Remembering PWO Radiation hardness studies at IHEP, Protvino Y. Kubota.

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Presentation transcript:

Remembering PWO Radiation hardness studies at IHEP, Protvino Y. Kubota

Anything to learn? Main concerns of ours. –Any permanent damages in PWO which accumulate over time due to hadronic interactions? –Any damages to scintillation mechanism in addition to color center formations? –LO uniformity changed?

Irradiation facilities Intensive electron beam (27 GeV) –~0.25 Gy/h (10 6 e’s/spill) spill~10sec Intensive pion beam (40 GeV) –~0.6 Gy/h (10 7 pi’s/spill) CsI source facility –~0.5 Gy/h (?) Downstream of internal target –1 kGy/h – normal U70 operation –10 Gy/h – special U70 runs

Uniqueness Beam-based irradiation facility used the beam to monitor the light output. –No wait time, no need for transport to make measurements PMTs were also exposed radiation, and could be affected by it. –No glue was use to avoid its degradation. PMT gains were changing depending on the beam rate. –Using stable red LED light source to monitor the gain changes and radiation effect on PMT (window). –Is the red light transmission in PWO really unaffected by radiation?

CMS barrel-like dose rate Dose profile along the length of crystal. Pion beam Electron beam

Electron irradiation Saturated LO loss as expected.

No cumulative damages from pions? Exposure to pions 0.6 Gy/h, 35 Gy total (about primary pions)

Very high dose rate 1 kGy/h Apparent cumulative effect at this extreme high dose rate. Shanghai Bogoroditsk

Composition of 1 kGy/h MC (MARS) estimate of composition of particle flux.

10 Gy/h 4 crystals (2 BTCP, 2 SIC) 3.5 (SIC) – 7 (BTCP) Gy/exposure

10 Gy/h (2) LO Loss of <10 % (SIC); ~ 25% (BTCP) 5 days of recovery – no significant change, however. Additional irradiation produced no further loss within a few % systematic errors  Consistent with no cumulative damages.

LY uniformity changes High dose (1 kGy) Low dose 0.1 Gy

Scintillation mechanism damages? 0.1 Gy/h, 30 hours using pion beam ~2 cm wide region in z

Uniformity LY uniformity was measured using MIP signal

Scintillation mechanism damage No effect seen at 1% level using 0.1 Gy/h, 3 Gy total radiation level.

Conclusions At 0.1 – 0.2 Gy/h, 10 Gy accumulated, –damage levels seem to saturate, and no cumulative effects seen. –No scintillation mechanism damage observed (1% level) – 3 Gy total dose At 1 kGy/h, 10 kGy total dose, –significant light loss, –uniformity changes and –likelihood of cumulative effect At 5-10 Gy/h, Gy total dose, –no cumulative effect observed within 3% error.