Heavy Ion Beam Characteristics of ICCHIBAN 7 and 8 Experiments and Brief Summary of the ICCHIBAN Experiments

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Heavy Ion Beam Characteristics of ICCHIBAN 7 and 8 Experiments and Brief Summary of the ICCHIBAN Experiments H.Kitamura, Y.Uchihori, N.Yasuda (NIRS) E.Benton (Oklahoma State Univ.) T. Berger (DLR) M. Hajek (ATI) J.Miller (LBNL) and ICCHIBAN Working Group

Contents History of ICCHIBAN Subjects History Beam characteristics of 7 th and 8 th ICCHIBAN experiments Next ICCHIBAN experiments Summary

Subjects of ICCHIBAN Project Determine the response of space radiation dosimeters to heavy ions of charge and energy similar to that found in the galactic cosmic radiation (GCR) spectrum. Compare response and sensitivity of various space radiation monitoring instruments. Aid in reconciling differences in measurements made by various radiation instruments during space flight. Establish and characterize a heavy ion reference standard against which space radiation instruments can be calibrated.

Feb. 11-13, 2002 May 23-28, 2002 Feb. 3-6, 2003 May 19-30, 2003 Sep. 24-26, 2004 Sep. 13-17, 2005 History of ICCHIBAN 1 st ICCHIBAN Experiment (For Active Detectors) 2 nd ICCHIBAN Experiment (For Passive Detectors) 3 rd ICCHIBAN Experiment (For Active Detectors) 4 th ICCHIBAN Experiment (For Passive Detectors) 1 st Proton ICCHIBAN Experiment (For All Detectors) 5 th ICCHIBAN Experiment (For Active Detectors) 6 th ICCHIBAN Experiment (For Passive Detectors) 1 st NSRL ICCHIBAN Experiment (For All Detectors) 7 th ICCHIBAN Experiment (For Active Detectors) 8 th ICCHIBAN Experiment (For Passive Detectors) C400, Fe400 He150, C400, Si490, Fe500 Si800, Fe500 He150, C400, Ne400, Fe500, Sep. 6-7, 2003 p70-250 Feb. 14-17, 2004 June 4-15, 2004 Sep. 13-17, Oct. 22, 2005 He150 C135, Ar500, Kr400, p1000, O1000, Fe1000 O400, Fe300 He150, O400, Ar500, Fe200,

ICCHIBANs for active detectors Ion proton Nominal Energy (MeV/u) Nominal LET in water (kev/µm) Beam Shape 70-250 0.393-0.961 Wide Proton 1000 0.221 Wide NSRL He 150 2.19 Wide 5 C 400 10.7 2cmφ 1 O 400 19.4 2cmφ,Wide 7 1000 14.1 Wide NSRL Si 800 45.8 2cmφ 3 Fe 300 235 2cmφ (?) 7 400 202 2cmφ 1 500 182 2cmφ 3 1000 147 Wide NSRL Run Name of ICCHIBAN

Ion ICCHIBANs for Passive Detectors Proton Nominal Energy (MeV/u) Nominal LET in water (kev/µm) Run Name of ICCHIBAN 70-250 0.393-0.961 Proton 1000 0.221 NSRL He 150 2.19 2,4,8 C O 135 20.8 6 400 10.7 2,4 400 19.4 8 1000 14.1 NSRL Ne 400 30.1 4 Si 490 54.4 2 Ar 500 92.3 6,8 Fe 200 299 8 500 183 2,4 1000 147 NSRL Kr 400 396 6

Covered LET Region in ICCHIBAN Exp. 1GeV proton He 1,3,5,7 (active) C,O Ne, Si Ar Fe Kr 2,4,6,8 (passive) Proton (both) NSRL (both) T.Doke et al., Rad. Meas. 33 (2001) 373

Call for Results We would like to summarize the results from 5th and 6th HIMAC- ICCHIBAN and 1st NSRL-ICCHIBAN experiments. Would you please send us your reports by Dec. 31, 2006. We will open the exposure records.

ICCHIBAN Experiments in September 2005 ICCHIBAN-7 for Active Dosimeters Sep.13-15, O 400 MeV/u pencil beam Sep. 16-17, Fe 300 MeV/u pencil beam Sep.15, O 400 MeV/u, 10 cm diameter wide beam ICCHIBAN-8 for Passive Dosimeters Sep. 13 (Ar),15(O),17(He) and Oct.22(Fe) 10 cm diameter wide beam

ICCHIBAN-7 Participants Name Institute Nation Detector R-16 IBMP Russia ion chamber DB-8 semiconductor detector DOSTEL Kiel Univ. Germany semiconductor detector ISS-TEPC NASA JSC USA proportional counter IV-CPDS semiconductor detector Liulin-4J NIRS Japan semiconductor detector Liulin-5 STL-BAS Bulgaria semiconductor detector RRMD-III Waseda Univ. Japan semiconductor detector HAWK-TEPC ARCS Austria proportional counter HAWK-SiPC proportional counter Baseline measurement LBNL USA semiconductor detectors, TOF

ICCHIBAN-7 TOF Configuration PSD absorber SC Beam pipe Aluminum 20mm detector

The Beam Profile measured with PSD (Viewed from downstream) ICCHIBAN-7 Oxygen 400 MeV/u Sep.13, 2005 (No absorber) Horizontal 2.5 cm Vertical 2 cm

ICCHIBAN-7 Oxygen 400 MeV/u Wide Beam Range in Water 192. mm ~ 1% within 8 cm diameter Actual Energy 384 MeV/u LET in Water 32.7 kev/µm Bragg curve measured using a binary filer system Uniformity of dose measured with a ion chamber

ICCHIBAN-7 Fe 300 MeV/u Wide beam because of a unexpected placement of a monitor. The Beam Profile measured with PSD (Viewed from downstream) The monitor is a parallel plate ion chamber with 0.6 mm thickness of Aluminum. It was placed at about 15m upstream from the exposure port. The center of beam was shifted by Q magnets because of the energy loss at the monitor. The beam size was wider than the scintillator (5cm x 5cm).

ICCHIBAN-8 Ion Ar 500 MeV/u (Sep.13,2005) O 400 MeV/u (Sep.15) He 150 MeV/u (Sep.17) Fe 200 MeV/u (Oct.22) Beam intensities 50mGy in H 2 O 5000 particles/cm 2 Absorber No absorber PMMA (Binary Filter System) Total 8 or 16 packages for Known Exposure and 6 packages for Blind Exposure

ICCHIBAN-8 IMBP Participants SCK-CEN INP NRPB ERI KFKI ATI JSC JAXA NPI Yerevan DLR NIRS OSU

ICCHIBAN-8 Estimated LET Beam Helium 150 Oxygen 400 Argon 500 Iron 200 He150 Actual energy (MeV/u) 145 384 461 121 Fe200 Ar500 O400 Range in H 2 O (mm) LET in H 2 O 147 192 122 9.3 2.25 19.7 95.6 422 (kev/µm) With PMMA Absorber thickness 114.74 100.14 52.5 3.45 (mm H 2 O) LET in H 2 O with absorber 4.22 32.7 114 513 (kev/µm) Bragg curves measured with Ion Chamber using a binary filer system Calculated by SRIM 2003

ICCHIBAN-8 Beam Profiles No absorber Relative dose (%) O400 Ar500 He150 Fe200

ICCHIBAN experiments soon BRADOS / 2 nd Space Intercomparison (SI- 2) December 2006 CERF-ICCHIBAN October 2006

CERF-ICCHIBAN Plan of CERF ICCHIBAN Local Organizer M. Hajek & T. Berger For passive dosimeters Exposure time: ~24 hours Total dose: ~10mSv Schedule: Oct. 06 Neutron spectral fluencies (lethargy) Photon spectral fluencies (lethargy)

Summary Since 2003, we performed 10 ICCHIBAN runs. (8 in NIRS, 1 in Loma Linda Univ., 1 in BNL) 7 th and 8 th ICCHIBAN were performed on September 2005. We will publish the results from 3 rd and 4 th ICCHIBAN experiments as a HIMAC Report very soon. Please send us your reports of 5 th and 6 th HIMAC- ICCHIBAN and 1st NSRL-ICCHIBAN experiments. In this year, we will perform 1 st CERF-ICCHIBAN and 2 nd Space Intercomparison.