BSO Crystals for the HHCAL Detector Concept

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Transcription:

BSO Crystals for the HHCAL Detector Concept Fan Yang 1, Hui Yuan 2, Liyuan Zhang 1, Ren-Yuan Zhu 1 1 California Institute of Technology 2 Shanghai Institute of Ceramics 1

Homogeneous Hadronic Calorimeter A Fermilab team (A. Para et al.) proposed a total absorption homogeneous hadronic calorimeter (HHCAL) detector concept to achieve good jet mass resolution by measuring both Cherenkov and Scintillation light. Requirements for the Materials: BSO SIC2211 ILCWS-08, Chicago: a HHCAL cell with pointing geometry Cost-effective material: for 70~100 m 3 Short nuclear interaction length: ~ 20 cm. Good UV transmittance: UV cut-off < 350 nm, for readout of Cherenkov light. Some scintillation light, not necessary bright and fast. Discrimination between Cherenkov and scintillation lights, in spectral or temporal domain. 2

Candidate Crystals for HHCAL Cost-effective, dense, UV transparent crystals with both scintillation and Cherenkov light BSO SIC1305 Parameters Bi 4 Ge 3 O 12 (BGO) BSO SIC2211 BSO SIC2211 BSO SIC2223 PbWO 4 (PWO) PbF 2 PbFCl Bi 4 Si 3 O 12 (BSO) ρ (g/cm 3 ) 7.13 8.29 7.77 7.11 6.8 λ I (cm) 22.8 20.7 21.0 24.3 23.1 n @ λ max 2.15 2.20 1.82 2.15 2.06 τ decay (ns) 300 30/10? 3 100 λ max (nm) 480 425/420? 420 470 Cut-off λ (nm) 310 350 250 280 300 Light Output (%) 100 1.4/0.37? 2 20 Melting point ( o C) 1050 1123 842 608 1030 Raw Material Cost (%) 100 49 29 29 47 IEEE Trans. Nucl. Sci. 59 (2012) 2229-2236 3

SIC BSO Samples BSO SIC1309 BSO SIC1305 BSO SIC1305 BSO SIC2211 BSO SIC2211 BSO BSO SIC2223 SIC2211 BSO SIC2223 Sample ID Received Date Dimension (mm 3 ) BSO SIC1305 2/25/2013 20 20 200 BSO SIC1309 2/25/2013 20 20 200 BSO SIC2211 9/26/2012 15 15 200 BSO SIC2223 9/26/2012 20 20 200 Polish Six faces Six faces Six faces Six faces Experiments Longitudinal Transmittance (LT), Light Response Uniformity (LRU) and Light Output (LO) were measured at room temperature before, during and after the irradiation processes. 4

Longitudinal Transmittance The LT of SIC2211 between 500 to 800 nm approaches the theoretical limit There is no obvious absorption band observed in the LT of SIC1309 SIC1305 SIC2211 SIC1309 SIC 2223 There are absorption centers or scattering centers in all the samples. LT of SIC2211 & SIC1309 implies that the quality of BSO crystals can be improved 5

LO and Decay Kinetics SIC1305 SIC2211 All four samples show consistent decay time of about 100 ns. SIC1309 shows the highest LO because of its better LT. SIC1309 SIC 2223 6

Pulse Height Spectra SIC1305 SIC2211 SIC1309 SIC 2223 The average energy resolution (FWHM) of all samples is about 45% by a Cs-137 source. Sample SIC1309 has the best ER: 37%. 7

LRU with Alternative Coupling Ends SIC1305 SIC2211 PMT SIC1309 SIC 2223 The LRUs of SIC1309 approaches 0% for both end couplings, which is the ideal LRU for a rectangular crystal with good transparency. The negative δ values of -2% for other 3 samples indicate significant internal absorption. 8

Dose Rate Independent Damage in SIC2223 Damage in SIC2223 does not recover, so is dose rate independent SIC2223 was irradiated with defined integrated dose step by step 9

LRU and LO of SIC2223 before and after IR Damage in both EWLT and LO is saturated after 10 5 rad, indicating that the total defect density is limited. 10

Dose Rate Dependent Damage in Other BSO Damage in SIC1305, 1309 and 2211 recovers, so is dose rate dependent. They were irradiated with fixed dose rate SIC1309 is the best in radiation hardness SIC1305 SIC1309 SIC2211 11

LT after Reaching Equilibrium Sample SIC1309 has the lowest degradation SIC1305 SIC1309 SIC2211 12

LRU After Reaching Equilibrium LRU of 1305/2211 changed significantly while that of 1309 did not SIC1305 SIC1309 SIC2211 13

Color Center Analysis for Dose Rate Independent SIC2223 after 10k and 1M rad DDDDDDDDDDDDDDDDDDDD ffffffffffffff nn 2 = 0.935λλ2 λλ 2 0.060 +2.990 - Handbook of Optics, 3rd edition, Vol. 4. McGraw-Hill 2009 - http://refractiveindex.info Its RIAC can be decomposed to 2 Gaussian bands. 14

Color Center Analysis for SIC1309 3 Gaussian bands are needed to fit RIAC in SIC1309 15

Color Center Analysis for SIC 1305/2211 4 Gaussian bands are needed for SIC1305/2211 16

Summary: Color Center Analysis Measurements of recovery are under way to understand the dynamics of defect centers Color Center 1 Color Center 2 Color Center 3 Color Center 4 A 1 E 1 σ 1 A 2 E 2 σ 2 A 3 E 3 σ 3 A 4 E 4 σ 4 10 2 rad - - - 0.47 2.97 0.64 0.60 3.65 0.25 - - - BSO SIC2223 10 4 rad - - - 2.07 2.97 0.64 1.62 3.65 0.25 - - - 10 6 rad - - - 2.53 2.97 0.64 2.07 3.65 0.25 - - - 2 rad/h 1.13 2.31 0.14 0.78 2.97 0.16 1.62 3.65 0.40 5.32 3.97 1.10 BSO SIC2211 8 rad/h 2.18 2.31 0.14 1.69 2.97 0.16 3.74 3.65 0.40 9.87 3.97 1.10 30 rad/h 3.08 2.31 0.14 2.51 2.97 0.16 5.41 3.65 0.40 14.17 3.97 1.10 2 rad/h 0.92 2.31 0.14 0.41 2.97 0.16 1.62 3.65 0.40 3.40 3.97 1.10 BSO SIC1305 8 rad/h 2.18 2.31 0.14 1.60 2.97 0.16 4.64 3.65 0.40 6.93 3.97 1.10 30 rad/h 3.04 2.31 0.14 2.37 2.97 0.16 6.95 3.65 0.40 9.96 3.97 1.10 2 rad/h 0.23 2.31 0.29 0.80 2.97 0.34 1.22 3.65 0.35 - - - BSO SIC1309 8 rad/h 0.56 2.31 0.29 1.22 2.97 0.34 2.08 3.65 0.35 - - - 30 rad/h 0.77 2.31 0.29 1.36 2.97 0.34 2.38 3.65 0.35 - - - 17

Summary Because of (1) high density of 6.8 g/cm 3, (2) good UV cut-off edge at 300 nm, (3) emission peak at 470 nm, (4) 100 ns scintillation decay time, (5) good light output (20% of BGO) and (6) potential low cost BSO crystals are a good candidate material for the HHCAL detector concept. SIC2211 shows good transmittance approaching the theoretical limit at wavelength of longer than 500 nm. SIC1309 shows good transmittance, light output and light response uniformity. Its radiation hardness under gamma-ray irradiations is also better than other samples. Progresses have been made in the crystal growth at SIC. BSO crystals satisfying HHCAL specifications, however, need still to be developed after further improvement. Color center analysis shows BSO crystals of three types. Additional works are needed to further understand the origin and dynamics of these color centers. 18