Title: CLEX Building Layout, Conventional Facilities, TL2, TL2
1 CLEX Building Layout, Conventional Facilities,
TL2, TL2, Status and Schedule Hans-H. Braun,
CLEX day, 12.7.2006
CTF3 complex
X 2 Delay Loop
3.5 A - 1.4 ms 150 MeV
Drive Beam Accelerator
Drive Beam Injector
16 structures - 3 GHz - 7 MV/m
TL1
X 5 Combiner Ring
Two-beam Test Area
150 MV/m 30 GHz
TL2
30 GHz andPhoto injector test area
CLEX
35 A - 140 ns 150 MeV
2CLEX Building key numbers CLEX-A (Accelerator
housing) Inside dimensions L x W x H 42.5 m x
8 m x 2.55-2.65 m, no pillars inside building
! CLEX-G (Equipment Galery) Inside dimensions L
x W x H 22 m x 8 m x 3.45-3.54 m
Bottom line July 2007, Building with
infrastructure ready for move-in !
3Layout of CLEX-A (AAccelerator housing) floor
space
DUMP
D
F
TBL
TL
DUMP
TBTS
DUMP
0.75
CALIFES probe beam injector
ITB
DUMP
walk around zone
Space reservations CALIFES 22.0 m from cathode
preparation chamber to end of spectrometer TBTS 16
.5 m from output spectrometer to end of beam
dump TBL 31.4 m from dogleg bend to end of beam
dump ITB 16.0 m from 2nd dogleg magnet to end of
beam dump
4Layout of CLEX-G (GGalery) floor space
holes for waveguides and cables
rows of 19 racks
27.00 m
Estimate of number of 19 racks required for CLEX equipment Estimate of number of 19 racks required for CLEX equipment
Equipment type Number of racks
Magnet power supplies 30
Ion pump power supplies 5
Vacuum gauges, valves and interlock controls 4
Low power 3 GHz RF 4
Modulator mains distribution 2
Controls, beam diagnostics, timing 3
Total estimate 48
Total rack space available 63
Enough space for all power supplies, vacuum,
controls and beam diagnostics racks needed for
CLEX beamlines Space for two S-band modulators
and klystrons Neighboring CTF2 gallery has space
for one or two more modulators and klystrons and
for more electronic racks (i.e. for 30 GHz
receivers for two beam test stand and drive beam
test beam line)
5Positioning of CLEX-G relative to CLEX-A
6(No Transcript)
7CLEX-G
DBA Klystron Galery
DBA Housing
CLEX-A
8CLEX-G
CLEX-A
9- Floor and Beamline Heights
- Tue to difference in construction technique CLEX
floor is 50 cm lower than combiner ring
building and DB Linac building - Beam height above floor DB Linac, delay loop, TL1
and combiner ring 135 cm - 135 cm 50 cm185 cm seems too much for CLEX G
- Vertical bends needed in TL2
- All beamlines inside CLEX are at the same level
but CLEX G floor has a 1.5 slope for water
evacuation therefore beam height above floor
varies from 1.25 to 1.35m !
10Integration of beamlines with building (N.
Chritin) Goal is to integrate beam-lines,
waveguides, optical lines, ventilation ducts,
connecting holes between building etc. in a
single 3D drawing (CATIA).
11Footprint of beam-lines in CLEX building
12Beam heights above floor
ventilation ducts
probe beam
drive beam
ITB
TBL
13Position of laser beam line holes between gallery
and CTF II (for integration of CALIFE optical
line)
14- TL2
- Preliminary design from LNF
- Refined optics design in progress by
RRCAT/Indore (India) - Dipole magnets and vacuum chamber provided by
RRCAT - Refurbished quadrupoles and sextupoles from
LIL/EPA and TSL - Beam diagnostics (9 BPM/BPI, 1 SR port) to be
provided by CERN - BPM electronics LAPP ?
- Power supplies and cabling to be provided by
CERN - Vacuum pumps, gauges and valves to be provided
by CERN - Mechanical design and supports to be provided by
CERN - Installation foreseen from October 07 to
December 07
15TL2 requirements 1. R56 tunability from
0.35m to 0.35m 2. In whole range T566 0
3. Emittance dilution lt 10 4. ?final 4-5m
(both planes) 5. ?final 0 (both planes)
6. 4.0m dispersion free straight for tail
clipper 7. Vertical achromat for sending the
beam 50 cm downside
from Amalendu Sharma / RRCAT
16- TL2
- Transport from end TL2 to TBL or TBTS
- 11 quadrupole magnets. Refurbished from TSL,
LURE and some new QL3 - 2 dipole magnets either refurbished from LIL or
from LURE - Beam diagnostics (6 BPM, 1 BPR, 1 WCM, 2 OTR)
to be provided by CERN - BPM electronics LAPP ?
- Vacuum systems to be provided by CERN
- Power supplies and cabling to be provided by
CERN - Mechanical design and supports to be provided by
CERN - Installation foreseen from October 07 to March
08 - Interface definition to TBTS required !
Optics design in progress (S. Döbert)
TBL
DUMP
D
F
TL2
DUMP
DUMP
0.75
TBTS
CALIFES Probe beam injector
ITB
DUMP
Transport path
17Magnet and power supply inventory for all CLEX
beamlines TL2 (but without ITB) magnets /
power supplies TL2 TL2 TBTS CALIFES TBL Tota
l Dipoles 5/3 2/1 2/2 1/1
1/1 11/8 Quadrupoles 21/21 11/10 12/12 3/3
(162) /(162) 65/64 H/V Correctors 9/18
6/12 10/20 7/14 1/2 33 / 66 Solenoids
0/0 0/0 0/0 4/4 ? 0/0 4/4
18Instrumentation inventory all CLEX beamlines
TL2 (but without ITB) TL2 TL2 TBTS
CALIFES TBL Total BPM (incl. variants) 5
? 6 10 5 ? 161 ? 43 BPI 4 ? 0 0 0 0
4 BPR 0 1 0 1 0 2 WCM 0 1 1 0 1 3 TV-OTR
moveable 0 1 0 1 1 3 TV-OTR fix 0 1 2 1 1
5 TV-SR 1 0 0 0 0 1 BLM 0 0 0 0 16x? 16x?
Acquisition electronics, who builds what ? (this
afternoon)
19Tentative layout of vacuum sectors in CLEX
beamlines TL2 (but without ITB)
CALIFES RF gun
CALIFES Linac with 3 GHz waveguide network
TBTS diag.
TBTS
beam dump
30 GHz waveguide with Grudiev valve ?
TBTS diag.
TBTS
beam dump
TL2
TL2
CR
TBL diag.
TBL
beam dump
10 sectors 4 valves with RF shield 5 valves
without RF shield 1 waveguide valve ?
20Estimate of electrical power requirements in CLEX (kW) Estimate of electrical power requirements in CLEX (kW) Estimate of electrical power requirements in CLEX (kW)
CLEX-A CLEX-G
Magnets 411
3 GHz Modulators, Pulse compression and structures 120
Ambient light 2 1
VME crates 6
40 ion pumps 4
8 turbo pumps 6 1
Bake out equipment 10
Miscellaneous 20 20
Total 38 563
Grand total 601 601
21Estimate of cooling water requirements
22Milestones and Summary Building ready for
installation of beamlines by mid 2007 TL2, TL2
and TBTS to be ready for beam by April
2008 First experiment after commissioning is
high power production with PETS in summer
2008 CALIFES can be commissioned in
parallel Second experiment is two beam
acceleration of CALIFES beam with high frequency
structure powered by PETS in autumn 2008. First
parts of TBL to be tested in 2008 but
construction will happen in phases (see Steffens
talk). ITB is for time being an option for which
we reserve floor space and we should foresee
space for a deflecting magnet in CALIFES beam
line CLEX is quite CompLEX