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Java replacement for Win indows In Interface to Sim imulation of Errors Geometric misalignments No Fernndez lvarez 27/01/2017 Su Summary ry 1. Introduction to WISE geometric 2. WISE calculations 3. WISE usage 4. WISEs output


  1. Java replacement for Win indows In Interface to Sim imulation of Errors Geometric misalignments Noé Fernández Álvarez 27/01/2017

  2. Su Summary ry 1. Introduction to WISE geometric 2. WISE calculations 3. WISE usage 4. WISE’s output 5. Conclusions 6. WISE examples and results

  3. Introduction o WISE geo • WISE is composed by two main modules • Magnetic errors • Geometric errors • It’s the new version of the software written in Excel by P. Hagen • Purpose: Calculate the misalignments of the magnets inside the tunnel • Provides the most recent data for the misalignments

  4. Misalgniments = dcryo + dmag • Position of the magnets inside the cryostat was measured after the assembly process • The cryostat is not perfectly aligned and it moves in time • The best estimation of the position for each magnet is the offset of the magnet + offset the cryostat • The error vector is D(i) = D m (i) + D c (i)

  5. WISE Calculations: Conventions Coordinate system Structure of the magnets • Entry and exit point of each magnets is measured The entry point is .E (entrée) The exit point is .S (sortie)

  6. WISE Calculations: Components Coordinate system • dr = radial difference • dl = longitudinal difference • dv = vertical difference • dt = tilt difference

  7. WISE Calculations: Output data • Δ x = avg (dRe ,dRs) mean offset for the radial component • Δy = avg (dVe, dVs) mean offset for the vertical component • Δs = avg (dLe,dLs) mean offset for the longitudinal component • ΔΨ = avg(dTe, dTs) mean offset for the tilt • ΔΘ = (dRs – dRe)/ magnetic length rotation around x-axis • ΔΦ = (dVs - dVe)/ magnetic length rotation around y-axis • S = Position of the magnet inside the tunnel • Name = magnet name

  8. WISE usage • WISE is released on the afs directory /afs/cern.ch/eng/lhc_online_model/pro/WISE • It only needs one argument: path to the XML configuration file • This configuration file is shared both by the geometric and the magnetic modules • The XML configuration file allows to configure different aspects of the calculations and add filters to the data we want • Example usage: sh WISE.sh /path/to/my/configuration.xml • To run the geometric part, the option MAGNETSGEOMETRY must be present in the ErrorSources element

  9. WISE usage: XML configuration example

  10. WISE usage: Available XML options • MagnetsType : Select the • Uncertainty : Enables/disables magnets we want to use (i.e.: the usage of deterministic MB, MBRB, MQ, … ). By default it errors. Options: true/false takes all of them • Beam : Select the magnets corresponding to the selected beam • Sector : Select the magnets by sector Full details for each parameter can be found HERE

  11. WISE usage: Available XML options • OutputName : Name for the output file • PathToSaveOuputs : Defines the path to save the results • ErrorSources : Defines which calculations must the program run • MAGNETSGEOMETRY : Required to run the geometric part, generates the alignment errors produced due to imperfections in the shape of magnets • TUNNELMOVEMENTS : Generates the alignment errors due to the cryostat position in the tunnel and it’s movements over the time Full details for each parameter can be found HERE

  12. WISE’s output • The output of the program for the geometric part depends on the ErrorSources parameter • MAGNETSGEOMETRY: Generates the misalignments for the magnets • TUNNELMOVEMENTS: Includes the errors produced by the movements on the cryostats • A 6-component vector is produced for each option • The components for MAGNETSGEOMETRY starts with M_ (M_DX, M_DY, … ) • The components for TUNNELMOVEMENTS starts with MA_ (MA_DX, MA_DY … )

  13. Output example • TFS file with the errors

  14. WISE’s output • The output of the program is a TFS table with the chosen data • It can be used in MADX thru the EALIGN command

  15. Conclusions • This tool fully replaces the old Excel geometric simulation software • Can be run in any computer at CERN

  16. WISE Examples • 3 Examples are located in the afs • /afs/cern.ch/eng/lhc_online_model/dev/WISE/geo-examples • Example 1: Runs WISE extracting the misalignments for the magnets • Example 2: Runs WISE extracting the misalignments both for magnets and cryostats • Example 3: Runs WISE extracting the misalignments for the magnets and applying filters to the execution

  17. WISE results • WISE versions comparison : Web to compare the data from both versions of WISE

  18. WISE results Dx component - magnets

  19. WISE results Dy component - magnets

  20. WISE results Ds component - magnets

  21. WISE results Tilt component - magnets

  22. WISE results Theta component - magnets

  23. WISE results Phi component - magnets

  24. WISE results Dx component - Cryostats

  25. WISE results Dy component - Cryostats

  26. WISE results Ds component - Cryostats

  27. WISE results Tilt component - Cryostats

  28. WISE results Theta component - Cryostats

  29. WISE results phi component - Cryostats

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