CMS RPC HL-LHC upgrade with fast timing detectors

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Maxime Gouzevitch CMS RPC HL-LHC upgrade with fast timing detectors on behalf of the CMS MUON group ICHEP, SEOUL, 2018 1) RPC upgrade project and motivation 2-3) Requirements and design 4-7) Validation of the prototype

1) CMS RPC upgrade project Improved RPC (irpc) added to the 2 outer stations of the endcap within 2.5 > η > 1.8 Off chamber electronics of the existing RPC chambers modified to take advantage of RPC internal time resolution (not presented). For more details of CMS Muon upgrade see A. Colaleo talk CMS Muon Upgrade IRPC motivation : Redundancy L1 muon trigger. Dedicated HSCP trigger. Documentation : CERN-LHCC-2017-012 2

5.5. Extension of the RPC system 2) Requirements for the irpc chambers 5.5.6 Max expected rate (Safety factor SF = 3 included) 0 1.9 1.8 2.4 600 Hz/cm2 Entries irpc The RE3/ 1 chambers will be mounted on the YE3 partially cover the circular neutron shielding attac cylindrical neutron shielding surrounding thecollar 100 Along-strip position measurement with irpc chamber < T> (ns) coverage Present system Installation and integration CMS, Work in progress 6 80 < T > = 6.66-0.11 Dist 5.5 2 khz/cm2 60 5 40 4.5 4 20 5 Max integrated-1 charge at 3 ab (SF = 3 included) ~ 0.8 C/cm2 ~ 1.0 C / cm2 granularity ~ 0.3 ~ 0.2 resolution ~ 20 cm ~ 2 cm T resolution 1.5 ns < 1 ns 10 15 20 25 Average position: Distance fromfeb the FEB (cm) Average hit hit position from the (cm) Figure 5.28: Left: Measured time difference of the strip ends T2 T1 as a function of the Y position respect to the RPC. Arbitrary origin of the Y axis i arrival between the first strip end and that of the tr 3

3) irpc chambers design Resistivity of HPL: 1-6e10 (RPC) < 2e10 cm (irpc) Gap/electrode thickness: 2.0 mm (RPC) 1.4 mm (irpc) Reduce the pick up charge and operational voltage. Less ageing. Reduce recovery time. Efficiency of extracting pickup charge. Electronic threshold : 150 fc (RPC) 50 fc (irpc) Better sensitivity to reduced charge. 4

4) Validation of irpc detector Located at the end of CERN SPS H4 line that provide 150 GeV Muon beam. Irradiation with a 13 Tbq 137Cs source. We use 4 tracking RPC chambers to study the irpc prototypes. 5

4) Validation of irpc detector A prototype close to full size was designed and built at KODEL laboratory of Korea University to validate the HPL gaps produced in Italy. 166 cm Custom electronics: voltage-sensitive KODEL electronics 96 strips: pitch 1.5 2.8 cm 3 partitions with strips readout from 1 side 92 cm Gas : humidified 50% CMS mixture 95.2 % C2H2F4 + 4.5% isobutan + 0.3% SF6 6

4) Validation of irpc detector WP ~ 6950 V WP ~ 7250 V Source off: 98 % efficiency at Working Point (WP) ~ 7 kv. Background of 2 khz/cm2: 94% efficiency with WP + 300 V. The average charge (or the gain) within the gap is constant at WP optimized for each rate. The irpc charge is 3 times lower than for RPC. 7

5) irpc electonics To BE Preampl. TDC Strip +cmp. GBT Electronics scheme of the project with 2 sided readout: 2 cm resolution in η with limited number of channels. Based on OMEGA ASIC (PETIROC) and Wave union TDC, designed at IPNL. Both sides are connected to Figure 5.29: A detailed scheme of the new high h RPC DAQ system. the same PETIROC to reduce the jitter. FULL SIZE PROTOTYPE 8

6) Proof of principle of the 2-sided readout A prototype with ¼ size of the 2-sided readout was tested in Muon beam in SPS at CERN. Installed on moving table with a position precision < 1 mm. Linear correlation between beam position and timing difference between 2 ends of the strip. 9

7) Electronics calibration for full size prototype 1) Connection of the strips to FEB : Measured impedance of strips ~ 45. Low Radius (LR) 2) Definition of the threshold Alignment = 480 Threshold =500 Connectors High Radius(HR) Solution 1 COAX : connect with coaxial cables. Impedance 50. Solution 2 RETURN : connect with a return line within PCB. Impedance 45. 3) Injected charge for calib.: 2.45*(500-480) = 50 fc/side 10

7) Test of the full size prototype in GIF++ LR pitch = 0.6 cm WP ~ 7150 V Connectors HR pitch = 1 cm Both prototypes was tested in GIF++ in May 2018 and validated with muons and source off : all specifications fulfilled. RETURN chamber is technically easier to handle and to manufacture. 11

7) Test of the full size prototype in GIF++ resolution σ Intrinsic time resolution = V * σδt/2 T(LR) Connectors T(HR) T(COAX) at HR T(RETURN) at HR 12

CONCLUSIONS Several prototype of irpc was validated : 1.4 mm HPL gaps read by 1-side readout electronics was validated with muon beam for background rates up to 2 khz/cm2 in GIF++. A prototype with 2-side readout by PETIROC ASIC and 1.4 mm HPL gaps is validated with muon beam, but without background. Next steps in 2018: To test the prototype with background up to 2 khz/cm2 at GIF++. Build the final prototype.

BACKUP M. Gouzevitch. HH production at the LHC 14

HL-LHC project New Resistive Plate Chambers (irpc) would occupy the 2 outside rings of the endcap. They are associated to respective Cathode Strip Chambers (CSC) stations. 15

CSC ambiguities 16

COAX CHAMBER 17

irpc chambers design Resistivity of HPL: 1-6e10 0.9-2e10 cm Rate capability * 2. RPC irpc Gap thickness: 2.0 mm 1.4 mm Reduce the pick up charge. Less ageing. Reduce operational voltage. Less stress on the system. A thinner electrode is sensitive to nonuniformities. Electrode thickness: 2.0 mm 1.4 mm Reduce recovery time by 30% Efficiency of extracting pickup charge increase by 70%. Rate capability * 2. Electronic threshold : 150 fc 50 fc Better sensitivity to reduced charge. Scheme of a CMS RPC chambers with High Resistivity Laminate (HPL). 18

GIF++ 19

Electronics calibration for full size prototype Low Radius (LR) Turn On = 481 Pedestal = 480 DAC High Radius(HR) 1) Impedance of strips ~ 45. Use 50 lemo cables.* 2) Charge injected to align each channel pedestal. 2) All channels together need extra alignment. Alignment = 480 Threshold =500 *A second prototype uses return line within the PCB 3) Threshold is setup for matched to 45 operations 500. Increased to 510 for full chamber. Channels alignment = 480 4) Calibration with injected charge. Electronics threshold: 2.45*(510-480) = 73.5 fc/side 20