Cryo Mezzanine Design and Requirements. David Montanari, Aurélien Diaz, Kevin Haaf LBNF Cryostat, final design review SURF, August 2017

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Cryo Mezzanine Design and Requirements David Montanari, Aurélien Diaz, Kevin Haaf Cryostat, final design review SURF, 21-22 August 2017

Table of Content Who Am I and Where Have I Been? Proximity Cryogenics in Detector Cavern. Loads Assumptions. Load Requirements. Documents and References. Summary. 2

Who Am I and Where Have I Been? Far Site Facilities L3 Manager N2 Cryo Systems and Cryo Fluids. Previously L3 Deputy Manager for Cryogenic Systems. Liaison at CERN between CERN and Fermilab. Started as lead cryostat engineer for 35 ton, then LBNE. Experience includes 11 years as a project manager and engineer working on design, construction and operation of high purity systems (including cryogenic) for scientific applications ranging from neutrino to dark matter physics. Certified as a Project Management Professional (PMP). 3

Proximity Cryogenics in Detector s Cavern Mezzanine Design based on /DUNE requirements and real size components. All items transportable down the Ross Shaft. Preliminary installation sequence thought out (to be finalized). Lifting eyes on the roof of the cavern for equipment lifting and positioning. Connections to the cryostat feedthroughs on the roof. Main components: - LAr Phase Separators (return from purification). - LN2 Phase Separators. - Condensers. - Small LAr buffer tanks (for condenser pumps) and condenser LAr pumps. - Cryostat Pressure Safety Valves (PSVs), Piping and lockout valves. - Cryostat pressure control. - Frame for warm panel. - Valves and interconnecting piping. - PLC racks. - Working platforms around vessels for installation and maintenance of equipment. 4

Iso View 7.7 m 5

Side View Envelope of I-Beam + Crane 7.7 m 6

12 m Top View 2.9 m 35 m 7

Loads Assumptions All vessels filled with respective cryogenic fluid (LAr, LN2). ID of vessels used to calculate amount of fluids. All pipes filled with respective cryo fluid (LAr, LN2, cold GAr, cold GN2). OD of pipes used to calculate amount of fluids. Pipes and vessels sizes from catalog. Weight compared with that of standard items (highest value selected). All welded connections (no flanges). Included estimate for instrumentation (no list yet). No purge lines, valves for chimneys (estimated in warm panel). Stands and supports for vessels, pipes, valves included. All cryo valves and majority of warm items included (smaller items missing). PSVs for cryostat and vessels included. Trapped volume PSVs and PSVs for VJs and pump out ports estimated. Main support structure (item 6) is a concept. Included but will need to be properly designed. MLI and process pipe holders in VJs estimated. There might be minor interferences still being worked out. Location of vessels and main valves is set. Smaller valves and pipes may need to move a bit. Included 20% uncertainty on length of pipes and 10% uncertainty on number of valves. 8

Mezzanine Requirements Load Distribution 9

Mezzanine Requirements Loads Table Item ID Name/Description N. Items Unit Load Total Load kg kg 1, 2, 3 PSVs block with valves, pipes (Purple) 16 721 11,531 4, 5 Vent block w valves, pipes (Green) 14 1,053 14,745 6 Main platform (LN2 Phase Separators, Valves, Pipes) 21 3,095 64,995 7 Warm panels w valves, pipes 1 3,600 3,600 8 LAr Phase Separators (2-4) 12 2,707 32,484 8* LAr Phase Separator (1) 4 3,457 13,829 9 LAr Buffer and Condenser w valves, pipes 12 1,184 14,209 10 LAr Condenser Pump 4 1,385 5,540 11 PLC Control Racks 4 1,361 5,443 - Other items distributed over/under mezzanine - 15,987 Total 182,363 10

Documents and References Design of the Cryogenics on the mezzanine: EDMS 1834431, DocDB-583. 3D model of Cryogenics on mezzanine: EDMS 1749033, DocDB-583. Mezzanine Design Requirements: EDMS 1818308, DocDB-583. Detector s Cavern profile: DocDB-136. P&IDs: DocDB-212. Ross Shaft requirements: DocDB-328. Detector s Cavern Lifting eyes grid: DocDB-464. 11

Summary The Proximity Cryogenics on the mezzanine has been conceptualized to fit in the available cavern space over the cryostat and in the Ross shaft. Minor adjustments to the HVAC layout needed. Good understanding of size, weight and location of the components (installation and maintenance considered). Feedthroughs through the roof of the cryostat fixed. Requirements on mezzanine platform are understood and include uncertainty for unaccounted loads. Studying the air flow pattern around the cryostat to maintain the temperature of the steel support structure within the limits. 12

Thanks 13

Backup Slides 14

Proximity Cryogenics in Detector s Cavern LAr Pumps and inline safety valves LAr pumps. Concept of Clean Room (CR) for detector installation. Inline safety valves (one per penetration). Same as in ProtoDUNEs. Cryostat Secondary Barrier ProtoDUNE S/P Cryostat Vapor Barrier Cryostat Membrane 5.1 m 3.3 m 15