Proposal for ½ MW photo-fission driver based on TESLA 1.3 GHz SCRF technology (Shane Koscielniak, 09 Nov 2007) Electron Linac CANADA ’ S NATIONAL LABORATORY.

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Presentation transcript:

Proposal for ½ MW photo-fission driver based on TESLA 1.3 GHz SCRF technology (Shane Koscielniak, 09 Nov 2007) Electron Linac CANADA ’ S NATIONAL LABORATORY FOR PARTICLE AND NUCLEAR PHYSICS Owned and operated as a joint venture by a consortium of Canadian universities via a contribution through the National Research Council Canada LABORATOIRE NATIONAL CANADIEN POUR LA RECHERCHE EN PHYSIQUE NUCLÉAIRE ET EN PHYSIQUE DES PARTICULES Propriété d ’ un consortium d ’ universités canadiennes, géré en co-entreprise à partir d ’ une contribution administrée par le Conseil national de recherches Canada

The requirement: 50 MeV × 10 mA = ½ MW beam power eliminated on target. Bunch charge (pC)8 Bunch repetition rate (GHz)1.3 Radio frequency (GHz)1.3 Average current (mA)10 Kinetic energy (MeV)50 Beam power (MW)0.5 Duty Factor100% Normalized emittance (μm)<30π Longitudinal emittance (eV.ns)<20π Bunch length (FW), inject (ps)<170 Bunch length (FW), eject (ps)>30 Energy spread (FW), eject<1%

Why SCRF? High duty factor or c.w. operation inconceivable with NC cavities – for 50 MeV c.w., need 3 MW RF power! Why 1.3 GHz and 2 K? constant gradient = 1.3 GHz SCRF cavities have been in development for >30 years, starting with 27 m long 50 MeV SCA at Stanford. With major impetus from TESLA, technology is now mature with gradients >20 MV/m routine.

Interior dimensions: 24 m (E-W), 29 m (N-S) RF gallery 8×8 m 2 Cryogenic: 4×6 m 2 ERL alone 18.2×10.4 m 2 This does not include IR-FEL. Must add chicane, wiggler, experiment, etc 50 kw dump: 4×3 m 2 Maze

This does not include shielding of 1.5 m concrete Interior dimensions: 23.8 m (E-W), 28.9 m (N-S) – wall to wall RF gallery 8×8 m 2 Cryogenic: 4×6 m 2 Electron linac alone 15×3 m 2 50 kw dump: 4×3 m^2 Equipment racks & PS: 4×2 m 2 This does includes maze; could move linac south if maze re-designed. Maze Total footprint approx 8.5×25 m 2

This includes shielding of 1.5 m concrete Interior dimensions: 23.8×28.9 m m NS between N wall and dump RF gallery 8×8 m 2 Cryogenic: 4×6 m 2 Electron linac alone 15×3 m 2 50 kw dump: 4×3 m^2 Equipment racks & PS: 4×2 m 2 This does not include cryogenic; moved south. (But no laser lab upgrade!) Total footprint approx 11.9×21.2 m 2 Maze

This includes shielding of 1.5 m concrete Interior dimensions: 23.8×28.9 m m NS between N wall and dump RF gallery 8×8 m 2 Cryogenic: 4×6 m 2 main linac Equipment racks & PS: 4×2 m 2 This does not include cryogenic; moved south. (But no laser lab upgrade!) Total footprint approx 11.9×21.2 m 2 50 kw dump: 4×3 m 2 injector linac Maze

This includes shielding of 1.5 m concrete Interior dimensions: 23.8×28.9 m m NS between N wall and dump RF gallery 8×8 m 2 Cryogenic: 4×6 m 2 Main linac Equipment racks & PS: 4×2 m 2 Total footprint approx ? Injector linac 50 kw dump: 4×3 m 2 Maze

This includes shielding of 1.5 m concrete Interior dimensions: 23.8×28.9 m m NS between N wall and dump RF gallery 8×8 m 2 Cryogenic: 4×6 m 2 Main linac Equipment racks & PS: 4×2 m 2 Total footprint approx ? injector linac 50 kw dump: 4×3 m 2 Maze

Shielding: shield who from what? GANIL/SPI2/007-A = Spiral-II Electron Option Preliminary Design Study Base radiation protection on goal of ≤ 7.5μSv/h (so-called “Surveillance Zone”) Scenario: 1 μA localized loss at 50 MeV, leading to istotropic brehmstrahlung gives gamma flux MeV/s/m 2. Produces dose equivalent of 1.24×10 7 μSv/h Requires 1.43 m high density concrete to reduce to 7.5 μSv/h

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