A brief Introduction of eRHIC

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Presentation transcript:

A brief Introduction of eRHIC N. Tsoupas, F Meot

eRHIC at BNL Add an electron accelerator to the existing $2.5B RHIC including existing RHIC tunnel, detector buildings and cryo facility 70% polarized protons 25 - 250 (275*) GeV p Luminosity: 1033 – 1034 cm-2 s-1 Light ions (d, Si, Cu) Heavy ions (Au, U) 10 - 100 (110*) GeV/u 80% polarized electrons: 1.3 – 21.2 GeV e- Pol. light ions (He-3) 17 - 167 (184*) GeV/u Center-of-mass energy range: 20 – 145 GeV Full electron polarization at all energies Full proton and He-3 polarization with six Siberian snakes Any polarization direction in electron-hadron collisions: protons electrons * It is possible to increase RHIC ring energy by 10%

ERL-based eRHIC arXiv:1409.1633 Novel FFAG lattice allows 16 beam re-circulations using only two beam transport loops

Parameter Table Parameters eRHIC e p Energy (GeV) 15.9 250 Bunch spacing (ns) 106 Intensity, 1011 0.07 3.0 Current (mA) 10 415 rms norm. emit. (mm-mrad) 23 0.2 β x/y * (cm) 5 rms bunch length (cm) 0.4 IP rms spot size (μ m) 6.1 Polarization, % 80 70 Luminosity, 1033cm-2s-1 3.3 5/22/12 ERL 2015

Low energy cell (N=160.1888 cells per arc), LCELL=2.2242 m θD= 2.910343 mrad BD =0.05941, Gd = -10.6 T/m xDoffset=+5.6 mm ρD= 279.048 m x(mm) θF/2=2.9103/2 mrad 1.334 GeV 2.656 GeV 5.300 GeV ρF= 279.048 m Bf= 0.05941 T, Gf= 10.6 T/m xFoffset= -5.6 mm 3.978 GeV 0.30 m 0.4 BDmax,min=[0.0047, 0.2442] T BFmax,min =[0.1211, -0.1744] T 0.8121 m 5.8 -22.06 -5.6 -16.46 5.6 mm -17.4 ECEN=4.97 GeV 5.2 0.8121/2 m 22.6 θF/2=2.9103/2.0 mrad ρF= 279.048 m 11.14 Quad center D F/2 -11.2 -10 -20 -30

Dejan Trbojevic-June 17- 2015 Synchrotron Radiation for 16 mA 21.2 GeV 11.45 MW for 10mA 15.9 GeV 7.16 MW For 10 mA @ 15.9 GeV 2.65 MW L = 3.33638 m, 106.79 arc cells, xTOTAL=-305.4 x(mm) BFo= 0.161451 T, GF= 20.6 T/m xFoffset= -8.4 mm BDo = 0.161451 T, GD = -28.87 T/m xDoffset=+5.895 mm BFmax,min =[0.442, -0.187] T BDmax,min=[-0.179, 0.482] T QF/2 QF/2 BD BFmax = 0.442 T BDmin = -0.18 T 21.16 GeV 10 6.2 Quad center Quad center 19.84 GeV 13.5 11.6 18.52 GeV 21.4 +5.59 17.20 GeV 15.88 GeV -16.7 -7.8 -10.8 Quad center 14.55 GeV 13.23 GeV -10 11.91 GeV -16.8 -9.1 10.59 GeV BDmax = 0.482 T 9.27 GeV 7.94 GeV BFmin = -0.187 6.62 GeV -20 θF=5.41806/2 mrad θD=3.312967 mrad θF=5.41806/2 mrad 18 cm 18 cm 1.847/2 m 1.1294 m 1.847/2 m ρF=340.8968 m ρD=340.8968 m ρF=340.8968 m BF=BFo + GFx BD=BDo + GDx Dejan Trbojevic-June 17- 2015

Fallback options (2/2) A more global viewpoint, an “all-in-one” option : "Pre-commissioning of eRHIC multi-pass FFAG-optics ER" A full-scale construction and beam experiment based on an FFAG arc, using eRHIC style permanent magnets, placed in CEBAF arc 9 area Including : - Multiple-pass in the FFAG arc - possibility of eRHIC instrumentation and diagnostics R&D (including, e.g., beam position and TOF measurements, full-scale chromatic effects) - multiple-pass ER, RF systems response - SR effects on beam emittance - and on transport of polarization It would allow teams to form and acquire experience Cost estimate : under discussion with JLab (cf. backup slide)

Fallback options (2/2) A more global viewpoint, an “all-in-one” option : "Pre-commissioning of eRHIC multi-pass FFAG-optics ER" A full-scale construction and beam experiment based on an FFAG arc, using eRHIC style permanent magnets, placed in CEBAF arc 9 area Including : - Multiple-pass in the FFAG arc - possibility of eRHIC instrumentation and diagnostics R&D (including, e.g., beam position and TOF measurements, full- scale chromatic effects) - multiple-pass ER, RF systems response - SR effects on beam emittance - and on transport of polarization It would allow teams to form and acquire experience Cost estimate : under discussion with JLab (cf. backup slide)

The End