Hydrostatic Levelling Systems (HLS) on ILC - general aspects and possible realization -

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Hydrostatic Levelling Systems () on - general aspects and possible realization - DESY- Peter Göttlicher Mathias Reinecke Markus Schlösser IWAA08, KEK, 11. 15.02.2008 IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

International Linear Collider International Linear Collider () [ ], a future $6.7 billion particle accelerator designed to recreate the conditions of the early universe. (New Scientist) colliding electrons (e - ) and positrons (e + ) approx. 30km in length, Interaction Point (IP) is in the middle DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

on general idea of tunnel layout DESY- tunnel laser straight or following the curvature of the earth alignment could benefit from, particularly (but not exclusively) if tunnel is following the curvature of the earth www.linearcollider.org IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

XFEL Layout (ML) with DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

What is a? DESY- Wikipedia says: Havard Law School Homeland Security Historisches Lexikon der Schweiz (Encyclopedia on the history of Switzerland) hls, an abbreviation for Hectolitres but NO entry on Hydrostatic Levelling System IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

temperature effects DESY- ρ (kg/m³] 1002 1000 998 996 994 992 990 988 986 984 982 6 kg/m³ 20K 0 10 20 30 40 50 60 t [ C] 0,400 density of water vs. temperature 0,005 height change of a 25mm water calumn vs. temperature [mm] 0,300 0,200 0,100 0,000 150µm 20K 0,000-0,005-0,010-0,015 [mm] -0,100 0 10 20 30 40 50 60 t [ C] -0,020 without correction with correction to 1K IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

Hydrostatic Levelling Systems Hydrostatic Levelling Systems pressure water surface open closed DESY- no geodetic application errors caused by Δp two hoses one tube hybrid errors caused by ΔT equipotential expanse small errors caused by ΔΤ IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

height change and water level change With two-hoses, the water level change in one measurement pot is DESY- dw 1 = 1 dh i with i : number of measurement pots dh : true height change dw : height change of water level IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

height change and water level change With single tube the water level change in one measurement pot is DESY- dw l = 1 dh l ges with l : effective length of tube affected by height change l ges : total length of tube in system dh : true height change dw : change of water level (strictly speaking only for rectangular tube) IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

geoid vs. ellipsoid DESY- one must always bear in mind that represent the PHYSICAL geoid, but accelerator should follow a GEOMETRIC line, e.g. straight line on an ellipsoid. additional high resolution geoid information may be needed if is used for alignment (and not just for monitoring vertical movements) for example in the mediterranean region (Cyprus) the gradient of the geoid undulation can be up to d N = 45µm/km IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

Geoid model by GfZ Potsdam DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

advantages of in accelerators DESY- is a permanent measuring system which requires only little maintenance. High accuracy (1µm or even better) is possible Could be operated during accelerator runs Electronics can be easily separated from sensor, that makes shielding easy Could be used to monitor height movement of all (or only critical) components. automatic feedback system is possible accuracy is NOT influenced by geometric distance (if certain requirements are met closed system, free surface, etc.) IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

of in accelerators can t think of any DESY- but wait ok, if i try really hard allocates permanent space in tunnel costs money (not much, though) detects only vertical movements which is the main direction of movement for accelerator tunnels slow IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY- temperature differences at different locations -> use a half filled pipe system DESY- drifts in results in biased results -> build a system which is drift-free exchange of sensors is challenging -> build a system with easy recalibration IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY measurement pot with in-situ calibration H P reference (invar or quarzt glass) pipe pipe H P = H W + D 2 D 1 OF R R R 2 1 1 DESY- maximum level H W D 2 min. level measurement pot R 1 R 2 OF D 1 position of transducer drops out scale drops out not to scale transducer IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY DESY- Because of the nonsatisfying Krautkrämer (GE) equipment which is build for non-destructive material testing, we decided to develop our own Development time was from 2006-2007 First charge of PETRA III has been built, with approx. 150 measurement pots. IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY Electronics Structure DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY New Electronics Power (AC/DC) Control Unit (-MAIN) Up to four metering points per unit (-ADCs) Operate Transducer (coaxial cable) DESY- Temperature Sensors (PT1000) CAN Bus to PC (system master) ~18cm IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY New Electronics DESY- Features: Up to 4 measuring units (-ADC) per control unit (-MAIN) => cost effective Measures with up to 1Hz (depending on readout speed and number of units per CAN bus) Fully controlled via CAN Bus (Ethernet possible) Provides Raw Data on request Firmware upgrade (software algorithm) possible Two external temperature sensors Compact housing: width-optimized EURO frame CE (safety, EMC) certified low power: ~30W/crate (~8W/channel) IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

-ADC: Metering Unit - Pulse Generation (Piezo): 120V, 30ns, adjustable - Receiver: 4th order Bessel filter, amplifier - ADC: 12bit, 100MSamples/s - FPGA for fast data handling DESY- Pulse Generation FPGA Receiver Section Power Regulation ADC IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

-Main: Control Unit - Communication with system s master (CAN bus) - Readout of raw data from the four -ADCs - Calculation of the transit times R1, R2 and OF - Operation of the temperature sensors DESY- Temperature sensor operation System s Clock SRAM (raw data) CAN Bus (isolated) ARM7 µcontroller IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY Raw Data DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY Transducer DESY- Measured frequency spectrum (red) of a reflection signal (light blue) IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY - Software Algorithm I Step 1: Calculate the baseline and for each reflection signal the amplitudes A1, A2 and A3. DESY- => Signal (amplitude) fading is compensated. IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY - Software Algorithm II Step 2: Read user setting for threshold and analyze the following zero crossing in the raw data. DESY- The threshold defines which zero crossing in the reflection signal is THE transit time (R1, R2 or OF) IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY - Software Algorithm III Step 3: Optimize the result by interpolating between the sampling points before and after the actual zero Crossing. DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

Temperature Compensation DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

DESY - Costs DESY- Approx. component costs, including PCBs: 1. -MAIN (1 per unit): 170 2. -ADC (up to 4 per unit): 200 3. Mechanics + AC/DC conv. (1 per unit): 340 4. Piezo-Transducer (1 per -ADC): 800 Costs per channel without Piezo-Transducer: 700 (1 channel in unit) 330 (4 channels in unit) IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

eathquake monitoring earthquake Honshu/Vanuatu (~7.0) DESY- earthquake Greece (~5.7) IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

eathquake monitoring DESY- two earthquakes within a short time -> Honshu, Japan Mag 6,7 00:41:57 -> Vanuatu Mag 7,2 00:40:03 (Quelle: USGS) one earthquake in Europe -> Greece Mag 4,5 13:58:00 The earthquake in Greece is considerably smaller, but can be seen in Hamburg due to the much shorter distance IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

fft of -Signal DESY- t = 18s IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

fft of seismometer signal bseg DESY- t = 10s t = 21s IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

accuracy of σ US : accuracy of ultrasonic measurement σ D : accuracy of calibration measurement 2 Δ H σ = 2 2σ M σ ΔΗ = 1.2µm DESY- 2 M 2 2 5σ D 6σ US σ = + σ US = 0.3µm σ D = 0.2µm σ M = 0.86µm IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

corrosion problems with corrosion at two parts of the measurement system 1. Ultrasonic transducer 2. reference reflector DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

corrosion of transducer no corrosion during lifetime of old systems (~5 years) heavy corrosion with new systems (within 5 weeks) DESY- IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

corrosion of transducer DESY- sensors after ~ 4 weeks in system IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

corrosion of transducer various models for this ultra-fast corrosion chemical (influence of synchrotron radiation & o-ring electro-chemical cavitation DESY- two different sensors in water give a voltage of up to 200mV IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

building a battery voltage between two different transducers over 6 days 200,0 150,0 100,0 filled with new water touched the cable 50,0 0,0 DESY- U [mv] -50,0-100,0-150,0-200,0-250,0-300,0 15:48:58 03:48:58 15:48:58 03:48:58 15:48:58 03:48:58 15:48:58 03:48:58 15:48:58 03:48:58 15:48:58 03:48:58 15:48:58 Zeit 685-715 "" IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

reason & solution DESY- Krautkramer (GE) changed the solder to a non-lead one transducers were produced with different solders solder is replaced with an o-ring, lid is screwed prototypes ready, tests to come IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

corrosion of invar reference DESY- invar is rusting, so the invar references were coated with nickel ~ 1 of 10 references rusted anyway starting at the edges this could not be avoided by thicker coating IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

solution DESY- make the reference from quartz glass α = 0.5 10-6 IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)

alignment could benefit from geoid undulations have to be measured for alignment DESY- is cheap and provides high accuracy some problems with the of the DESY- have been solved IWAA2008 on Peter Göttlicher, Mathias Reinecke, Markus Schlösser (DESY)