18.02.2016Lutz Lilje DESY -MPY- Summary of the Superconducting RF WG DESY -MPY- 23.6.2005 Overview on talks given List European Assets.

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Presentation transcript:

Lutz Lilje DESY -MPY- Summary of the Superconducting RF WG DESY -MPY Overview on talks given List European Assets for the ILC Define necessary R&D and its benefits and needs

Lutz Lilje DESY -MPY-

ILC European Meeting – London / 21 st June 2005Bernard Visentin Baking  Recipe for high gradients T = °C t = 1 – 2 days Whatever the chemical treatment… ( Electropolishing or Buffered Chemical Polishing ) Whatever the niobium structure… ( Single or Poly-crystal,) 1.3 GHz - Saclay / KEK Electropolishing Poly-crystal 1.3 GHz - Saclay Chemical etching Poly-crystal 2.2 GHz - JLab Chemical etching Single crystal ( Narrow Tuning Range ) Whatever the fabrication method… ( EB Welding or Hydroforming, bulk Nb or clad Nb/Cu)

ILC European Meeting – London / 21 st June 2005Bernard Visentin Test Stand ( Vertical Cryostat ) ( RF Test ) RF Test « in-situ » Baking : 110 °C - 2 days Air-Drying : RT – 3 hours High Pressure Rinse - 85 bars (FE) Assembly + Helium Test Clean Room ( Class 100 ) « In-Situ » Baking unadapted to Cavity Mass Production save time: decrease Baking Duration risk of helium leaks (  T ) for final RF test: Baking before Assembly save step: Drying with Baking

ILC European Meeting – London / 21 st June 2005Bernard Visentin Test Stand ( Vertical Cryostat ) RF Test Hot Air-Drying : T – 3 hours High Pressure Rinse - 85 bars (FE) Assembly + Helium Test Clean Room ( Class 100 ) Hot Air - Drying Hot Air - Drying well adapted to well adapted to Cavity Mass Production save time: decrease Baking Duration risk of helium leaks (  T ) for final RF test: Baking before Assembly save step: Drying with Baking

ILC European Meeting – London / 21 st June 2005Bernard Visentin « Fast » Baking ( UHV ) Cavity pumped out ( Ultra High Vacuum ) Infra-Red emitters (T : short rise time) 145 °C - 3 hours Right Hypothesis Q-slope  O diffusion Ithaca - SRF Workshop ’ 2005

CEA DSM Dapnia Drop in the polishing speed. Deterioration of samples’ surface. Changes in intensity oscillations. Aluminum corrosion, S and H 2 S production Aging Of The Bath

CEA DSM Dapnia Aging effect on samples’ surface 14 V 4mm

CEA DSM Dapnia Aluminum corrosion, S and H 2 S production Lower content of H 2 SO 4 reduces S production but increases Al corrosion (± acceptable !)

CEA DSM Dapnia Cathode corrosion under bias Corrosion becomes important when HF has reduced due to reaction + evaporation

CEA DSM Dapnia Summary Without bias HF prevents S synthesis in presence of H 2 SO 4 H 2 SO 4 hinders Al dissolution in presence of HF Active dissolution of Al and production of S when HF decreases (evaporation, reaction) With bias: Synthesis of S and corrosion of aluminum cannot be hindered They can be reduced (↑ HF, ↑ H 2 O,↓ H 2 SO 4 )

CEA DSM Dapnia Conclusion 1 S is not soluble in H 2 O : rinsing process works in ethanol, but not very effective is very effective in chloroform, but safety issues Rinsing process must be improved Aluminum : Is slightly dissolved in acidic mixture keeps in the form of Al 3+ salts Rinsing process must be improved + Change in EP bath composition : ↑ HF, ↑ H 2 O

Lutz Lilje DESY -MPY-

ILC Europe 2005 Wire Position Monitors On line monitoring of cold mass movements during cool-down, warm-up and operation 2 WPM lines with 2 x 18 sensors 4 sensors per active element 8 mm bore radius 1 WPM lines 1 sensors per active element 25 mm bore radius 1 WPM line 7 sensors/module 25 mm bore radius Cry 1 Cry 2 Cry 3 Module 1Module 2 & 3Module 4 & 5

ILC Europe 2005 Performing Cryomodules Required plug power for static losses < 5 kW/(12 m module) Reliable Alignment Strategy Sliding 2 K “Finger Welded” Shields Three cryomodule generations to: improve simplicity and performances minimize costs

ILC Europe 2005 Large Bending in First Cooldown New Cooldown procedure suggested by the WPM’s measurements during the first “fast” cooldown The Big Banana

ILC Europe 2005 Safe Cooldown of ACC4 and ACC5 X Y

ILC Europe 2005 TESLA Cryomodule Concept Peculiarities Positive Very low static losses Very good filling factor: Best real estate gradient Low cost per meter in term both of fabrication and assembly Project Dependent Long cavity strings, few warm to cold transitions Large gas return pipe inside the cryomodule Cavities and Quads position settable at ± 300  m (rms) Reliability and redundancy for longer MTTR (mean time to repair) Lateral access and cold window natural for the coupler Negative ? Longer MTTR in case of non scheduled repair Moderate (± 1 mm) coupler flexibility required

ILC Europe 2005 Cry3 adaptation in progress

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Lutz Lilje DESY -MPY- More detailed charge [for Snowmass] The Working Groups must work to agree upon the configuration of a large fraction of the collider design before and during the Workshop[Snowmass]. They should use the Workshop to develop paths to working decisions for the remaining critical issues with the expectation that these could be decided at one or two subsequent meetings during the fall of The Workshop should also be used to start the initial documentation of the BCD. Finally, the Working Groups should identify critical R&D topics and timescales for alternative solutions to the ILC Baseline Configuration that could have a significant impact on the performance or cost of the linear collider.

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Lutz Lilje DESY -MPY- Potential European Contributions to ILC SRF R&D

Lutz Lilje DESY -MPY- Potential European Contributions to ILC SRF R&D

Lutz Lilje DESY -MPY- Thanks for your attention!