Signal FT chimneys (SFTC)

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Signal FT chimneys (SFTC) Technical Design Review of the Dual Phase ProtoDUNE April 24-25, 2017 Signal FT chimneys (SFTC) C. Cantini, P. Chiu, A. Gendotti, L. Molina Bueno, S. Murphy, A. Rubbia, C. Regenfus, F. Sergiampietri, S. Wu CERN - ETHZ 1

SFT CHIMNEYS CONFIGURATION Depending on the charge readout configuration: 1. Cable connection of the CRPs to the outer/warm FE (front-end) and A2D (analog-to-digital) electronics, via 2.75m (≡118.25pF) long cables . (CRP capacitance: ~110pF/m). 2. Connection of the CRPs to cold/in-vessel (not accessible) FE electronics, plus connection via chimney + warm SFT to the outer A2D electronics. 3. Connection of the CRPs to ~cold/in-chimney (accessible/replaceable) FE electronics (cable length = 0.5-0.75m ≡ 21.5-32.5pF), plus transmission of the amplified signal to the outer A2D electronics via in-chimney cables. A2D A2D FE+A2D FE FE CRP CRP CRP All the 3 configurations imply heat input through signal cables (~43W for 12 chimneys) and through the top cap crossing tubes and chimney tubes (~35W for 12 chimneys). Configuration 1 implies an increase of detector channel capacitance and works at room temperature (lower S/N ratio). Configuration 2 and 3 imply heat dissipation from the FE electronics (~60W (?) for 12 chimneys). In configuration 3 the conduction heat input and FE electronics dissipation can be compensated by local heat exchangers. Configuration 3, with cold, accessible/replaceable electronics, and short signal cables (good S/N ratio), has been chosen. 2

12 SFTC on the top of the cryostat. 6 Chimneys for the X-coordinate readout (1/meter) and 6 for the Y­-coordinate readout (1/meter)

12 SFTC on the top of the cryostat. 6 Chimneys for the X-coordinate readout (1/meter) and 6 for the Y­-coordinate readout (1/meter) 1 m 1 m

Signal FT chimney configuration Low-noise front-end electronics: advantage to operate at temperatures 90K-110K Gianluigi De Geronimo, Alessio D’Anadragora*, Shaorui Li, Neena Nambiar, Sergio Rescia, Emerson Vernon Hucheng Chen, Francesco Lanni, Don Makowiecki, Veljko Radeka, Craig Thorn, and Bo Yu, Brookhaven National Laboratory, NY, USA and * University of L’Aquila, Italy 5

SFT chimney across the cryostat top cap 640 channels SFTC Outer tube diameter = 254mm Penetration pipe Inner diameter = 273mm TOP (outer) SS layer GRPE thermal insulation BOTTOM (inner) SS layer 6

SFT chimney partially open and SFT pcb Warm Signal FT (1480 contacts) Cold FE Analog Acquisition card (32 ch. each) Cold Signal FT (1360 contacts) 7

SFT chimney partially open and top details Emergency removable flange with increased N2 gas flushing Overpressure check valve Preliminary vacuum valve Pressure transducer Warm Signal FT (1480 contacts) N. 10 40-twisted pairs Cables and Connectors Input pipe for N2 gas flushing In-Out pipes for LAr bottom heat exchanger Pt-1000 connector N. 10 34-twisted pairs Cables and Connectors Cold FE Analog Acquisition card (32 ch. each) N. 10 Extractable blades with handles for TP cables and FE electronics cards Guides for blades Cold Signal FT (1360 contacts) 8

SFT chimney partially open and bottom details Warm Signal FT Guides for blades LAr heat exchanger coil Cold FE Analog Acquisition card (32 ch. each) N2 gas flushing perforated ring Cold Signal FT 9

SPARE SLIDES ETH 10 Eidgenössische Technische Hochschule Zürich Swiss Federal Institute of Technology 10

Heat input through cables in each SFT chimney Twisted pairs cables in each SFTC: 10 x 64 conductors, 10 x 80 conductors. Total number of conductors: Nc = 1480 Temperature difference: sc = 0.0509 mm2 Total Cu section: Sc = 1480 x 0.0509 mm2 = 75.332 mm2 Cable length: Lc = 1.758 m Temperature difference: ∆T = 210 K Average Cu thermal conductivity: λCu = 400 W/(m∙K) Total heat input through cables: WCu = λCu Sc ∆T/Lc = 3.6 W Copper Heat input through SS chimney tube (D: 250x254 mm) 304 Stainless Steel Length Lss = 1720 mm X-section Sss = 1583.36 mm2 Average SS thermal conductivity λSS = 15 W/(m∙K) Total heat input through SS WSS = 2.9 W 11

Heat input through FR4 blades and blade guides in each SFT chimney Section of 2 blade guides + 10 blades SFR4 = 52 cm2 Average length of blades and guides LFR4 = 179 cm Temperature difference: ∆T = 210 K Average FR4 thermal conductivity: λFR4 = 0.65 W/(m∙K) Total heat input through FR4: WFR4 = λCu Sc ∆T/Lc = 0.397 W Heat input through 12 SFT chimney Total heat input through 12 SFTC: WSFTC = 12 (0.397+3.6+2.9) W = 12x6.9 W = 82.8 W Total heat input from cold FE electronics: WFE = 120 x 0.3W/card (estimated) = 36 W Total heat input: WT = 119 W Induced LAr evaporation rate: ØLAr=~0.5 cm3/s = ~45.3 L/day (in the internal heat exchanger in each chimney) 12

Situation at present for SFT chimneys Offers requested for Chimney Mechanical Construction/Assembly and Tests. One (from CINEL) arrived (8 working weeks delivery). Preliminary order submitted on EDH. Waiting for other 3-4 offers. Offers requested and received for Commercial Components (Swagelok VCR valves and connectors, MDC 6-pin feedthrough) and CERN details to be sent to the selected construction company for integration. Delivery in 8-10 weeks from the order. Order submitted on EDH. Offers for Cold SFT PCBs requested and received. 20 working days delivery. Order submitted on EDH. Offers for metallic seals for Cold and Warm SFT (Spring energized C seal). ~7 weeks delivery. Order submitted on EDH. 13

Past experience on Signal Feedthrough Chimneys Test on a SFTC for the 311 Dual-Phase Demonstrator N. 4 SFT chimneys with the same configuration of the one proposed, but with half electronic channels (320 in place of 640) are at present installed in the 311 DP Demonstrator. The chimneys have been tested for correct insertion of the front-end electronic cards and connected to the outer digital conversion/acquisition electronics crates. The 20 front-end electronics cards, at present in the 311-DP, can be inserted in the 6x6x6 ProtoDUNE-DP detector (N. 120 in total required with same dimensions and connectors). SFTC for 311 ⌀PIPE = 204mm H (under the CF250/306 flange) = 1565.9mm In the SFTC for ProtoDUNE DP ⌀PIPE = 254mm H (under the CF273/325 flange) = 1771.2mm

SFT PCBs for ProtoDUNE-DP chimneys vs SFT PCBs for 311 DP Warm Signal FT (1480 contacts) ⌀ = 208mm Warm Signal FT (740 contacts) ⌀ = 159.8mm Cold Signal FT (1360 contacts) ⌀ = 208mm Cold Signal FT (680 contacts) ⌀ = 159.8mm 15

Extension of the 311 SFT chimney to the 6x6x6 ProtoDUNE DP 6 Chimneys for the X-coordinate readout (1/meter) and 6 for the Y­-coordinate readout (1/meter) 1 Chimney for the X-coordinate readout (1/meter) and 3 for the Y­-coordinate readout (1/meter). X-channels same as for the 6x6x6 3 m 1 m 1 m 1 m