ЭКСПЕРИМЕНТ R3B РЕАКЦИИ С РЕЛЯТИВИСТКИМИ РАДИОАКТИВНЫМИ ПУЧКАМИ НА УСКОРИТЕЛЬНОМ КОМПЛЕКСЕ FAIR (GSI, DARMSTADT, GERMANY) Е.М. МАЕВ.

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ЭКСПЕРИМЕНТ R3B РЕАКЦИИ С РЕЛЯТИВИСТКИМИ РАДИОАКТИВНЫМИ ПУЧКАМИ НА УСКОРИТЕЛЬНОМ КОМПЛЕКСЕ FAIR (GSI, DARMSTADT, GERMANY) Е.М. МАЕВ

: Beam intensities x 10 4, clean beams, more sophisticated detectors GSI FAIR: SIS-100 → Super FRS → experimental setups

RIB production Rates at FAIR

R3B Russian participation: Neutron detector, gamma spectrometer, active target.

Experiments with PNPI active targets 1.Diffraction scattering of high energy hadrons: PNPI(Gatchina, ), IHEP(Serpuhov, ), CERN( ) and SACLEY( ). 2.Muon catalyzed pd, dd, dt, dHe3 fusion: PNPI ( ) and PSI ( ). 3.Muon capture experiments at PSI: Muon capture by He-3(1993), Muon capture by proton ( ) and Muon capture by deuteron from Proton diffraction scattering on nuclei (in inverse kine- matics) and nuclei matter distributions (GSI,from1993). 5. Nucleon polarizabilities (IKP-TUD,from 1999).

new IKAR can be used at FAIR for studies of small angular p-A and He-A elastic and inelastic scattering for heavier A (studies at small momentum transfers) IKAR has been already used to study pHe, pLi, pBe, pB and pC elastic scattering

132 Sn beam Anode Grid Cathode recoiling proton New IKAR chamber A correction on the energy lost in the central dead region It is necessary to exclude a contribution from ionization by the projectile (a simplest version of the anode)

Farouk Aksouh Energy loss and straggling for a 13 Sn132 beam at 700 MeV/u ΔE [MeV/u] δE [MeV/u] δθ [mrad] - cumulative

Multiple Coulomb scattering of the projectile: δθ s ~ Z/A ≈ mrad < t< (GeV/c)2 2 E p < 13 MeV σ tot ≈ 600 mb (in previous exp. – 60 mb) θ s < 1 mrad Farouk Aksouh

Anodes of new IKAR

PNPI can fabricate a new IKAR setup with the relevant electronics Main parameters of the new IKAR: Anode and cathode diameter – 1.0 m, volume ~900 l, pressure – from 1 bar up to 20 bar, 2 sections with the cathode-grid distance of 25 cm, highly segmented anodes: 10 rings of 5 cm width, divided on 20 segments in the azimuthal angle, total number of anodes ~200 channels. Thickness--- 4*10**22 n/cm2 (at 20 bar), luminocity--- 2*10**27 n/cm2/s ( 5*10**4 n/s ), target gases---- H2,D2, He3, He4

(He,He') inelastic scattering Active target from PSI muon capture experiment (MuCap). PNPI TPC in coincidence with Gamma spectrometer (CALIFA).

Cross-sectional diagram of the MuCap detector

Particle-recoil semiconductor detector Ø ≈ 1 м Si detectors d = 100, 300, Si(Li) detectors d = 9 mm, 100x100 mm 2, N ≈ 500. Gamma-detector ~ 10mm x 30 mm x mm

Properties of an active targets - ionization chambers 1. Filling gas--H2, D2, He3, He4… at pressure 1-20 bar. 2. Registration of all charged particles (p,d,t, He3,He4) inside of an active target with the energy in the range of 1-15 MeV. 3. Energy resolution keV(rms). 4. Efficiency of detection charge particles (T>1MeV) is ~100%. 5. Measurements of the interaction point inside of the gas volume with resolution of ~0.5 mm (rms). 6. Angular resolution ~5 mrad (rms) for recoil particles. 7. Avoiding the wall effects on the level of less than 0.1%.