GEM chambers for SoLID Nilanga Liyanage. University of Virginia

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GEM chambers for SoLID Nilanga Liyanage University of Virginia

PVDIS GEM configuration Current proposal to instrument locations 4, 5, 6, 7, and 8 with GEM: need to determine the number of GEM layers required and their locations, using the simulation 30 GEM modules at each location: each module with a 10-degree angular width. Plane Z (cm) R I (cm) R O (cm) Active area (m 2 ) 4 120 40 90 1.7 5 150 55 115 2.7 6 190 65 140 4.0 7 290 105 200 7.6 8 310 115 215 8.6 total: ~ 25 Outline of a GEM module

Suggested readout scheme: a 2D readout optimized to get high accuracy in the φ coordinate, lower but sufficient resolution in the r coordinate. each set of stripes parallel to one of the radial sides of the module: i.e. stripes at a 10-deg stereo angle to each other. strip pitch is 0.6 mm for locations 7 and 8; 0.4 mm for locations 4, 5 and 6. Issues: PVDIS GEM configuration A full tracking simulation needs to determine that this readout scheme gives the required tracking resolution. How well will the 10-deg stereo angle separated strip layers work? need to test with prototypes.

PVDIS GEM configuration For this readout scheme readout channel estimation Plane Z (cm) R I (cm) R O (cm) # of channels 4 120 40 90 24 k 5 150 55 115 30 k 6 190 65 140 36 k 7 290 105 200 35 k 8 310 115 215 38 k total: 164 k with 20% spares, we will need about 200 k channels. Simulations and prototypes may indicate that we need more channels for high rate tracking; can be as much as 300 k total. Good news: cost of electronics going down cost per channel for the RD51 SRS APV-25 based readout is estimated to be ~ $ 2.50 - $ 3.00 The total cost of readout electronics can be less than $ 1 M

SIDIS GEM configuration Six locations instrumented with GEM: PVDIS GEM modules can be re-arranged to make all chamber layers for SIDIS. move the PVDIS modules closer to the axis so that they are next to each other Plane Z (cm) R I (cm) R O (cm) Active area # of channels 1 197 46 76 1.1 24 k 2 250 28 93 2.5 30 k 3 290 31 107 3.3 33 k 4 352 39 135 5.2 28 k 5 435 49 95 2.1 20 k 6 592 67 127 3.7 26 k total: ~18 ~ 161 k PVDIS SIDIS More than enough electronic channels from PVDIS setup. The two configurations will work well with no need for new GEM or electronics fabrication.

large area GEM chamber challenges SoLID needs GEM modules as large at 100 cm x 40 cm. The biggest challenge used to be the non-availability of large area GEM foils. Not a problem anymore: CERN shop can make foils as large as 200 cm x 50 cm now. One problem may be the production capacity of the CERN shop: especially if a LHC related large GEM project gets underway. Need to develop large GEM production capabilities in China.

Bottom-line With the strong effort led by RD-51 towards large GEM chambers and readout electronics: Costs are coming down Many technical challenges are overcome But SoLID is a very large and very complicated GEM project from any standard; no one has ever done anything even close to this size. We are soon starting on SBS GEM construction, this is about half the size of the SoLID GEM project. So with large GEM chamber construction for SBS in Rome and at Uva and with the infrastructure and expertise we gain from the SBS project we would be ready for the SoLID GEM construction in a couple of years.

GEM size With existing equipments 1.5m x 0.5m active area Mid 2011: 2m x 0.5m active area Volumes With existing equipment: 10 GEMs/month.technician We can hire one more technician Mid 2011: 24GEMs/month.technician (240GEM/year) With some offers for large volume production we start to see the limit price of the GEMs : in the range of 600 CHF/sqr.meter 30/09/2010 Rui De Oliveira 8

Major recent development at CERN PCB shop towards large GEM foils Base material only ~ 45 cm wide roll. Used a double mask technique for etching: hard to the two masks accurately: Max area limited to ~ 45 cm x 45 cm previously. Bias top surface to w.r.t chemical bath Double Mask Single Mask Single Mask technique allows to make GEM foils as large as 200 cm x 50 cm

Major recent development towards large GEM foils Splicing GEM foils together: seam is only 2 mm wide Performance of the rest of the GEM foil unaffected

TOTEM T1 prototype chamber made with single mask GEM foils spliced together (33 cm x 66 cm) Base material up to 51.4 cm wide now available CERN plans to buy equipment capable of producing 200 cm x 50 cm GEM foil. This combined with Splicing: 200 cm x 100 cm GEM foil may be possible in the next two years

Recently, a very large prototype GEM module for CMS was constructed and tested at CERN 99 cm x (22 45.5) cm very close the the dimensions of largest SoLID chambers

UVa GEM development status Beam test at Mainz in September with 10 cm x 10 cm prototype chambers and APV-25 electronics. Construct two 40 cm x 50 cm prototype chambers this Fall GEM and readout foils already ordered Expect chamber construction in October Move to Jlab and beam testing with APV-25 electronics: November-May The 40 cm x 50 cm prototypes Size: 40x50 cm 2 active area + 8 mm frame width 2D strip readout (a la COMPASS) - 0.4 mm pitch INFN is now going into 40x50 cm 2 GEM module production for SBS The INFN 40 cm x 50 cm prototype: the Uva chambers will be similar with 13 small modifications

UVa GEM development status At present preparing lab for large prototype production Refurbish the clean room with new filters etc. Dry Nitrogen high voltage boxes for GEM foil testing Dry Nitrogen storage cabinets for foil storage (to minimize oxidization effects) mechanical stretcher for GEM foils. Etc. etc. mechanical stretcher for GEM foils Dry Nitrogen cabinets for foil storage 14

UVa GEM development status Funding received under EIC detector R&D for a large prototype: ~ 100 cm x 40 cm section of a circle. Close to large chamber module sizes of SoLID Plan to fabricate this chamber in the spring. Can learn a great deal for SoLID GEMs from this develop techniques for fabrication of large GEM modules. study readout schemes: 10 degree stereo angle Study issues of signal to noise ratio for long readout strips. 15

Uva group now owns an APV25 system (2000 chan.) from the RD-51 Scalable Readout System (SRS) development. SRS system cost is lower; plus has the benefit of the large team effort backed by RD-51 RD-51 plans to commercialize the fabrication; there will be the possibility to get very large systems in the future. 16

Electronics Uva is also getting another APV-25 based prototype readout system (2800 chan.) from the INFN group Some delays due to problems at the company fabricating the boards; hope to get soon 8 mm 2D Readout 49.5 mm Up to 10m twisted, shielded copper cable 75 mm 17

rough cost estimate Item Quantity Unit cost Total cost Material only unit cost Material only total cost GEM foil ~100 m 2 $2000/m 2 0.2 M $3000/m 2 0.2 M readout boards 120 $ 2500 0.3 M $ 2500 0.3 M chamber support frame 120 $ 1500 0.2 M $ 1500 0.2 M Supplies and tooling 0.1 M 0.1 M FEE and DAQ 200 k $ 3.0 0.6 M $ 3.0 0.6 M cables, power, etc 0.5 M 0.5 M Gas system 0.1 M 0.1 M Labor: Technicians 12 FTE-years $ 80 k 1.0 M - Labor: Grad students support structure and integration 6 studentyears $ 50 k 0.3 M -?????? TOTAL: ~ 3.3 M ~ 2.0 M With 33% contingency R&D and prototyping expenses: ~ $ 150 k ~4.4 M ~2.7 M