Dan Cheng, Xiaorong Wang 12/15/2015 MQXFA Connectors Discussion Part II.

Slides:



Advertisements
Similar presentations
The HiLumi LHC Design Study (a sub-system of HL-LHC) is co-funded by the European Commission within the Framework Programme 7 Capacities Specific Programme,
Advertisements

Dan Cheng H. Felice, R. Hafalia QXF Structures Video Meeting July 10, 2014 Coil Handling for Magnet Assembly Status Update.
1 Preparation for MQXF Short Model Tests G. Chlachidze Fermilab.
SQXF Instrumentation wires and connectors. Instrumentation & Quench heaters wires March 2014 J.C. Perez2 Instrumentation wires: AXON reference HH2619.
Helene Felice Joint LARP CM20 / Hilumi Meeting April 8 th to 10 th 2013 Napa, CA, USA HQ02 Assembly summary and Next steps.
Superconducting Large Bore Sextupole for ILC
Coil working group video-meeting P. Ferracin, J. C. Perez, S. Izquierdo Bermudez, X. Sarasola February 4th, 2014.
Spectrometer Solenoid Update Steve Virostek Lawrence Berkeley National Lab Roy Preece Rutherford Appleton Lab October 28, 2011 MICE Collaboration Meeting.
HQ TEST CERN by Marta Bajko CERN TE-MSC TF For Hi Lumi and LARP the 16 th of November 2011 CERN.
Coil parts & Instrumentation issues for LQ/HQ coils tested at Fermilab HQ/LHQ coil parts task force.
Coil working group video-meeting P. Ferracin, J. C. Perez, S. Izquierdo Bermudez, X. Sarasola January 29, 2014.
LQ Goals and Design Study Summary – G. Ambrosio 1 LARP Collab Mtg – SLAC, Oct , 2007 BNL - FNAL - LBNL - SLAC LQ Goals & Design Summary Giorgio Ambrosio.
LQS01 Test Preparation and Test Plan LARP Collaboration Meeting 12 LBNL - April 8-10, 2009.
HL-LHC/LARP, QXF Test Facility Workshop– R. Carcagno QXF Test Requirements Ruben Carcagno BNL Workshop December 17, 2013.
Design optimization of the protection heaters for the LARP high-field Nb 3 Sn quadrupoles M. Marchevsky, D. W. Cheng, H. Felice, G. Sabbi, Lawrence Berkeley.
Design Features: still to be determined and open questions P. Ferracin 4 th Joint HiLumi LHC-LARP Annual Meeting November 17-21, 2014 KEK, Tsukuba.
24 January 2014 LARP VTF Follow-up Meeting P. Kovach VTF 1 LARP Vertical Test Facility Vertical Dewar Design, Magnet Prep And Installation Paul Kovach.
Ultra-Compact Electrical Machines for Wind Energy DE-FOA : Demo Machine C. L. Goodzeit and M. J. Ball May 1, 2014 Part 1: Design and Construction.
Development of the EuCARD Nb 3 Sn Dipole Magnet FRESCA2 P. Ferracin, M. Devaux, M. Durante, P. Fazilleau, P. Fessia, P. Manil, A. Milanese, J. E. Munoz.
Brookhaven - fermilab - berkeley US LHC ACCELERATOR PROJECT LHC IR Quad Heaters.
LARP Prototype Assembly Steps Towards Q1 and Q3 Production Dan Cheng MQXF Design Review December 10-12, 2014 CERN H. Felice, R. Hafalia, D. Horler, T.
HQ01e CERN test preparation update CERN Team: H. Bajas, M. Bajko, A. Chiuchiolo, G. Deferne, O. Dunkle, J. Feuvrier, P. Ferracin, L. Fiscarelli, F. Flamand,
LARP CM15 Magnet Testing Working Group SLAC, November 2 nd 2010.
S. Caspi, LBNL HQ Progress and Schedule Shlomo Caspi LBNL LARP Collaboration Meeting – CM13 Port Jefferson November 4-6, 2009.
Spectrometer Solenoid Fabrication Status and Schedule Steve Virostek Lawrence Berkeley National Lab MICE RAL October 20, 2008.
Subscale quadrupole (SQ) series Paolo Ferracin LARP DoE Review FNAL June 12-14, 2006.
MQXFS Assembly Procedure J.C Perez N. Bourcey, B. Favrat, P. Ferracin, Ph. Grosclaude, M. Juchno, L. Lambert, P. Moyret, J. Parrilla Leal, N. Peray, T.
Test Program and Results Guram Chlachidze for FNAL-CERN Collaboration September 26-27, 2012 Outline Test program Quench Performance Quench Protection Magnetic.
Long Quadrupole – G. Ambrosio 1 LARP Collaboration Meeting – FNAL, Oct , 2008 BNL - FNAL - LBNL - SLAC Long Quadrupole Giorgio Ambrosio LARP Collaboration.
Helene Felice HQ Test Results Review Thursday December 16 th Overview of HQ coils and Magnet.
HQM01 Test Summary Outline -Magnet Instrumentation and Shim System -SG Data -Short Sample Limits -Quench Training at 4.6 K and 2.2 K -Ramp rate and Temperature.
Cold powering test results of MBHSP102 Gerard Willering, TE-MSC-TF With thanks to Jerome and Vincent and all others from TF for their contribution.
MQXF Workshop on Structure, Alignment, and Electrical QA Feb 2-4, 2016 Dan Cheng J. De Ponte, H. Felice, S. Kincaid, T. Lipton, S. Myers, A. Pekadis, M.
S. Caspi, LBNL TQS – Progress and plans Shlomo Caspi LBNL Collaboration meeting FNAL April
Dan Cheng S. Kincaide, H. Felice, X. Wang 4/23/2015 MQXFS Mechanical Interfaces (Proposed)
Overview short model design and structures P. Ferracin on behalf of the MQXF collaboration MQXF Workshop on Structure, Alignment, and Electrical QA CERN.
1 MQXF(S) Magnet Interface Document MQXF(S) magnet interface document will describe electrical connection between the magnet and the header assembly Scope.
Cold Mass and Assembly Tooling Design, Procurement Status and Assembly Plan Igor Novitski Fermilab 15 T Dipole Design Review April 2016 April 28-29,
1 PST Heater Panel Design The PST heater panels are internally redundant resistive circuits printed onto a Kapton sheet with an aluminum backing. They.
MQXFS01 instrumentation, Projecting towards MQXFA D. Cheng, S. Myers, H. Pan, X. Wang 10/14/20151.
J.C. Perez, S. Izquierdo Bermudez 11T Dipole models instrumentation.
HQ02A2 TEST RESULTS November 7, 2013 FERMILAB. HQ02 test at Fermilab 2  First HQ quadrupole with coils (#15-17, #20) of the optimized design o Only coil.
Thermal screen of the cryostat Presented by Evgeny Koshurnikov, GSI, Darmstadt September 8, 2015 Joint Institute for Nuclear Research (Dubna)
MQXFS1 Test Results G. Chlachidze, J. DiMarco, S. Izquierdo-Bermudez, E. Ravaioli, S. Stoynev, T. Strauss et al. Joint LARP CM26/Hi-Lumi Meeting SLAC May.
LQM01 Test Summary Guram Chlachidze LARP CM16 Montauk, NY May 16-18, 2011.
MQXFSM1 results Guram Chlachidze Stoyan Stoynev 10 June 2015LARP meeting.
MQXFSD3 laminated structure J.C Perez N. Bourcey, B. Favrat, P. Ferracin, P. Moyret.
LQS01a Test Results LARP Collaboration Meeting 14 Fermilab - April 26-28, 2010 Guram Chlachidze.
QXF magnet integration Paolo Ferracin Joint LARP/CM20 HiLumi meeting Napa Valley, CA, USA 8-10 April, 2013.
HQ02a Magnet Interfaces at FNAL D.W. Cheng 3/6/2013.
FNAL Workshop, July 19, 2007 ILC Main Linac Superconducting Quadrupole V.Kashikhin 1 ILC Main Linac Superconducting Quadrupole (ILC HGQ1) V. Kashikhin.
Superconducting Cryogen Free Splittable Quadrupole for Linear Accelerators Progress Report V. Kashikhin for the FNAL Superconducting Magnet Team (presented.
Mechanical strain measurements on MQXFS1 Magnet using CERN system M.Guinchard and P.Grosclaude European Organization for Nuclear Research (CERN) 27 April,
September 27, 2007 ILC Main Linac - KOF 1 ILC Main Linac Superconducting Quadrupole V. Kashikhin for Magnet group.
Panda Solenoid Content Interface Box Cold Mass Layout Cooling Lines
QXF Coil Fabrication & Tooling Reaction / Impregnation
MQXC Nb-Ti 120mm 120T/m 2m models
HFM Test Station Main Cryostat
ERMC/RMM activities May 2017
LARP Vertical Test Facility
MBHSP02 test STATUS and first results
Quench Protection Measurements & Analysis
Introduction to the technical content The Q4 magnet (MQYY) for HL-LHC
CEA Nb3Sn quadrupole magnet : test results and future
The Quench Detection-Wire-Feedthrough Plug-In of W7-X
MQXF coil cross-section status
MQXFS1e – PH-to-Coil hipot tests
MQXF quench heaters: tests and investigation (CERN)¶
Hi-pot results summary
J. Fleiter, S. C. Hopkins, A. Ballarino
Presentation transcript:

Dan Cheng, Xiaorong Wang 12/15/2015 MQXFA Connectors Discussion Part II

Outline 12/15/2015MQXFA Connectors Discussion2 Review of MQXFS MQXFA connectors concepts

Instrumentation for MQXFS 12/15/2015MQXFA Connectors Discussion3 Three main instrumentations Voltage tap (VT) (including FVT) Protection heater (PH) Strain gauge (SG) Quench antenna not covered here For each type of instrumentation, we have four main components Connectors on the coil/component level Collectors/distributors at magnet lead and return ends Jumpers between lead and return ends Pigtail between lead end and test facility (lambda plate) We will review the case for MQXFS01 and provide projections for MQXFA01

12/15/2015MQXFA Connectors Discussion4 MQXFS voltage taps 16 taps per coil, 8 taps per layer – 64 taps in total In each layer, 6 taps from the lead end and 2 taps from the return end Wire: 30 AWG with Kapton/Tefzel insulation Same for MQXFA

MQXFS protection heaters 12/15/2015MQXFA Connectors Discussion5 6 heater strips per coil, 2 in inner layer and 4 in outer layer Same for MQXFA Maximum 6 heaters per coil MQXFS01: 4 heaters per coil (configured 2 heater circuits for outer layer, due to FNAL limitations) 16 heaters in total Wire: 16 AWG with Kapton/Tefzel insulation Heater configuration TBD for MQXFA (see later slides) Inner layer: 2 strips Outer layer: 4 strips

MQXFS strain gauges 12/15/2015MQXFA Connectors Discussion6 Coils: LARP: 1 station per coil, azimuthal (T) + TComp. and axial (Z) + TComp., 8 wires/coil, 32 wires/magnet CERN: 1 station per coil, 5 wires per T&Z, 10 wires/coil, 40 wires/magnet Shell: 1 shell with 4 stations, azimuthal (T) + TComp. and axial (Z) + TComp., 32 wires per magnet CERN: 4 stations, 5 wires per T&Z, 40 wires per magnet Rods: LARP only: 1 full bridge per rod, not temperature compensated, 4 wires per rod, 16 wires per magnet To be discussed in later slides: Current proposal for MQXFA (LARP/CERN) will triple: Three stations per coil (24/30 wires/coil, 96/120 wires/magnet) Three shells to be instrumented (96/120 wires per magnet) Rods may be CERN-style only, 20(?) wires per magnet LARP Wire: 4-wire shielded cable, 30 AWG (Vishay 430-FST) CERN Wire: 30 AWG with Teflon (Nexans KZ04-02)

MQXFS: other wiring 12/15/2015MQXFA Connectors Discussion7 Cooling-hole jumper to bring the signals from the return end to lead end Contained in one of the four cooling holes that is expected to be compatible with MQXFA (along with BNL LHe fill tube) Fixed voltage tap (FVT) for quench detection Whole magnet ¼ magnet, ½ magnet, and ¾ magnet These wirings are done at the splice box Wire: 30 AWG with Kapton/Tefzel insulation Pigtail to bring the signals from magnet to FNAL lambda plate FNAL provides the definition on connector type, layout and pinout Power-lead wire for monitoring the NbTi lead quench A pair of wire following the positive and negative lead from the NbTi/Nb3Sn splice to FNAL header Wire: 30 AWG with Kapton/Tefzel insulation

MQXFS skirts 12/15/2015MQXFA Connectors Discussion8 Platforms with interface connectors at both magnet ends

Connector layout at MQXFS1 return end 12/15/2015MQXFA Connectors Discussion9 PH distributor Coil collector VT distributor

Connector layout at MQXFS1 lead end 12/15/2015MQXFA Connectors Discussion10 SG distributor VT distributor

MQXFS1, viewed from LE 12/15/2015MQXFA Connectors Discussion11

MQXFS1 Lead End 12/15/2015MQXFA Connectors Discussion12

12/15/2015MQXFA Connectors Discussion13 MQXFA voltage taps Should not change from MQXFS to MQXFA: 16 taps per coil, 8 taps per layer – 64 taps in total In each layer, 6 taps from the lead end and 2 taps from the return end Wire: 30 AWG with Kapton/Tefzel insulation

MQXFA Protection Heater Configuration 12/15/2015MQXFA Connectors Discussion14 Constraint: V max = 450 V at BNL Inner heater strip voltage should be at least 322 V to deliver 200 A Desired feature: powering the heaters on one side of the coil 4 heater circuits per coil Inner layer: 2 circuits, each strip is a circuit Outer layer: 2 circuits, 2 strips in series to become a circuit Same number of wires as MQXFS1 magnet

MQXFA Protection Heater Connection 12/15/2015MQXFA Connectors Discussion15 Circuit 1 Circuit 2 Inner layer: 2 circuits Outer layer: 2 circuits Circuit 1 Circuit 2 In series

SG Connector proposal for MQXFA 12/15/2015MQXFA Connectors Discussion16 Current proposal for MQXFA (LARP/CERN) will triple: Three stations per coil (24/30 wires/coil, 96/120 wires/magnet) Three shells to be instrumented (96/120 wires per magnet) Rods may be CERN-style only, 20(?) wires per magnet LARP Wire: 4-wire shielded cable, 30 AWG (Vishay 430- FST) CERN Wire: 30 AWG with Teflon (Nexans KZ04-02) Use 40-pin 3M connectors for higher density for both shells and coils; Rods TBD, depending on wiring scheme

MQXFA Coil Strain Gauges Proposal 12/15/2015MQXFA Connectors Discussion17 4x 30 wires 4x 40-pin 3M connectors 4 coils; 3 SG stations, 10 wires each Pigtail converts from 4x 40-pins to 3x 40 pins

MQXFA rods strain gauges 12/15/2015MQXFA Connectors Discussion18 No details yet on the wiring scheme for the full bridges on the axial rods Rods may be CERN-style only, 5-6 wires each, sowe expect 20-24(?) wires per magnet TBD

Connectors concept for MQXFA, LE 12/15/2015MQXFA Connectors Discussion19 SG distributor VT distributor Rotate all connectors 90° to face axially Hypertronics conn. to be replaced, 4x 3x 3M 40-pin package shown (x2)

MQXFA concept, rotated connector skirts, LE 12/15/2015MQXFA Connectors Discussion20 This SG area can be replaced with 40-pin 3M connectors All connectors will be turne 90° to face axially

Additional Slides 12/15/2015MQXFA Connectors Discussion21

Inner layer protection heaters 12/15/2015MQXFA Connectors Discussion22

Outer layer protection heaters 12/15/2015MQXFA Connectors Discussion23

5th May 2014 J.C. Perez24 Instrumentation & QH wires Instrumentation wires: AXON reference HH2619 LH Conductor diameter mm (0.15 mm 2 ) Conductor composition: Copper silver plated External wire diameter: 0.95 mm Wire insulation: polyimide tape wrapped (glued with a thin layer of fluoopolymer) Nominal voltage : 1000V AC Axon voltage test: (2*U N )+1000V= 3 kV Approx. price: 2220 €/km Quench heaters wires: AXON reference H 1619 L Conductor diameter 1.5 mm (1.34 mm 2 ) Conductor composition: Copper silver plated External wire diameter: 1.8 mm Wire insulation: polyimide tape wrapped (glued with a thin layer of fluoropolymer) Nominal voltage : 600V AC Axon voltage test: (2*U N )+1000V= 2.2 kV Approx. price: 4500 €/km

Connectors used on the vertical cryostat in SM18 5th May 2014 J.C. Perez25