The High Energy cosmic-radiation Detection (HERD) Facility onboard China s Future Space Station

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The High Energy cosmic-radiation Detection (HERD) Facility onboard China s Future Space Station Yongwei DONG, on behalf of HERD collaboration Institute of High Energy Physics, CAS PoS(ICRC2017)1077, 253

HERD concept HERD is one of several space astronomy payloads of the cosmic light house program onboard CSS. Sciences Indirect dark matter search with unprecedented sensitivity Precise cosmic ray spectrum and composition measurements up to the knee energy Gamma-ray monitoring and survey Planned launch 2022-2025; 10+ years lifetime 2/28

HERD specifications Unique capabilities Largest geometric factors for electrons and cosmic rays Direct PeV CR observation with best energy resolution Low energy gamma ray observation Item Value Energy range (e/γ) Energy range (CR) Angle resolution Charge meas. Energy resolution (e) Energy resolution (p) 10 GeV - 10 TeV (e/γ); 0.5GeV - 10 GeV(γ) 30 GeV - PeV 0.1 deg.@10 GeV 0.1-0.15 c.u 1%@200 GeV 20%@100 GeV-PeV e/p separation ~10-6 G.F. (e) G.F. (p) >3 m 2 sr@200 GeV >2 m 2 sr@100 TeV 3/28

Signal of monochromatic gamma-ray from DM annihilation 4/28

Expected gamma-ray line sensitivity HERD 1 yr PAMELA: 2006-2016 CALET: 2015-2020; AMS: 2011-2024; DAMPE: 2015-2020; Fermi: 2008-2018; HERD: 2023-5/28

Positron/electron excess from DM annihilation or nearby pulsars Lin SJ et al. PRD91.063508, 2015 6/28

Contributions from nearby pulsars Fang,k. Wang, B. et al. APJ 2017 7/28

AMS02 data consistent with DM model 8/28

And also consistent with Pulsar model 9/28

Spectra of nearby sources:vela-x, Cygnus loop Time of e emission HERD can probe the bump around 10s TeV from the local sources. If this bump detected it Strongly favor a pulsar origin of positron excess 10/28

Anisotropy of nearby high energy CR sources: Vela-X Time of e emission anisotropy HERD can detect the anisotropy at high E clearly. Electron energy (GeV) 11/28

Anisotropy of nearby high energy CR sources:cyg Loop Time of e emission anisotropy HERD can detect the anisotropy at High E clearly. Electron energy (GeV) 12/28

Expected HERD Proton and He Spectra Horandel model as HERD input Only statistical error Protons He 13/28

B/C measurement at HERD To determine the CR propagation parameters 14/28

Iron nucleon and super-iron elements HERD can detect or set very stringent limit on super-iron elements 15/28

HERD payload PSD, five/six sides LE Gamma identification Charge STK(SSD),five sides Charge Trajectory Gamma tracking LYSO array Trigger sub-system ISCMOS sub-system CALO, 3-d e/g/cr energy e/p discrimination TRD TeV proton calibration 16/28

CALO - from bars to cubes ATIC FERMI AMS-02 CALET DAMPE HERD To increase significantly GF and improve particle discrimination 17/28

CALO LYSO array Energy deposition of incident high energy particles Wavelength shifting fibers to read out crystal signals item Value Note Type of crystal LYSO Nuclear Interaction Length 3 Upper energy threshold Number of crystals ~7500 Crystal dimension 3cm*3cm*3cm Energy reso.; e/p discri. Fiber readout 3 WLSF/crystal Large DR & trigger Trigger system ISCMOS with low+high range 18/28

Crystal performances Light output linearity of LYSO TiO 2 reflector Different reflector ESR 1070 Al 400 TiO2 1350 Non-uniformity inside crystal 19/28

Expected CALO performances Energy reso. (e) 0.7%@100GeV Energy reso. (p) ~20% e/p separation 0.99999@95% eff. Geometric factor 20/28

CALO ISCMOS sub-system ISCMOS to collect WLSF photons Accurate energy measurement 1 fiber ~ 20*20 pixels Saturation effect to increase DR Item Range Input fibers Dynamic range Frame rate Energy reso. Working mode Value Low range & high range ~7500 WLSFs/range ~10 7 (equivalent to 30-10 8 p.e.) ~500 fps 1%@200 GeV External trigger, scan mode, external trigger (CMOS) 21/28

2015 CERN SPS beam test Angle reso. (e) 1.5deg.@100 GeV Energy reso. (e) 4.6%@100 GeV Energy reso. (p) ~50% A 2 nd beam test on upgraded prototype will be held Oct. 2017. 22/28

CALO trigger sub-system To provide common trigger signal Coarse energy measurement Item Value Calibration mode Normal mode Input fibers ~7500 WLSFs Trigger band Trigger time 300 MeV - PeV <100 ns Particle arrival Particle arrival Dead time Energy reso. <10 μs ~10%@200 GeV Yes 1.2GeV>EPMT>0.6GeV? Yes EPMT>10GeV? MIP event No Normal event No Discarded Yes EPMT>0.5GeV &EPSD<Threshold? LE Gamma event No Discarded 23/28

CALO trigger - energy measurement Test on HERD prototype at BEPCII E2 by using calibrated electron bundles was taken in June, 2017. Energy resolution Energy response 24/28

STK payload Charge measurement CR/e trajectory Gamma ray conversion & tracking Item Value Coverage ratio >80% Charge measurement Z = 1-20 (26); 0.1-0.15 c.u Angle resolution 0.1 deg.@10 GeV Layers of SSD 6 X/Y (top);3/6 X/Y (Lateral) Active converter 1 R.L. Dead time <2 ms Working mode External trigger Eff. Area (top) ~133 cm*133 cm Eff. Area (lateral) ~114 cm*66.5 cm Channels ~240,000/368,000 25/28

PSD payload Low energy gamma identification Coarse charge measurement Neutron detection on the bottom for particle discrimination Item Value Coverage ratio >99.9% Layers 1 layer of PS bars Charge measurement 1-10 (20) Veto time Dead time Working mode Eff. Area (top) Eff. Area (lateral) <100 ns <10 μs Channels ~608 External trigger; real-time veto 1.6m*1.6m 1.6m*1.2m 2*(3+1) SiPMs 26/28

TRD payload Energy calibration of TeV protons and other nuclei A complete calibration in 2-3 months in-orbit operation Straw tube MWPC energy response to [2.25, 2.5] TeV protons 2 months simulated observation, ~6300cm 2 TRD. Large area MWPC 27/28

Summary HERD, as a China-led mission with a large international collaboration, is a flagship and landmark scientific experiment onboard China's Space Station. Expected launch time before 2025; 10+ yrs lifetime. Advanced scientific objectives in DM search, CR observation and gamma-ray astronomy May confirm the pulsar origin of positron/ electron excess measured at AMS-02 Novel design of HERD A 3-d crystal array to allow large GF and better particle discri.. A WLSF+ISCMOS read-out system to simply electronics Active converter to improve energy resolution of LE gamma One-dimensional long PS bars to identify LE gamma in real time. A TRD to calibrate TeV protons and other nuclei in orbit. 28/28

International collaboration (120+ scientists) China: CSU, IHEP, XIOPM, PMO, USTC, IGG, XAO, NAOC, TSU, GXU, PKU, NJU, YNU, NBU, SYSU, University of Hong Kong (HKU), National Central University (NCU) Italy:INFN Perugia, University & INFN Firenze, University & INFN Bari, University & INFN Pisa, University & INFN Trento, University of Salento and INFN Lecce, IAPS/INAF, University & INFN Catania, University & INFN Napoli, University & INFN Trieste Switzerland: University of Geneva;Sweden: KTH;Spain: CIEMAT Germany: KIT;Russia: Lebedev Physical Institute Japan: University of Tokyo 4 th HERD workshop ASI HQs, Roma, Italy 2017.2.9 29/28