Computing for accelerator physics Ilya Agapov, 7/12/09, DESY ...

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Plasmawakefield acceleration Use wakes created in plasma by intense electron or laser beams Accelerating tp ~1GeV over ~ 3 cm (would take ~1030m with RF) Challenges: energy spread, beam emittance, maintaining accelerating gradient, module staging Proof of concept SLAC, LBNL From CERN Courier June 2007
<strong>Computing</strong> in the project lifecycle
Page 1 and 2: Computing for accelerator physics I
Page 3 and 4: Areas where computing plays a role
Page 5 and 6: Linear accelerators Injectorts for
Page 10 and 11: EM field calculations LHC main quad
Page 12 and 13: CST particle studio Collimator wake
Page 14 and 15: Wakefield code ECHO (TU Darmstadt /
Page 16 and 17: Beam optics Accelerator dimensions
Page 18 and 19: Linear optics A typical parametriza
Page 20: Steering (PLACET code, D.Schulte, A
Page 26 and 27: MADX Widely used beam optics cod
Page 28 and 29: Energy deposition and machinedete
Page 30 and 31: Energy deposition, collimation, hal
Page 32 and 33: Control Systems and online optics
Page 34 and 35: LHC Online model Provide virtual
Page 36 and 37: User interface for interactive expe
Page 38 and 39: Aperture measurements (arcs) Free
Page 40 and 41: General data management issues Dat

Computing for accelerator physics Ilya Agapov, 7/12/09, DESY ...

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