN. SantiestebanT. HornJ. HuangJ. LajoieC. Munoz CamachoJ. K. AdkinsY. AkibaA. AlbatainehM. AmaryanI. C. ArseneC. Ayerbe GayosoJ. BaeX. BaiM. D. BakerM. BashkanovR. BellwiedF. BenmokhtarV. BerdnikovJ. C. BernauerW. BoeglinM. BorysovaE. BrashP. BrindzaW. J. BriscoeM. BrooksS. BueltmannM. H. S. BukhariA. BylinkinR. CapobiancoW. -C. ChangY. CheonK. ChenK. -F. ChenK. -Y. ChengM. ChiuT. ChujoZ. CitronE. ClineE. CohenT. CormierY. Corrales MoralesC. CottonJ. CraftsC. CrawfordS. CreekmoreC. CuevasJ. CunninghamG. DavidC. T. DeanM. DemarteauS. DiehlN. DoshitaR. DupreJ. M. DurhamR. DzhygadloR. EhlersL. El FassiA. EmmertR. EntC. FanelliR. FatemiS. FeganM. FingerM. FingerJ. FrantzM. FriedmanI. FriscicD. GangadharanS. GardnerK. GatesF. GeurtsR. GilmanD. GlazierE. GlimosY. GotoN. GrauS. V. GreeneA. Q. GuoL. GuoS. K. HaJ. HaggertyT. HaywardX. HeO. HenD. W. HiginbothamM. HoballahA. HoghmrtsyanP. -h. J. HsuG. HuberA. HutsonK. Y. HwangC. E. HydeM. InabaT. IwataH. S. JoK. JooN. KalantariansG. KalicyK. KawadeS. J. D. KayA. KimB. KimC. KimM. KimY. KimY. KimE. KistenevV. KlimenkoS. H. KoI. KoroverW. KorschG. KrintirasS. KuhnC. -M. KuoT. KutzD. LawrenceS. LebedevH. LeeJ. S. H. LeeS. W. LeeY. -J. LeeW. LiW. B. LiX. LiX. LiX. LiX. LiY. T. LiangS. LimC. -h. LinD. X. LinK. LiuM. X. LiuK. LivingstonN. LiyanageW. J. LlopeC. LoizidesE. LongR. -S. LuZ. LuW. LynchS. MantryD. MarchandM. MarcisovskyC. MarkertP. MarkowitzH. MarukyanP. McGaugheyM. MihovilovicR. G. MilnerA. MilovY. MiyachiA. MkrtchyanP. MonaghanR. MontgomeryD. MorrisonA. MovsisyanH. MkrtchyanA. MkrtchyanM. MurrayK. NagaiJ. NagleI. NakagawaC. NattrassD. NguyenS. NiccolaiR. NouicerG. NukazukaM. NyczV. A. OkorokovS. OresicJ. D. OsbornC. O ShaughnessyS. PaganisZ. PapandreouS. F. PateM. PatelC. PausG. PenmanM. G. PerdekampD. V. PerepelitsaH. Periera da CostaK. PetersW. PhelpsE. PiasetzkyC. PinkenburgI. ProchazkaT. ProtzmanM. L. PurschkeJ. PutschkeJ. R. PybusR. Rajput-GhoshalJ. RassonB. RaueK. F. ReadK. RøedR. ReedJ. ReinholdE. L. RennerJ. RichardsC. RiedlT. RinnJ. RocheG. M. RolandG. RonM. RosatiC. RoyonJ. RyuS. SalurR. SantosM. SarsourJ. SchambachA. SchmidtC. SchwarzJ. SchwieningR. SeidlA. SicklesP. SimmerlingS. SircaD. SharmaZ. ShiT. -A. ShibataC. -W. ShihS. ShimizuU. ShresthaK. SliferK. SmithD. SokhanR. SoltzW. SondheimJ. SongJ. SongI. I. StrakovskyP. SteinbergP. StepanovJ. StevensJ. StrubeP. SunX. SunK. SureshV. TadevosyanW. -C. TangS. Tapia ArayaS. TarafdarL. TeodorescuD. ThomasA. TimminsL. TomasekN. TrottaR. TrottaT. S. TveterE. UmakaA. UsmanH. W. van HeckeC. Van HulseJ. VelkovskaE. VoutierP. K. WangQ. WangY. WangY. WangD. P. WattsN. WickramaarachchiL. WeinsteinM. WilliamsC. -P. WongL. WoodM. H. WoodC. WoodyB. WyslouchZ. XiaoY. YamazakiY. YangZ. YeH. D. YooM. YurovN. ZachariouW. A. ZajcW. ZhaJ. -L. ZhangJ. -X. ZhangY. ZhangY. -X. ZhaoX. ZhengP. Zhuang
文献摘要
We describe the design and performance the calorimeter systems used in the ECCE detector design to achieve the overall performance specifications cost-effectively with careful consideration of appropriate technical and schedule risks. The calorimeter systems consist of three electromagnetic calorimeters, covering the combined pseudorapdity range from -3.7 to 3.8 and two hadronic calorimeters. Key calorimeter performances which include energy and position resolutions, reconstruction efficiency, and particle identification will be presented.
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