ssr1 superconducting resonator
play

SSR1 Superconducting Resonator Juan Reyes Gonzlez Interamerican - PowerPoint PPT Presentation

SSR1 Superconducting Resonator Juan Reyes Gonzlez Interamerican University of Puerto Rico, Bayamn Campus Mechanical Engineering Department SIST Program August 5, 2013 Sunday, August 4, 13 SSR1 & PXIE Sunday, August 4, 13 SSR1 Main


  1. SSR1 Superconducting Resonator Juan Reyes González Interamerican University of Puerto Rico, Bayamón Campus Mechanical Engineering Department SIST Program August 5, 2013 Sunday, August 4, 13

  2. SSR1 & PXIE Sunday, August 4, 13

  3. SSR1 Main Components Niobium Cavity Helium Vessel made from SS316L Cryomodule at 2K 325MHz Operating Frequency Sunday, August 4, 13

  4. Frequency Tuner Actuation System Main Arms Fulcrum Sunday, August 4, 13

  5. My Contribution Sunday, August 4, 13

  6. Main Arms Stiffness Analysis Sunday, August 4, 13

  7. Simulation Description Sunday, August 4, 13

  8. Simulation Description Simulation Done Using ANSYS Measure Stiffness Deforming the Main Arm with an Applied Force Linear Elastic Analysis (Elastic Zone) Hooke’ s Law: k=F/x Sunday, August 4, 13

  9. Symmetry Plane Sunday, August 4, 13

  10. Why Create a Symmetry Plane? Reduces The Physical Size of The Model Reduces The Simulation Time Makes The Model More Stable for Static Analysis By Removing a Degree of Freedom Sunday, August 4, 13

  11. Symmetry Plane Sunday, August 4, 13

  12. Degree of Freedom Z Y X Degree of Freedom Eliminated Sunday, August 4, 13

  13. Constraints Sunday, August 4, 13

  14. 0 Displacement y-axis Sunday, August 4, 13

  15. 0 Displacement x-axis Sunday, August 4, 13

  16. Mesh Selection Sunday, August 4, 13

  17. Selected Mesh Contains 16,558 number of elements Sunday, August 4, 13

  18. Mesh Selection Mesh Refinement Convergence Study Sunday, August 4, 13

  19. Force Sunday, August 4, 13

  20. Force 200N Force Simulation. 100N Force was placed because of symmetry. Sunday, August 4, 13

  21. Results Max Directional Deformation=0.0059436mm Deformation in Elastic Zone Hooke’ s Law: k=F/x Stiffness: k=33.6kN/mm (previous prototype k=30kN/mm) Sunday, August 4, 13

  22. Deformation at 0s Sunday, August 4, 13

  23. Final Deformation Sunday, August 4, 13

  24. Bellows Experiment Sunday, August 4, 13

  25. Experiment Details Experiment in Elastic Region Measure The Stiffness Adding Weights On Top of The Bellows Measure The Directional Deformation Calculate The Stiffness Using Hooke’ s Law: k=F/x Sunday, August 4, 13

  26. Equipment Weights Approx. 7 .6kg (x9) Dial Indicators (x3) Bellows Sunday, August 4, 13

  27. Experiment Layout Sunday, August 4, 13

  28. Experiment Layout 3 Blocks=223.67N 6 Blocks=447 .16N 9 Blocks=670.65N Sunday, August 4, 13

  29. Results ALL DATA MIN 2.000 2.000 y = 0.0019x - 0.015 y = 0.0022x - 0.0363 1.600 1.600 Displacement [mm] Displacement [mm] 1.200 1.200 0.800 0.800 0.400 0.400 0 (0.400) 0 0 175 350 525 700 0 175 350 525 700 Force [N] Force [N] MAX 1.500 y = 0.0017x + 0.0017 Maximum Stiffness=588.235N/mm 1.200 Displacement [mm] All Data Stiffness=526.316N/mm 0.900 Minimum Stiffness=454.545N/mm 0.600 Estimated Stiffness=526.316±67N/mm 0.300 0 0 175 350 525 700 Force [N] Sunday, August 4, 13

  30. Antenna Flange Aluminum 6062 Welding Processes of the Helium Vessel Detects Shrinkage Measures Temperature Purges the Helium Vessel with Argon Sunday, August 4, 13

  31. Antenna Flange Sketch Sunday, August 4, 13

  32. Antenna Flange Mounted on Helium Vessel Sunday, August 4, 13

  33. Tuner Stand Prototype Sunday, August 4, 13

  34. Tuner Stand Prototype Sunday, August 4, 13

  35. Tuner Stand Prototype Sunday, August 4, 13

  36. Conclusion & Future Work Reasonable Results From Simulations and Test Improving Bellows Experiment Improving The Tuner Stand Design Sunday, August 4, 13

  37. Acknowledgments Leonardo Ristori Donato Passarelli Derek Plant The SIST Program Committee Dr. Davenport Sunday, August 4, 13

Recommend


More recommend