1. Single Phase Test at CERN David Montanari / Johan Bremer / Jack Fowler / Dimitar Mladenov Apr 2, 2015 Rev. 2

2. Outline Intro Cryostat Infrastructures Detector installation Cryogenic systems Summary 2Apr 2, 2015Single Phase test at CERN

3. Intro The goal of this prototype is to do a test of a full scale single phase detector composed by flat panels called TPCs that hang from the roof. Each panel is about 2.5 m wide, 6.3 m tall and 0.16 m thick and weights about 600 kg. The general idea is to build a flexible facility that can potentially host other detectors in the future (including 6.9 m tall one, with same other dimensions). Similar in dimensions to the WA105 cryostat, but not identical. Current external dimensions: 10,082 mm (Transv) x 12,322 mm (Parallel) x 11,291 m (Height). The goal is to be able to run the detector before the long shut-down (mid 2018). These slides present the infrastructure requirements (as currently known) for the cryostat and cryogenic systems. 3Apr 2, 2015Single Phase test at CERN

4. Current assumptions Dimensions from EHN1 drawing: – Hook height above floor of pit B: 18,900 mm. – Hook clearance over top cap: 7,609 mm. Dimensions from detector design: – Detector height: 6,289 mm. – Clearance for detector installation (between height of detector and hook over cryostat): 1,320 mm. How much of this is needed for rigging and handling? Beam direction from interaction between Cheng-Ju and Ilias. 4Single Phase test at CERNApr 2, 2015

5. EHN1 Single Phase test at CERN5 WA105 cryostat Pit B Bridge Crane Single Phase Test cryostat Apr 2, 2015

6. Crane clearance above cryostat Single Phase test at CERN6 Hook height 9,900 mm above gallery floor Current hook height above cryostat as modeled 7,609 mm top cap thickness included Pit B depth 9,000 mm Apr 2, 2015

7. Plan view (From Ilias) Single Phase test at CERN7Apr 2, 2015 WA105 cryostat Pit B Single Phase Test cryostat Bridge Crane

8. Side view of cryostat w beam orientation Single Phase test at CERN8 Top cap Outer Structure Liquid level Detector panels Insulation Membrane ~6° 5,000 mm Beam Apr 2, 2015 11,291

9. Top view of cryostat w beam orientation ~10° Primary Orientation 10° Outer structure Insulation Membrane Apr 2, 2015Single Phase test at CERN9 10,082 12,322

10. End view of cryostat w beam orientation 10 5,000 mm ~1,500 mm Beam entrance points on the upstream side of the cryostat: Primary: at the center of the cryostat (North-South direction) and ~5,000 mm from the floor. Secondary: same height as the primary beam position, but with 1,500 mm offset to the North. North South Apr 2, 2015Single Phase test at CERN 11,291

11. Top plate Metal plate reinforced with profiles/beams anchored to the membrane cryostat support structure with several penetrations of different size including two removable hatches and a manhole. Current dimensions: 10,082 mm x 12,322 mm x 1,500 mm (thick). Large hatch: 3,550 mm x 2,000 mm (in the current model). Small hatch: 2,000 mm x 1,000 mm (in the current model). Weight of top plate: > 25 ton Need appropriate lifting device(s) for positioning the top and the different parts that constitute it. The design is connected to the installation procedure and has to allow for different detector configurations. 11Single Phase test at CERNApr 2, 2015

12. Preliminary thinking on top design Apr 2, 201512Single Phase test at CERN Large hatch Reinforcements Penetrations Large hatch Beam

13. Beam window Most likely two, depending on the final shape and direction of the beams. Design has just started, more details available in the near future. Which codes need to be followed for the design?? 13Single Phase test at CERNApr 2, 2015

14. Detector Installation

15. Detector Installation Plan(s) Currently there are two concepts on how the detector could be installed: 1)Install the detector panels by passing TPC components through a large hatch in the top cap of the cryostat. (See backup slides for some older conceptual slides). 2)The second is to build the detector directly in the cryostat without the top cap using temporary supports. Once complete, attach to the underside of the top cap. Then lower the complete assembly. (See backup slides for some older conceptual slides). Potential problems with cryogenic installation. How does the beam window(s) influence installation? Are there space limitations in the building? Personnel access: need two paths. When is the cryogenic piping installed? This will influence the amount of installation space available. Single Phase test at CERN15Apr 2, 2015

16. Installation Option 1: TPC lowered inside Cryostat Single Phase test at CERN16Apr 2, 2015

17. ParameterValue Current cryostat footprint (estimate)12,322 mm (L) x 10,082 mm (W) Work area around the top of the cryostat (platform type)2.0 m around the whole perimeter Lay down spaceTBD Clean Room space Class 10,000 where TPC components are assembled and installed. Size depends on installation technique. Crane coverageOver the cryostat and the lay down space Crane capacity for TPC (Not including the top of the cryostat) 5 ton (needs feedback from the design of the top plate). Could be the current overhead crane, but how can we integrate it inside the Clean Room ?? Could use a floor mounted gantry ?? Minimum hook height above the cryostat for TPC installation4.5 m + lifting fixture (TPCs are rotated prior to insertion) Lighting UV filtered lights are needed in all work areas where the photon detectors are exposed. Ventilation Appropriate additional ventilation when working inside the cryostat. ScaffoldingUp to 7.0m in height inside the cryostat. Power outlets For portable tools and welding machines inside the cryostat Cryostat Infrastructures Requirements 17Apr 2, 2015Single Phase test at CERN Note: some of the requirements need input from the design of the top plate, the outer structure and the beam window. They also need to be integrated with the installation process.

18. Current electrical requirements (Preliminary) The cryostat membrane and any supporting structure need to be isolated from any building metal or building rebar with a DC impedance greater than 300 kOhm. The cryostat, or “detector” ground, shall be separated from the “building” ground. A safety ground network consisting of saturated inductors to be used between detector ground and building ground. Single Phase test at CERN18Apr 2, 2015

19. Electronics and Computing Electronics Racks on top of the cryostat: safety, cooling, smoke detection, rack protection and their proximity to the detector and feedthroughs. Racks for computers. Info on Cables/Racks is being collected and will be submitted by end of April as requested in Feb by Guillaume Gros. Clean power with separate grounding for detector. How much ?? Normal power for all the rest. How much ?? Control room space for DAQ and detector monitoring. Single Phase test at CERN19Apr 2, 2015

20. External Cosmic Counters Need to determine if/how much coverage is needed and on what sides. There would required mechanical supports on the outside of the support structure. Access space to install and instrument will be needed around the perimeter of the cryostat. Rack space will be needed along with cable trays from the counters to the racks. Single Phase test at CERN20Apr 2, 2015

21. Cryogenic System

22. Apr 2, 2015Single Phase test at CERN22 PFD of LAr system (Preliminary)

23. Apr 2, 2015Single Phase test at CERN23 PFD of LN2 system (Preliminary)

24. Cryogenic Systems Requirements (Preliminary) To the extend possible, we want to design a portable system that could be fabricated and tested in one place and installed at destination in another, with quick connections to/from cryostat. External Cryogenics  can be located anywhere, will probably be outside of the building. Internal Cryogenics  inside the cryostat. Proximity Cryogenics  several locations: – Condenser (and maybe LN2 dewar/phase separator) will have to be located above the roof of the cryostat or nearby, but higher than the roof of the cryostat. – LAr circulation pump at the back of the cryostat, on the floor, as low as possible. – Penetrations through the top of the cryostat, in the back region. – GAr purge in the insulation two in and two out at a certain elevation with piping going to the rest of the system. – The remaining can be located where space permits, preferably in the vicinity of the cryostat. LAr/LN2, GAr/GN2 piping will connect Proximity/External/Internal cryogenics. The design will inform on size and specific location. Apr 2, 2015Single Phase test at CERN24

25. Summary External dimensions are: 11,291 mm (H) x 12,322 mm (L) x 10,082 mm (W). The cryostat is ~10 degrees rotated with respect to the beam. The goal is to be able to run the detector before the long shut- down (mid 2018). Several options are available for the installation of the detector from outside and inside. They depend on the detector configuration, the design of the top cap and beam window, and the infrastructures available in EHN1. The number of racks, amount of power, # of cables, etc. also depend on the detector configuration. More defined space/infrastructure requirements will be provided in the coming months as soon as the design proceeds. 25Single Phase test at CERNApr 2, 2015

26. Backup

27. CONCEPT 1 NEEDS UPDATING WITH NEW TPC CONFIGURATION AND CRYOSTAT 27Single Phase test at CERNApr 2, 2015

28. Manipulating the TPC components 28Single Phase test at CERNApr 2, 2015

29. Manipulating the TPC components II 29Single Phase test at CERNApr 2, 2015

30. Manipulating the TPC components III 30Single Phase test at CERNApr 2, 2015

31. CONCEPT 2 NEEDS UPDATING WITH NEW TPC CONFIGURATION AND CRYOSTAT 31Single Phase test at CERNApr 2, 2015

32. Installation hardware with CPA support rail 32 Support rail length is shorter than top cap width. This rail will be fixed and supported from the underside of the top cap later. The rail is positioned close to the edge of the cryostat for allow personnel access to the hangers from the top edge of the containment vessel. Assume the top edge of cryostat can support load and that people can work there. Single Phase test at CERNApr 2, 2015

33. Moving CPA over Cryostat and rotation 33 Assume that there are 2 lifting devices from the crane bridge and they can be operated at the same time to rotate the TPC planes. The planes would be lifted on edge horizontally over the cryostat. One lifting device would be lowered while the other is stationary to perform the rotation of the object. Single Phase test at CERNApr 2, 2015

34. Positioning and attachment of CPAs to support rail 34 Once rotated the lower cable would be disconnected from the plane and the upper connection would be used to move the plane under the support rail. The plane would be connected to the support rail by personnel working from the top of the containment vessel. The second plane would be moved in and connected to complete the 1 st CPA plane assembly. Single Phase test at CERNApr 2, 2015

35. Translate CPA plane assembly to opposite side of Cryostat 35 Once completed, we would translate the 1 st CPA plane assembly to the opposite side of the cryostat. This could be done with rollers on the cryostat or using the overhead crane. Single Phase test at CERNApr 2, 2015

36. Install APA planes and translate 36 Install the APA rail and the two APA planes in a similar method. Then translate the APA planes to opposite end of the cryostat with the other CPA plane. Single Phase test at CERNApr 2, 2015

37. Install the 2 nd set of CPA planes 37Single Phase test at CERNApr 2, 2015

38. Position the 3 TPC planes 38 After positioning the 3 planes to their final positions with respect to the cryostat walls and each other, install the end field cages. These could be supported from the APA and CPA rails. How to deploy the upper field cages? When and how to cable the APA planes? The lower field cages could stored on the floor of the cryostat and connected at this point. Single Phase test at CERNApr 2, 2015

39. Install Top Cap 39 Bring the top cap over the 3 TPC planes and lower to the support rails. Connect the ends of the support rails to the hangers on the underside of the top cap. The HV probes could be installed through the top cap at this point into their receptacles on the CPAs. The APA cables could be “fished” through the service feed thru for connection later. Remove the installation hardware from the ends of the support rails. Lower the top cap and the TPC down in the cryostat. Single Phase test at CERNApr 2, 2015

40. Example: Layout of LBNE 35 ton racks Trig_ScintTPC_PDPurity MonitorCalibrationDAQ_1DAQ_2 RPS 1 Empty 2 Cable DressingEthernet Switch-2NIM BinCamera SystemNova Timing Master 3 CCU4Wire Manager 4 ANL Calibration Module Ethernet Switch-1 5 Empty Wire Manager 6 Cable Dressing Empty 7 CCU3 Fan PC-1 8 8 x SSPEmpty 9 PM Multiplexer PC-2 10 11 Penn Trig board Empty PC-3 12 SurgeX 13 Empty 14 Nova Timing MasterWiener MPOD-Wire/FCPCIU Calibration SystemPC-4 15 16 Empty PC-5 17 Nova Timing Slave NIM Bin 18 PC-6 19 Empty 20 Nova Timing Slave Empty 21 PC-7 22 Empty Fan 23 NIM BinEmpty PC-8 24 Wiener MPOD-LV 25 PC-9 26 27 Empty 28 Fan ATCA Shelves 29 Empty 30 CCU2 31 Fan/Plenum 32 Cable Dressing 33 Empty 34 CCU1Nova Timing Master Crate Power Supply 35 36 Cable Dressing Empty37 Empty Impedance Monitor38 AC Switch Box Empty 39 Empty40 AC Switch Box 41 42 Single Phase test at CERN40 Racks currently on top of Cryostat Apr 2, 2015 Note: This is just an example from a smaller detector.

41. Example: Current LBNF Rack Equipment Preliminary List of Detector Electronics Rack types and contents-Per Detector # of racksLocationRack NameRack ComponentsSpace (U)QuantityPower (VA)Power Tot (VA)Notes FDSiPM systemHV Power Supply TBD2 ps/port Caen 5740 ch32, 4 APAs Shaper TBD Power Supply backplane TBD16 channels Splitter TBD SiPM FE amplifier TBD Computer Cold ElectronicsWiener MPOD 808.16482560ch/apa, 10mW/ch. (200W) (4MB/APA) (20APA) 40W/APA=65W*20=1300 1.5V/.6A,2.1V/1A,2.8V/1A,3.6V/.5A,5V/.1A Drift HVPower Supply 4230920-115kV/1mA, Heinzinger PNChp 150000-1 neg/M 230V/1A (1-ph), 400V/1A (3-ph) other avail. TPC Wire BiasWiener MPOD 207140Vg:-1kV,Vu:-1kV,Vx:+1.5kV all 2mA (20APA) Field Cage BiasWiener MPOD 122-1kV/2mA 1710 Computers 15 Rack ProtectionSmoke Sensor 15 assume 15 racks per detector Rack Protection Mon115 120V/<1A PDU (Power Dist. Units) 15 Power requirement based on service. Slow Controls 15 Intl'k Switch215 Hot Spares Rack 3240043200120V/20A service Total (kVA)3 43.20 Single Phase test at CERN41 L. Bagby - FNAL Apr 2, 2015 Note: This is just an example from a much larger detector.

42. Example: Current LBNF Cavern Equipment Preliminary List of Detector 10 kt Cavern Equipment Equip. Name-BLDGQuantityPowerUnitPower (Tot)Generator BackupPower SourceNotes Lighting-Cavern135kVA35yes Lighting-Drifts110kW10yes HVAC-Chiller2149.2kW298.4 200HP HVAC-Circulating Pumps422.38kW89.52 30HP HVAC-Fan Coil Units301.492kW44.76 2HP HVAC-Air handler supply fan114.92kW14.92 20HP HVAC-Air handler exhaust fan114.92kW14.92 20HP Sump Pumps63.73kW22.38 5HP Vent Fans61.492kW8.952 2HP Welding Outlets441.57kVA166.28no (480V/50A)..Millers David Matinary Monorail crane-10 ton-hoist(15)+trolly(1)111.936kVA11.94yes (work cell hoist) 16HP*746 Fire11.5kVA1.5yes Paul-SURF VESDA11.5kVA1.5yes sniffer HSSD system in cryostat11.5kVA1.5yes Halon Nitrogen Booster Compressors4111.9kW447.6no 150 HP each Liquid Argon Pumps45.2kW20.8no 480V Heater Cables212.6kW25.2no Purification Skid (Blowers)228kW46no Purification Skid (Cooling)121.1kW21no Purification Skid (Heating)163.6kW64no System Controls13.0kVA3yes SLAC RCE System Test Area41.8kVA7.2no 3 racks + 1 table + 1 bench 15A service Temporary lighting in cryostat11.3kVA1.3yes 1 W/ft^2 Temporary ventilation in cryostat: blower10.746kVA0.75yes 3-ton, 1HP Temporary ventilation in cryostat: compressor13.9kW3.9yes General air monitoring in cryostat TBD Hoist near hatch-3 ton-hoist(2HP)+trolly(.5HP)11.865kVA1.87yes (hoist in cryostat) 2.5HP*746 Power for potential battery charging station/powered carts16kW6no HEPA filter blower units100.336kW3.36yes similar to uboone clean room Total Power (kVA) 1372.77 Single Phase test at CERN42 L. Bagby - FNAL Apr 2, 2015 Note: This is just an example from a much larger detector.

43. Current cryostat schedule (DRAFT) Preliminary Design: Jan-Jun 2015. Design Review: Jul-Sep 2015. Final Design/Procurement: Oct 2015-Sep 2016. Construction: Oct 2016-Jul 2017. 43Single Phase test at CERNApr 2, 2015