SPring-8 (1436 m) since 1997 XFEL (700 m) From 2011 Hiroaki Kimura 1,3 ), Masafumi Yamashita 2 ), Yusuke Maeda 2 ), Yoshifumi Tsukamoto 2 ), Noriyoshi.

Slides:



Advertisements
Similar presentations
The Preassembling Installation Survey & Alignment Accelerator Center of IHEP Qu Huamin 2006 / 4 / 27.
Advertisements

XFEL Undulator Efforts at DESY and Thoughts on LCLS-II H.-D. Nuhn June 30, 2010.
CE 260 SURVEYING CHAPTER 5.
Alignment of DB and MB quadrupoles Hélène MAINAUD DURAND 17/11/2011 With a lot of input from Sylvain GRIFFET.
1 Long-term Variation of the Magnet Alignment In SPring-8 Storage Ring Main events of magnet alignment Long-term monitoring Variation of magnet alignment.
LCLS LCLS-II Survey & Alignment
Instrument Tests with the new Leica AT401 Georg Gassner September 16 th 2010.
Experience Report with the Alignment Diagnostic System Georg Gassner September 17 th 2010.
Wed 15 Jul 2009 ATF2 weekly meeting Oxford MONALISA 1 MONALISA at ATF2 First installation report 15 July 09.
Undulator Alignment Strategy – April 20, 2006 Heinz-Dieter Nuhn, SLAC / LCLS FAC 1 Undulator Alignment Strategy Heinz-Dieter Nuhn,
Alignment Strategy for Light Source Facilities LCLS Case Catherine LeCocq SLAC 03/31/08.
Yurii Levashov Undula t or fiducialization test Oct. 14, 2004 Undulator Fiducialization Test Results Fiducialization Tolerances.
Use of a commercial laser tracker for optical alignment James H. Burge, Peng Su, Chunyu Zhao, Tom Zobrist College of Optical Sciences Steward Observatory.
October 20-21, 2005 Internal LCLS Undulator Alignment and Motion Review Catherine LeCocq, SLAC 1 Undulator Alignment Concept &
Isaac Vasserman Magnetic Measurements and Tuning 10/14/ I. Vasserman LCLS Magnetic Measurements and Tuning.
Robert Ruland Installation Alignment -Magnetic Measurements – Fiducialization April 7-8, 2005 FAC Meeting 1 Installation Alignment,
Linac Coherent Light Source Stanford Synchrotron Radiation Laboratory Stanford Linear Accelerator Center LCLS Undulator Physics.
Robert Ruland Intra Girder Assembly and Alignment - October 20, 2005 Internal LCLS Undulator Alignment and Motion Review 1 Intra.
1 Institute of High Energy Physics 13/09/2010 Comparison and Study in Measurement Accuracy of Height Difference between Laser Tracker and Level Men LingLing.
Initial deformation of the PETRA3 slab IWAA2010, Markus Schlösser introduction temperature analytical models measure- ments result Initial Deformation.
A U.S. Department of Energy Office of Science Laboratory Operated by The University of Chicago Argonne National Laboratory Office of Science U.S. Department.
Metrology for NCSX Steve Raftopoulos and the NCSX Metrology Team.
DELTA Quadrant Tuning Y. Levashov, E. Reese. 2 Tolerances for prototype quadrant tuning Magnet center deviations from a nominal center line < ± 50  m.
ALIGNMENT DESIGN AND STATUS OF TAIWAN PHOTON SOURCE WEI-YANG LAI October,
Applied Geodesy Group Survey and Alignment of the ILC An approach to cost calculation and network simulations VLCW06 Vancouver, British Columbia, July.
Critical Points Layouts For Storage Ring and Beamlines Ken Chow March 14, 2014.
Tilt meter fiducial Guide rail Abstract This poster covers the survey and alignment techniques selected for installation of the SPIRAL2 accelerator devices.
Prepared by : GRMIRZA & Co. (
1/12 Sylvain GRIFFET, 17/10/2011 BE/ABP-SU/ Simulations of laser tracker AT401 measurements on TM0 CLIC girders EDMS Document No
Team: Wolfgang Burkert, Haimo Jöhri, Uwe Barth Mechanical precision and vibration behavior of mechanical supports Johan Wickström GFA-ATK.
Orbit Control For Diamond Light Source Ian Martin Joint Accelerator Workshop Rutherford Appleton Laboratory28 th -29 th April 2004.
BEPCII Prealignment Installation Survey and Alignment Accelerator Center of IHEP Xiaolong Wang
D. Missiaen Summaries of the discussion. 2 H. Mainaud Durand The iris diaphragm laser alignment system for Spring 8 storage ring magnets Align multipoes.
The Mission: In order to produce luminosities appropriate for Run II levels, a better understanding of the Tevatron’s orbit would be required. To do that,
Performance Test of Laser Trackers of FARO Ryuhei Sugahara, Mika Masuzawa and Yasunobu Ohsawa KEK, High Energy Accelerator Research Organization Oho, Tsukuba,
CLIC survey and alignment 1 CLIC CES meeting STARTSLIDE CLIC SURVEY AND ALIGNMENT Hélène MAINAUD DURAND.
J T Volk Fermilab April 2008 Ground Motion Studies at Fermi National Accelerator Laboratory James T Volk Applications Physicist II Vladimir Shiltsev, Shavkat.
CLIC Module WG 20/07/2009 H. MAINAUD DURAND, BE-ABP/SU Pre-alignment system and impact on module design.
Survey, Alignment and Metrology Fiducials Requirements Fabien Rey ESS Survey, Alignment and Metrology Group ACCELERATOR TECHNICAL BOARD 23/09/2015.
Survey, Alignment and Metrology Fabien Rey Pawel Garsztka ESS Survey, Alignment and Metrology Group.
Survey, Alignment and Metrology Fabien Rey Pawel Garsztka ESS Survey, Alignment and Metrology Group Interface Workshops for ESS Warm-Linac: ISrc - LEBT.
T. Limberg Position of the 3rd Harmonic System. Injector (with first Bunch Compression Stage) 2 European XFEL MAC May 2010 T. Limberg.
1/13 Tatsuya KUME Mechanical Engineering Center, High Energy Accelerator Research Organization (KEK) ATF2-IN2P3-KEK kick-off meeting (Oct. 9, 2006) Mount.
LMQXFA Cold Mass Assembly Antonios Vouris Fermilab February 3, 2016.
Catherine LeCocq, SLAC Alignment Plan for the LCLS Undulator IWAA 2006,1 Alignment Plan for the LCLS Undulator Catherine.
1) News on the long scale length calibration 2) Results of the two surveys performed on plane 7 Set 1: morning of 12/11/2004 Set 2: morning of 19/11/2004.
The NOnA Experiment Survey of the NOvA Far Detector Gary Feldman
Company LOGO Technology and Application of Laser Tracker in Large Space Measurement Yang Fan, Li Guangyun, Fan Baixing IWAA2014 in Beijing, China Zhengzhou.
KEKBSuper KEKB LERHERLERHER GAIN Energy (GeV) Half crossing angle (mrad) Holizontal emittance (nm) Vertical  -function.
1 BROOKHAVEN SCIENCE ASSOCIATES 12th International Workshop on Accelerator Alignment September 10-14, 2012 Fermilab, Batavia, Illinois, U.S.A NSLS-II Girder.
1 Research on laser tracker measurement accuracy and data processing Liang Jing IHEP,CHINA
Status Report of the Realignment for J-PARC 3GeV RCS N. Tani, H. Hotchi, M. Yamamoto, J. Kamiya, K. Horino, M. Kinsho J-PARC Center, JAEA 1 Outline 1.
AUSTRALIAN NATIONAL UNIVERSITY NUCLEAR PHYSICS DEPARTMENT RECENT ALIGNMENT EFFORTS ALIGNMENT EFFORTS AT THE HEAVY ION ACCELERATOR FACILITY ACCELERATOR.
H. KIMURA, K. Kiuchi, T. Kai, N. Azumi, S. Matsui RIKEN/SPring-8 A Floor Deformation of SACLA Building S Pring-8 A ngstrom C ompact Free Electron LA ser.
BRAINSTORMING ON LASER BASED SOLUTIONS FOR CLIC PRE-ALIGNMENT INTRODUCTION Hélène MAINAUD DURAND, BE/ABP/SU, 09/02/2010 Status of the study CLIC pre-alignment.
Survey for SPL Dominique Missiaen BE-ABP/SU. Outline 12/11/2008 Dominique Missiaen BE-ABP-SU, Survey for SPL 2  Scope & Main Parameters  Technical Description.
The Alignment of DTL in CSNS Institute of High Energy Physics, CAS KE Zhiyong
Alignment and stability session
ALIGNMENT OF THE NEW TRIPLETS
Last results from tests
Summary FD Support System
on behalf of the CLIC active pre-alignment team
Recent developments on micro-triangulation
Workshop on Tau-Charm at High Luminosity
Alignment of the 12 GeV CEBAF Accelerator
The SPEAR3 Upgrade Project at SLAC
The SPEAR3 Upgrade Project at SLAC
The Storage Ring Control Network of NSLS-II
Undulator Alignment Plan
INSTITUTE OF HIGH ENERGY PHYSICS CEPC Survey and Alignment
Presentation transcript:

SPring-8 (1436 m) since 1997 XFEL (700 m) From 2011 Hiroaki Kimura 1,3 ), Masafumi Yamashita 2 ), Yusuke Maeda 2 ), Yoshifumi Tsukamoto 2 ), Noriyoshi Azumi 1 ), Sakuo Matsui 1 ), Noritaka Kumagai 1 ) Installation and Alignment of RIKEN-XFEL at SPring-8 1)RIKEN/SPring-8, 2)SPring-8 Service Co., Ltd. 3)JASRI/SPring-8 BL29XUL From 2000

Outline 1. Overview of our XFEL 2. Strategy of alignment 3. Vertical direction measurement 4. Horizontal direction measurement 5. Alignment of C-, S- band accelerator Section 6. Summary 2 RIKEN’s XFEL: SPring-8 Compact SASE Source (SCSS) Concept Short Period Undulator Lower Beam Energy In-Vacuum Undulator : u = 18 mm, K=1.9, x < 1 Å  E= 8 GeV, 8 GeV, C-band 35 MV/m  230 m Short Accelerator Length High Gradient Accelerator Accelerator length of 400 m

Embankment Weathering bedrock Bedrock Replacement by excavation with crusher stone 33 Concrete pillar Diameter: 1.5 or 1.6m Total :139 Length :19-52m (Ave. 30m) Subsidence ~ 2 0mm/10years Bedrock or Replacement with crusher stone. Subsidence < 2mm/10years Schematic view of XFEL Mar. 2009: Building completed Apr. 2009: Installation started Oct. 2010: Aging of accelerator starts Feb. 2011: Beam commissioning starts

Our situations under the alignment work 1. Requested Accuracy of V&H directions 4 Accelerator Sec.: ±0.1mm(BPM, Q-Mag), ±0.15mm(Accel. Str.), Smooth/400m Light Source Sec. : ±0.1mm/110m(Undulator Sec.) Final goal : 30μm/110m and 5μm/12m at Undulator Section → X-ray Based Alignment and Beam Based Alignment 2. The period for installation & alignment work is 18 months. 3. Displacement of the floor is not small. ~ 2mm/year 4. 1 time / 1 ~ 2 months Survey is needed. → Half week for the entire survey, Compact survey network Girders of Undulators and Q&BPMs are equipped remote positioning system.

Strategy of Alignment Survey of Monuments 5 Vertical direction: Digital Level Horizontal direction: Survey Network Entirety: Undulator Hall: ・ Reference monuments were mounted at intervals of about 30m as a beam line reference for alignment at 700mm horizontal off-set position. Total: 32, Accel. Tunnel:14, U. Hall for BL3:9 for BL1: 9 ・ Accelerator components and stone tables were aligned using a laser tracker, its coordinate system was made from two nearby monuments and an inner level. By total station using only monuments that queues up straight It takes 3 days to survey for all monuments. By laser tracker using monuments of BL3, BL1, and additional points on the Wall → Permanent monuments have the advantage that the alignment work is started at once in an arbitrary place and a measurement accuracy improvement. (Beam direction: Distance Meter)

Instrumentation ・ Laser Tracker: API T3 & OT ・ Digital Level: Trimble DiNi 0.3 ・ Total Station: Leica TDA 5005 ・ Optical Plummets: Leica NL ・ Distance Meter: Kern ME5000 ・ Optical Level: Wild N3, Nikon AS-2 ・ Laser Range Meter: HILTI PD32 ・ Multi-Directional Lasers: TaJIma AL-KYRJ 6

Base level line of XFEL 400m 200m Height Difference -0.81mm ~ 30m 16μradDef. Mag. 20μrad Deflecting angle ~ 5 μrad Geoid level Straight line Accelerator Sec.Undulator Sec.FE & Exp. Monument Laser Tracker, TDA 5005 Optical level ME5000 Digital Level ・ Accel. Tunnel:14, U. Hall for BL3:9 for BL1: 9 ・ Reference point: Center of 1.5 inch ball on the target plate ・ Horizontal position could be moved on the floor by using a plummet.

Vertical Direction 8 History of Floor subsidence from Aug By Digital Level Accelerator Building Area The shape of the subsidence data is very similar to that of embankment. It is as same as the case of BL29XUL(not pillar structure) Recent subsidence Z= 200m (BL29XUL ) Light Source Building Area Recent subsidence is small.

Subsidence of top surface of concrete pillar Observed subsidence is agree with that of floor. 9 Bedrock Embankment

Vertical Direction By Digital Level 10 History of Floor subsidence from Aug Difference of Monument from ideal line Reference point +1mm+2mm+1mm Adjusted before installation Difference of monument position is within 1mm.

Horizontal direction: Survey network ・ by TS using ATR Entirety (640m) Light Source Building (240m) ・ 23 control points only monuments that queues up straight. ・ 4 measuring positions ・ Accuracy of ATR:1” → Estimated error of network: ± 0.5mm ・ 28 control points ・ Monuments for BL3: 9 ・ Monuments for BL1: 9 ・ Additional points on the Wall :10 size: 240m × 8 m ・ 9 measuring positions ・ by Laser Tracker ・ Accuracy of LT :1”, 20μm+0.2ppm → Estimated error of network: ±0.2mm Measuring Position Control Point BL3 BL1 ID

Horizontal Direction By Total Station Survey network 12 Difference of Monument from ideal line Accelerator Building Light Source Building We defined two fixed points. Building curves, swells with the south. South North Entirety consists of three straight line. -10 ~ +15 mm

13 We defined two fixed points at both side of Und. section. Difference of monument position in Undulator section is within 0.1mm in both directions. Displacement at Light Source Building Undulator-Section Vertical Horizontal Digital level data (res. 10μm) is good agreement with HLS data(res. 0.1μm ). By Digital Level By LT survey network

Alignment of Accelerating Structure 14 Using the digital level and the total station Fiducials Adjustment Unit Alignment Unit CCR Using the laser tracker C & S-band accelerator section ( ~ 400m) 136 accelerating structures 24 stone tables for Q-magnet and BPM. Check of Alignment

15 Most part is aligned smoothly. Position of Accelerator Components Difference(mm) C-band S-band Vertical Horizontal ・ There are some jump at several parts.

Strategy of alignment: We adopted permanent monuments and compact survey network. Summary Acknowledgements ・ IHI Inspection & Instrumentation Co., ltd. ・ Pasco Corp., especially Dr. Mishima Difference of reference monuments from ideal line: At Accelerator building: Vertical: 1mm Horizonta: 2mm At Light Source building: 0.2mm, 0.1mm in ID section Displacement of floor: It was within our expectation. → It is important to know the history of the ground displacement for the new facility. We should take care of the displacement of floor in the future Alignment of components: Most component is good. Some smoothing is needed before beam commissioning in next February.

Displacement of BL29XUL in Vac. Sta. # Alti.(m) 50m Top View Side View Original Altitude Line Level(mm) Lateral(mm) North South Vac. Sta. # Level: Subsidence at #51: 54mm (8mm / year) Lateral: Displacement : ~ - 5 ~ +15mm 17 → Accelerator section of XFEL building (located at #35 - #64) Ground displacement depends on that of embankment. : GNSSothers : TS