TESLA Quad Package With BPM

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Transcription:

TESLA Quad Package With BPM H. Brueck, DESY Zeuthen, January 22, 2004 Technology Working Group 1

Topics The TESLA Quadrupole Package Status of Components Magnet Feedthroughs HTc Leads BPM Test in ACC6 H. Brueck, DESY MKS 2

Tesla Magnet Package cos2θ superconducting quadrupole vertical and horizontal correction dipoles iron yoke, aluminum shrink cylinder, helium vessel HTc current leads ( 50 K) beam position monitor (BPM) attached quadrupole gradient quadrupole current quadrupole inductance dipole field dipole current dipole inductance max. field at conductor field length alignment error (angle) 63.5 T/m 100 A ~ 2.53 H 0.11 T 40 A ~29 mh 3.22 T 0.52 m 0.1 mrad rms H. Brueck, DESY MKS 3

The TESLA Magnet Package Development of the package and fabrication of 2 prototype modules by Ciemat/CEDEX, Madrid, Spain Responsible Luis Garcia-Tabares, Fernando Toral Tests of components and final magnets at DESY H. Brueck, DESY MKS 4

The Tesla Magnet Prototype Quadrupole double layer multi wire ribbon 2 Correction dipoles between quad and yoke Solid iron yoke (4 blocks, split in length) Aluminum shrinking cylinder (split in length) Package operated at 2K H. Brueck, DESY MKS 5

The Tesla Magnet Prototype H. Brueck, DESY MKS 6

Ribbon Machine 8 wires glued by EPOXY to flat cable 0.41x0.64 mm nude dimensions 0.46x0.69 mm PVA enamel insulated, Cu/Sc=1.84, 4182 filaments, 5.2 micron, RRR=119 tolerances are 0/-0.01 mm Machine able to produce 130m long ribbons as needed for a coil H. Brueck, DESY MKS 7

Glass fiber pieces for the coils, connection plate Quadrupole spacers Connection plate Dipole spacers H. Brueck, DESY MKS 8

Winding machine with quad coil Both layers wound simultaneously H. Brueck, DESY MKS 9

Winding machine with quad coil About 10 turns of a test coil H. Brueck, DESY MKS 10

Vacuum chamber for impregnation Curing oven H. Brueck, DESY MKS 11

Status of the magnet fabrication Ribbon machine working, first ribbon produced Winding tooling is finished Vacuum impregnation chamber ready and tested All spacers ready, problems with the layer jump fixed First quadrupole coil next week Curing oven available Iron yoke an aluminum cylinder ready soon Complete magnet expected at DESY in April Ciemat/CEDEX needs input for the cryostat design H. Brueck, DESY MKS 12

Feedthroughs CEDEX in-house development Based on printed circuit boards First pieces got leaky after some cryo cycles Improvements in preparation Commercial FT from CABURN Ok, but expensive H. Brueck, DESY MKS 13

Feedthrough Tests Ciemat/CEDEX FT 4 pieces tested Leak rate up to 10-7 mbar l -1 Ciemat/CEDEX is working on an improved version CABURN FT 2 (of 5 available) pieces tested Leak rate below to 10-9 mbar l -1 H. Brueck, DESY MKS 14

HTc Lead Two BiSCCO 2212 HTc fibers Ø2 mm High purity copper, RRR>100 Glass-Fiber tube (G-11), supporting the HTc fibers Two Low Tc superconducting wires are soldered to the fibers and the cup, forming a single wire highly stabilized with copper. Stainless-Steel Shunt H. Brueck, DESY MKS 15

Tests at CIEMAT with LN 2 Critical current @ 77K is larger then 210A Contact resistance @ 77K is less then 0.7µΩ No degradation in 5 T cycles (cool down time 30 min) H. Brueck, DESY MKS 16

Lead Test at DESY Test in vertical bath cryostat at 4K LTc superconducting connection between the two leads Voltages and temperatures monitored Operated up to 160A Then short developed Due to copper cables connected on the warm side of the lead 160A was not limited by the HTc part Test will be repeated in march with correct cables and improved design Iso vacuum 40 to 70K Work by Maschmann, Eschke, Lange Cold Feedthrough LHe bath @4K H. Brueck, DESY MKS 17

Beam Position Monitor No final decision yet Cavity type monitor not good Reentrant monitor favored Cleaning problem probably solved BPM test stand is being build Responsible Dirk Noelle Reentrant Monitor H. Brueck, DESY MKS 18

Test of Magnet Package at TTF We want a final test at 2K in one of the TTF modules One option seems to be ACC6 Decision needed in order to start the cryostat design and fabrication in Spain The package including BPM (without HOM) is a few cm longer than the standard package, but it can probably handeled H. Brueck, DESY MKS 19

Summary The magnet is being produced now in Spain It is scheduled to arrive at DESY in April for testing in a vertical cryostat and warm field measurement Feedthroughs and HTc lead were successfully tested Missing: Final lead design He container design for horizontal testing in Chechia and at TTF H. Brueck, DESY MKS 20

Voltages and Tempeatures 30A to 90A Unwanted Switch off at 90A 32A 40A 50A 60A 70A 80A 90A H. Brueck, DESY MKS 21

Voltages and Tempeatures 90A to 160A Due to warming up of copper cables no wait for stable signals At 160A a short in the connection ( warm side) appeared 90A 100A 110A 120A 130A 140A 150A 160A H. Brueck, DESY MKS 22

Lead Test 30 80A HTc warm side brown and pink Voltage drop HTC lead and superconductor Current green curve Voltage drop each HTc (blue curve offset)! H. Brueck, DESY MKS 23

Current Leads HTc leads designed for 100A Operated up to 160A Limited by cables connected on the warm side of the lead 160A not limited by the HTc part H. Brueck, DESY MKS 24

XFEL Magnet Package info by R. Brinkmann Quadrupoles: integrated gradient 5.6T Correction Dipole Vertical and horizontal bending Integrated field.006tm Quads placed at the end of a module (still open for discussions) H. Brueck, DESY MKS 25